16 Commits

Author SHA1 Message Date
Jamie Allen 7e7136fad0 post future everything commit 2012-05-19 18:43:54 +02:00
Jamie Allen 58fdce259f added a new version of camnoiseanalysis by Tom S 2012-05-13 21:06:31 +01:00
Jamie Allen 9a6c1c6a55 safety commit prior to leaving for manchester 2012-05-11 23:37:50 +02:00
Jamie Allen 35aa74f743 further commit with correct orientation / placement of the images for FCP 2012-05-11 20:25:57 +02:00
Jamie Allen 0dc006af44 fixes in preparation for Future Everything renders tonight 2012-05-11 17:15:24 +02:00
Jamie Allen 357573f81a added the meshcode to all analyses (just for consistency... see extended description
1) Live/interactive version of one or two of the algorithms. I'd vote
for IResponse, RelaxRate and ColorMulti as the ones to do live on the
laptop.  David is looking at this...

2) The frame skipping issue remains.  I looked at this while travelling
today, but couldn't figure it out.  We're still saving out meshes at
about half the rate of them being created.

3) The following three analyses do exactly the same thing currently,
and it would be good if they had something approaching a real analysis
happening.  Right now it's just a simple z-map in black and white with
some noise on top and lighting... kind of pretty but bit boring
currently:
	ShapeFromShadingAnalysis
	CamNoiseAnalysis
	ShadowScapesAnalysis
2012-05-09 21:11:16 +02:00
Jamie Allen 8872b60133 strobe is somewhere (done for now)... pushing so david can pick this up tonight
still working on shapefromshading so it looks neato
2012-05-09 19:34:37 +02:00
Jamie Allen da5da62160 diffnoise, strobe and relaxrate updates 2012-05-08 21:59:35 +02:00
Jamie Allen ec8d6f1296 colorsingle and colormulti are in interesting places -
* need to talk to tom about _mesh_size_multiplier and the camera
positionings
* still need to fix the file saving thing - we're getting very few
frames out for the number of frames in current (threading issue)
2012-05-08 01:11:31 +02:00
Jamie Allen 34f3cf6ffd safety commit - still working on colorsingle 2012-05-07 21:59:50 +02:00
Jamie Allen 1e5bb28b43 a few tweaks to the main draw loop
working on the colormulti and colorsingle outputs still
2012-05-07 01:08:59 +02:00
Jamie Allen e0e170b522 working on color single and color multi, some openCV implementations in both
still needs work
2012-05-06 22:47:06 +02:00
Tom Schofield 8b9c3eaebc added triangular mesh and scaling for z axis. 2012-05-04 16:48:17 +01:00
Tom Schofield a9c8a56850 now displays images after saving them out and also fixed maths booboo with analysis 2012-04-13 11:16:51 +01:00
Tom Schofield 706eb9354d just sorting out my gitignore file 2012-04-12 10:24:18 +01:00
Tom Schofield 21791b9769 added zmapper from inverse square law saves from main app draw() 2012-04-12 10:21:37 +01:00
32 changed files with 5838 additions and 1819 deletions
Vendored
BIN
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src/.DS_Store src/.DS_Store
.DS_Store
Project.xcconfig
bin/
openFrameworks-Info.plist
opencvExample.xcodeproj/
config.refindx
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<!-- THIS FILE NEEDS TO GO IN THE APPLICATION /data/ folder -->
<config>
<mode>analysing</mode>
<camera>
<id>1</id>
<width>640</width>
<height>480</height>
</camera>
<display>
<fps>30</fps>
</display>
<locale>
<name>FUTURE</name>
</locale>
<analysis_NUM_RUN>
<NUM_RUN_shadowscapes> 1 </NUM_RUN_shadowscapes>
<NUM_RUN_relaxrate> 1 </NUM_RUN_relaxrate>
<NUM_RUN_iresponse> 1 </NUM_RUN_iresponse>
<NUM_RUN_shapefromshading> 1 </NUM_RUN_shapefromshading>
<NUM_RUN_strobe> 1 </NUM_RUN_strobe>
<NUM_RUN_camnoise> 1 </NUM_RUN_camnoise>
<NUM_RUN_colorsingle> 1 </NUM_RUN_colorsingle>
<NUM_RUN_colormulti> 1 </NUM_RUN_colormulti>
<NUM_RUN_diffnoise> 1 </NUM_RUN_diffnoise>
</analysis_NUM_RUN>
<analysis_time>
<acquiretime_shadowscapes> 5 </acquiretime_shadowscapes>
<acquiretime_relaxrate> 5 </acquiretime_relaxrate>
<acquiretime_iresponse> 5 </acquiretime_iresponse>
<acquiretime_shapefromshading> 5 </acquiretime_shapefromshading>
<acquiretime_strobe> 5 </acquiretime_strobe>
<acquiretime_camnoise> 5 </acquiretime_camnoise>
<acquiretime_colorsingle> 5 </acquiretime_colorsingle>
<acquiretime_colormulti> 5 </acquiretime_colormulti>
<acquiretime_diffnoise> 5 </acquiretime_diffnoise>
</analysis_time>
<viewport>
<tx>0</tx>
<ty>-20</ty>
<tz>-400</tz>
<rx>-10</rx>
<ry>0</ry>
<rz>0</rz>
</viewport>
<algorithms>
<vertices_per_frame>1000</vertices_per_frame>
<pixel_per_vertex>4</pixel_per_vertex>
<colormulti>
<algo>2</algo>
<scale>1</scale>
<draw_style>2</draw_style>
<line_width>0.5</line_width>
</colormulti>
<colorsingle>
<algo>2</algo>
<scale>1</scale>
<draw_style>2</draw_style>
<line_width>0.5</line_width>
</colorsingle>
<relaxrate>
<algo>1</algo>
<scale>500</scale>
<draw_style>1</draw_style>
<line_width>2</line_width>
<point_size>2</point_size>
</relaxrate>
<diffnoise>
<algo>1</algo>
<scale>500</scale>
<draw_style>1</draw_style>
<line_width>2</line_width>
<point_size>2</point_size>
</diffnoise>
<shapeshade>
<algo>1</algo>
<scale>500</scale>
<draw_style>1</draw_style>
<line_width>2</line_width>
<point_size>2</point_size>
</shapeshade>
<strobe>
<algo>1</algo>
<scale>500</scale>
<draw_style>1</draw_style>
<line_width>2</line_width>
<point_size>2</point_size>
</strobe>
<camnoise>
<algo>1</algo>
<scale>500</scale>
<draw_style>1</draw_style>
<line_width>2</line_width>
<point_size>2</point_size>
</camnoise>
<shadowscapes>
<algo>4</algo>
<scale>500</scale>
<draw_style>2</draw_style>
<line_width>2</line_width>
</shadowscapes>
<iresponse>
<algo>1</algo>
<scale>500</scale>
<draw_style>1</draw_style>
<line_width>2</line_width>
<point_size>2</point_size>
</iresponse>
</algorithms>
</config>
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/*
~ copyright (c) 2011 dviid
~ contact: dviid@labs.ciid.dk
+ redistribution and use in source and binary forms, with or without
+ modification, are permitted provided that the following conditions
+ are met:
+ > redistributions of source code must retain the above copyright
+ notice, this list of conditions and the following disclaimer.
+ > redistributions in binary form must reproduce the above copyright
+ notice, this list of conditions and the following disclaimer in
+ the documentation and/or other materials provided with the
+ distribution.
+ THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
+ "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
+ LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS
+ FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE
+ COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT,
+ INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING,
+ BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS
+ OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED
+ AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY,
+ OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT
+ OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
+ SUCH DAMAGE.
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
*/
const sampler_t smp = CLK_NORMALIZED_COORDS_FALSE | CLK_ADDRESS_CLAMP_TO_EDGE | CLK_FILTER_NEAREST;
const sampler_t smp_adrs = CLK_NORMALIZED_COORDS_FALSE | CLK_ADDRESS_CLAMP | CLK_FILTER_NEAREST;
float box_integral(read_only image2d_t src, int width, int height, int row, int col, int nbrrows, int nbrcols)
{
float A = 0.0f;
float B = 0.0f;
float C = 0.0f;
float D = 0.0f;
int r0 = min(row, height) - 1;
int c0 = min(col, width) - 1;
int r1 = min(row + nbrrows, height) - 1;
int c1 = min(col + nbrcols, width) - 1;
A = read_imagef(src, smp, (int2)(c0, r0)).x;
B = read_imagef(src, smp, (int2)(c1, r0)).x;
C = read_imagef(src, smp, (int2)(c0, r1)).x;
D = read_imagef(src, smp, (int2)(c1, r1)).x;
return max(0.0f, A - B - C + D);
}
__kernel void hessian_det(
read_only image2d_t src,
int width,
int height,
write_only image2d_t determinant,
write_only image2d_t laplacians,
int layer_width,
int layer_height,
int step,
int filter)
{
int l, w, b;
float Dxx, Dxy, Dyy, inverse;
int idx = get_global_id(0);
int idy = get_global_id(1);
w = filter;
l = w / 3;
b = (w - 1) / 2 + 1
inverse = 1.0f / (w * w);
int c = idx * step;
int r = idy * step;
if(r >= height || c >= width) return;
Dxx = box_integral(src, width, height, r - l + 1, c - b, 2 * l - 1, w) -
box_integral(src, width, height, r - l + 1, c - l / 2, 2 * l - 1, l) * 3;
Dxy = box_integral(src, width, height, r - l, c + 1, l, l) +
box_integral(src, width, height, r + 1, c - l, l, l) -
box_integral(src, width, height, r - 1, c - l, l, l) -
box_integral(src, widht, height, r + 1, c + 1, l, l);
DYY = box_integral(src, width, height, r - b, c - l + 1, w, 2 * l - 1) -
box_integral(src, width, height, r - l / 2, c - l + 1, l, 2 * l -1) * 3;
Dxx += inverse;
Dxy += inverse;
Dyy += inverse;
float4 det = {0.0f, 0.0f, 0.0f, 0.0f};
det.x = (Dxx * Dyy - 0.81f * Dxy * Dxy);
int4 lap = {0, 0, 0, 0};
lap.x = (Dxx + Dyy >= 0 ? 1 : 0);
write_imagef(determinant, (int2)(idx, idy), det);
write_imagef(laplacians, (int2)(idx, idy), lap);
}
int pop_laplacian(read_only image2d_t layer, int c, int r, int width)
{
int lap;
lap = read_imagei(layer, smp_adrs, (int2)(c,r)).x;
return lap;
}
float pop_response(read_only image2d_t layer, int c, int r, int width, int scale)
{
float resp;
resp = read_imagef(layer, smp_adrs, (int2)(c*scale, r*scale)).x;
return resp;
}
bool interpolate_extremum(
int r,
int c,
__global int* pts_cnt;
float2* pos,
float* det_scale
int* laplacian,
read_only image2d_t t,
int t_width,
int t_height,
int t_step,
read_only image2d_t m,
read_only image2d_t mlaplacian,
int m_width,
int m_height,
int m_filter,
read_only image2d_t b,
int b_width,
int b_height,
int b_filter
)
{
// 3D derivatives
int mscale = (m_width / m_height);
int bscale = (b_width / b_height);
float Dx, Dy, Dz;
Dx = (pop_response(m, c+1, r, m_width, mscale) -
pop_response(m, c-1, r, m_width, mscale)) / 2.0f;
Dy = (pop_response(m, c, r+1, m_width, mscale) -
pop_response(m, c, r-1, m_width, mscale)) / 2.0f;
Dz = (pop_response(t, c, r, t_width, 1) -
pop_response(b, c, r, b_width, bscale)) / 2.0f;
// inverse hessian
float v, Dxx, Dyy, Dzz, Dxy, Dxz, Dyz;
v = pop_response(m, r, c, m_width, mscale);
Dxx = pop_response(m, c+1, r, m_width, mscale) +
pop_response(m, c-1, r, m_width, mscale) - 2.0f * v;
Dyy = pop_response(m, c, r+1, m_width, mscale) +
pop_response(m, c, r-1, m_width, mscale) - 2.0f * v;
Dxy = (pop_response(m, c+1, r+1, m_width, mscale) -
pop_response(m, c-1, r+1, m_width, mscale) -
pop_response(m, c+1, r-1, m_width, mscale) +
pop_response(m, c-1, r-1, m_width, mscale)) / 4.0f;
Dzz = pop_response(t, c, r, t_width, 1) -
pop_response(b, c, r, b_width, bscale) - 2.0f * v;
Dxz = (pop_response(t, c+1, r, t_width, 1) -
pop_response(t, c-1, r, t_width, 1) -
pop_response(b, c+1, r, b_width, bscale) +
pop_response(b, c-1, r, b_width, bscale)) / 4.0f;
Dyz = (pop_response(t, c, r+1, t_width, 1) -
pop_response(t, c, r-1, t_width, 1) -
pop_response(b, c, r+1, b_width, bscale) +
pop_response(b, c, r-1, b_width, bscale)) / 4.0f;
float det = Dxx * (Dyy*Dzz - Dyz*Dyz) -
Dxy * (Dxy*Dzz - Dyz*Dxz) +
Dxz * (Dxy*Dyz - Dyy*Dxz);
float invdet = 1.0f / det;
float invDxx = (Dyy*Dzz-Dyz*Dyz) * invdet;
float invDxy = -(Dxy*Dzz-Dyz*Dxz) * invdet;
float invDxz = (Dxy*Dyz-Dyy*Dxz) * invdet;
float invDyx = -(Dxy*Dzz-Dxz*Dyz) * invdet;
float invDyy = (Dxx*Dzz-Dxz*Dxz) * invdet;
float invDyz = -(Dxx*Dyz-Dxy*Dxz) * invdet;
float invDzx = (Dxy*Dyz-Dxz*Dyy) * invdet;
float invDzy = -(Dxx*Dyz-Dxz*Dxy) * invdet;
float invDzz = (Dxx*Dyy-Dxy*Dxy) * invdet;
// derivative * hessian
float xi = 0.0f, xr = 0.0f, xc = 0.0f;
xc -= invDxx * Dx;
xc -= invDxy * Dy;
xc -= invDxz * Dz;
xr -= invDyx * Dx;
xr -= invDyy * Dy;
xr -= invDyz * Dz;
xc -= invDzx * Dx;
xc -= invDzy * Dy;
xc -= invDzz * Dz;
// extremum??
if(fabs(xi) < 0.5f && fabs(xr) < 0.5f && fabs(xc) < 0.5f) {
int fstep = m_filter - b_filter;
(*pos).x = (float)((c + xc) * fstep);
(*pos).y = (float)((c + xr) * fstep);
*det_scale = (float)(0.1333f) * (m_filter + (xi * fstep));
int s = m_width / t_width;
*laplacian = pop_laplacian(mlaplacian, c * s, r * s, m_width);
return true;
}
return false;
}
bool is_extremum(
int r,
int c,
read_only image2d_t t,
int t_width,
int t_height,
int t_step,
int t_filter,
read_only image2d_t m,
int m_width,
int m_height,
read_only image2d_t b,
int b_width,
int b_height,
float tresh
)
{
int border = (t_filter + 1) / (2 * t_step);
if(r <= border || r >= t_height - border || c <= border || c >= t_width - border) {
return false;
}
int mscale = m_width / t_width;
float candidate = pop_response(m, c, r, m_width, mscale);
if(candidate < tresh) {
return false;
}
// If any response in 3x3x3 is greater candidate not maximum
float localMax = getResponse(t, c-1, r-1, t_width, 1);
localMax = fmax(localMax, getResponse(t, c, r-1, t_width, 1));
localMax = fmax(localMax, getResponse(t, c+1, r-1, t_width, 1));
localMax = fmax(localMax, getResponse(t, c-1, r, t_width, 1));
localMax = fmax(localMax, getResponse(t, c, r, t_width, 1));
localMax = fmax(localMax, getResponse(t, c+1, r, t_width, 1));
localMax = fmax(localMax, getResponse(t, c-1, r+1, t_width, 1));
localMax = fmax(localMax, getResponse(t, c, r+1, t_width, 1));
localMax = fmax(localMax, getResponse(t, c+1, r+1, t_width, 1));
int bScale = b_width/t_width;
localMax = fmax(localMax, getResponse(b, c-1, r-1, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c, r-1, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c+1, r-1, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c-1, r, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c, r, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c+1, r, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c-1, r+1, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c, r+1, b_width, bScale));
localMax = fmax(localMax, getResponse(b, c+1, r+1, b_width, bScale));
//int mScale = m_width/t_width;
localMax = fmax(localMax, getResponse(m, c-1, r-1, m_width, mScale));
localMax = fmax(localMax, getResponse(m, c, r-1, m_width, mScale));
localMax = fmax(localMax, getResponse(m, c+1, r-1, m_width, mScale));
localMax = fmax(localMax, getResponse(m, c-1, r, m_width, mScale));
// This is the candidate pixel
localMax = fmax(localMax, getResponse(m, c+1, r, m_width, mScale));
localMax = fmax(localMax, getResponse(m, c-1, r+1, m_width, mScale));
localMax = fmax(localMax, getResponse(m, c, r+1, m_width, mScale));
localMax = fmax(localMax, getResponse(m, c+1, r+1, m_width, mScale));
// If localMax > candidate, candidate is not the local maxima
if(localMax > candidate) {
return false;
}
return true;
}
__kernel void suppress_non_max(
read_only image2d_t tResponse,
int t_width,
int t_height,
int t_filter,
int t_step,
read_only image2d_t mResponse,
read_only image2d_t mLaplacian,
int m_width,
int m_height,
int m_filter,
read_only image2d_t bResponse,
int b_width;
int b_height,
int b_filter,
__global int* pts_cnt,
__global float2* pix_pos,
__global float* scale,
__global int* laplacian,
int max_pts,
float tresh
)
{
int r = get_global_id(0);
int c = get_global_id(1);
float2 pixpos;
float s;
int lap;
if(is_extremum(r, c, tResponse, t_width, t_height, t_step, t_filter, mResponse, m_width, m_height, bResponse, b_width, b_height, tresh)) {
if(interpolate_extremum(r, c, pts_cnt, &pixpos, &s, &lap, tResponse, t_width, t_height, t_step, mResponse, mLaplacian, m_width, m_height, m_filter, bResponse, b_width, b_height, b_filter)) {
int indx = atom_add(&pts_cnt[0],1);
if(indx < max_pts) {
pix_pos[indx] = pix_pos;
scale[indx] = s;
laplacian[indx] = lap;
}
}
}
}
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/*
~ copyright (c) 2011 dviid
~ contact: dviid@labs.ciid.dk
+ redistribution and use in source and binary forms, with or without
+ modification, are permitted provided that the following conditions
+ are met:
+ > redistributions of source code must retain the above copyright
+ notice, this list of conditions and the following disclaimer.
+ > redistributions in binary form must reproduce the above copyright
+ notice, this list of conditions and the following disclaimer in
+ the documentation and/or other materials provided with the
+ distribution.
+ THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
+ "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
+ LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS
+ FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE
+ COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT,
+ INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING,
+ BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS
+ OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED
+ AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY,
+ OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT
+ OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
+ SUCH DAMAGE.
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
*/
const sampler_t smp = CLK_ADDRESS_CLAMP_TO_EDGE | CLK_FILTER_NEAREST;
__kernel void sobel(read_only image2d_t src, write_only image2d_t dst)
{
int2 coords = (int2) (get_global_id(0), get_global_id(1));
int2 dx = (int2)(1,0);
int2 dy = (int2)(0,1);
float Gx, Gy, G, theta, p;
if(coords.x > get_image_width(dst) || coords.y > get_image_height(dst))
return;
p = read_imagef(src, smp, coords - dx + dy).s0;
Gx = p;
Gy = p;
p = read_imagef(src, smp, coords + dy).s0;
Gy += 2 * p;
p = read_imagef(src, smp, coords + dx + dy).s0;
Gx -= p;
Gy += p;
p = read_imagef(src, smp, coords - dx).s0;
Gx += 2 * p;
p = read_imagef(src, smp, coords + dx).s0;
Gx -= 2 * p;
p = read_imagef(src, smp, coords - dx - dy).s0;
Gx += p;
Gy -= p;
p = read_imagef(src, smp, coords - dy).s0;
Gy -= 2 * p;
p = read_imagef(src, smp, coords + dx - dy).s0;
Gx -= p;
Gy -= p;
G = sqrt(Gx * Gx + Gy * Gy);
theta = atan(Gx / Gy);
write_imagef(dst, coords, G);
}
__kernel void hgauss(read_only image2d_t src, write_only image2d_t dst,
global read_only float* weights, global float* offsets, const int nbr_weights)
{
int2 coords = (int2) (get_global_id(0), get_global_id(1));
float2 src_coords = (float2) (get_global_id(0), get_global_id(1));
float4 pix = (float4)(0,0,0,0);
int i;
for(i = 0; i < nbr_weights; i++) {
pix += read_imagef(src, smp, src_coords + (float2) (offsets[i], 0.0f)) * weights[i];
}
write_imagef(dst, coords, clamp(pix, 0.0f, 1.0f));
}
__kernel void vgauss(read_only image2d_t src, write_only image2d_t dst,
global read_only float* weights, global float* offsets, const int nbr_weights)
{
int2 coords = (int2) (get_global_id(0), get_global_id(1));
float2 src_coords = (float2) (get_global_id(0), get_global_id(1));
float4 pix = (float4)(0,0,0,0);
int i;
for(i = 0; i < nbr_weights; i++) {
pix += read_imagef(src, smp, src_coords + (float2) (0.0f, offsets[i])) * weights[i];
}
write_imagef(dst, coords, clamp(pix, 0.0f, 1.0f));
}
__kernel void grey(read_only image2d_t src, write_only image2d_t dst)
{
int2 coords = (int2) (get_global_id(0), get_global_id(1));
float4 color = read_imagef(src, smp, coords);
float luminance = 0.3f * color.x + 0.59 * color.y + 0.11 * color.z;
color = (float4)(luminance, luminance, luminance, 1.0f);
write_imagef(dst, coords, color);
}
__kernel void brightness(read_only image2d_t src, write_only image2d_t dst)
{
float max = 0;
int2 coords = (int2) (get_global_id(0), get_global_id(1));
float4 color = read_imagef(src, smp, coords);
max = color.x;
if(color.y > max) { max = color.y; }
if(color.z > max) { max = color.z; }
write_imagef(dst, coords, max);
}
__kernel void lightness(read_only image2d_t src, write_only image2d_t dst)
{
float l = 0;
int2 coords = (int2) (get_global_id(0), get_global_id(1));
float4 color = read_imagef(src, smp, coords);
l = (color.x + color.y + color.z) / 3.0f;
write_imagef(dst, coords, l);
}
__kernel void hist()
{
}
-130
View File
@@ -1,130 +0,0 @@
/*
~ copyright (c) 2011 dviid
~ contact: dviid@labs.ciid.dk
+ redistribution and use in source and binary forms, with or without
+ modification, are permitted provided that the following conditions
+ are met:
+ > redistributions of source code must retain the above copyright
+ notice, this list of conditions and the following disclaimer.
+ > redistributions in binary form must reproduce the above copyright
+ notice, this list of conditions and the following disclaimer in
+ the documentation and/or other materials provided with the
+ distribution.
+ THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
+ "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
+ LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS
+ FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE
+ COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT,
+ INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING,
+ BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS
+ OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED
+ AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY,
+ OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT
+ OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
+ SUCH DAMAGE.
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
*/
#define WORK_G_SIZE 64
#define HALF_WORK_G_SIZE (WORK_G_SIZE / 2)
const sampler_t smp = CLK_NORMALIZED_COORDS_FALSE | CLK_ADDRESS_CLAMP_TO_EDGE | CLK_FILTER_NEAREST;
__kernel void scan(read_only image2d_t src, write_only image2d_t dst, int rows, int cols)
{
__local float data0[WORK_G_SIZE + HALF_WORK_G_SIZE];
__local float data1[WORK_G_SIZE + HALF_WORK_G_SIZE];
int2 coords = (int2) (get_global_id(0), get_global_id(1));
int X = coords.x;
int Y = coords.x;
if(coords.x < HALF_WORK_G_SIZE) {
data0[coords.x] = 0.0f;
data1[coords.x] = 0.0f;
}
X += HALF_WORK_G_SIZE;
float max_val = 0.0f;
int it = cols / WORK_G_SIZE;
if(cols % WORK_G_SIZE != 0) {
it++;
}
for(int i = 0; i < it; i++) {
int col_offset = i * WORK_G_SIZE + coords.x;
data0[X] = read_imagef(src, smp, (int2)(col_offset, Y)).x;
barrier(CLK_LOCAL_MEM_FENCE);
// 1
data1[X] = data0[X] + data0[X-1];
barrier(CLK_LOCAL_MEM_FENCE);
// 2
data0[X] = data1[X] + data1[X-2];
barrier(CLK_LOCAL_MEM_FENCE);
// 4
data1[X] = data0[X] + data0[X-4];
barrier(CLK_LOCAL_MEM_FENCE);
// 8
data0[X] = data1[X] + data1[X-8];
barrier(CLK_LOCAL_MEM_FENCE);
// 16
data1[X] = data0[X] + data0[X-16];
barrier(CLK_LOCAL_MEM_FENCE);
// 32
data0[X] = data1[X] + data1[X-32];
barrier(CLK_LOCAL_MEM_FENCE);
if(col_offset < cols) {
write_imagef(dst, (int2)(col_offset, Y), (float4)(data0[X] + max_val, 0.0f, 0.0f, 0.0f));
}
max_val += data0[WORK_G_SIZE + HALF_WORK_G_SIZE - 1];
}
}
__kernel void transpose(read_only image2d_t src, write_only image2d_t dst, int rows, int cols)
{
__local float buff[256];
int2 coords = (int2) (get_global_id(0), get_global_id(1));
int inX = coords.x;
int inY = coords.y;
int lX = coords.x;
int lY = coords.y;
int ginX = coords.x * 16 + lX;
int ginY = coords.y * 16 + lY;
buff[lY * 16 + lX] = read_imagef(src, smp, (int2)(ginX, ginY)).x;
barrier(CLK_LOCAL_MEM_FENCE);
int outRows = rows;
int outCols = cols;
int outX = inX;
int outY = inY;
int goutX = coords.x * 16 + lX;
int goutY = coords.y * 16 + lY;
if(goutX >= 0 && goutX < outCols && goutY >=0 && goutY < outRows) {
write_imagef(dst, (int2)(goutX, goutY), (float4)(buff[lX * 16 + lY], 0.0f, 0.0f, 0.0f));
}
}
-18
View File
@@ -1,18 +0,0 @@
#version 120
uniform int algo;
uniform sampler2DRect tex0;
void main() {
if(algo == 4) {
vec4 color = texture2DRect(tex0, gl_TexCoord[0].st);
float luminance = 0.3f * color.x + 0.59 * color.y + 0.11 * color.z;
//gl_FragColor = vec4(luminance, luminance, luminance, 1.0f);
gl_FragColor = vec4(1.0f, 1.0f, 1.0f, 0.5f);
return;
}
gl_FragColor = texture2DRect(tex0, gl_TexCoord[0].st);
}
-127
View File
@@ -1,127 +0,0 @@
#version 120
#extension GL_EXT_geometry_shader4 : enable
#define ALGO_1 1
#define ALGO_2 2
#define ALGO_3 3
#define ALGO_4 4
uniform int algo;
uniform float scale;
uniform sampler2DRect tex0;
float max_color(vec3 rgb)
{
float max = rgb.r;
if(rgb.g > max) { max = rgb.g; }
if(rgb.b > max) { max = rgb.b; }
return max;
}
float min_color(vec3 rgb)
{
float min = rgb.r;
if(rgb.g < min) { min = rgb.g; }
if(rgb.b < min) { min = rgb.b; }
return min;
}
void hue(in vec4 color, out float h)
{
float max = max_color(color.rgb);
float min = min_color(color.rgb);
if(max == min) { h = 0.f; }
float hueSixth;
if(color.r == max) {
hueSixth = (color.g - color.b) / (max - min);
if(hueSixth < 0.f)
hueSixth += 6.f;
} else if (color.g == max) {
hueSixth = 2.f + (color.b - color.r) / (max - min);
} else {
hueSixth = 4.f + (color.r - color.g) / (max - min);
}
h = 255.f * hueSixth / 6.f;
}
void saturation(in vec4 color, out float s)
{
float max = max_color(color.rgb);
float min = min_color(color.rgb);
if(max == min) { s = 0.f; }
s = 255.f * (max - min) / max;
}
void brightness(in vec4 color, out float b)
{
b = max_color(color.rgb);
}
void toHSB(in vec3 rgb, out vec3 hsb)
{
float max = max_color(rgb);
float min = min_color(rgb);
if(max == min) {
hsb.x = 0.f;
hsb.y = 0.f;
hsb.z = 255.f * max;
return;
}
float hueSixth;
if(rgb.r == max) {
hueSixth = (rgb.g - rgb.b) / (max - min);
if(hueSixth < 0.f)
hueSixth += 6.f;
} else if (rgb.g == max) {
hueSixth = 2.f + (rgb.b - rgb.r) / (max - min);
} else {
hueSixth = 4.f + (rgb.r - rgb.g) / (max - min);
}
hsb.x = 255.f * hueSixth / 6.f;
hsb.y = 255.f * (max - min) / max;
hsb.z = max;
}
void main()
{
if(algo == ALGO_4 && mod(gl_PositionIn[0].y, 2.f) != 0) return;
for (int i = 0; i < gl_VerticesIn; i++)
{
gl_Position = gl_PositionIn[i];
vec4 color0 = texture2DRect(tex0, gl_TexCoordIn[i][0].st);
float depth = 0.f;
if(algo == ALGO_1) {
brightness(color0, depth);
}
else if(algo == ALGO_2) {
hue(color0, depth);
}
else if(algo == ALGO_3) {
saturation(color0, depth);
}
else if(algo == ALGO_4) {
brightness(color0, depth);
}
else {
brightness(color0, depth);
}
gl_Position = gl_ModelViewProjectionMatrix * vec4(gl_Position.x, gl_Position.y, depth * scale, 1.0);
gl_TexCoord[0] = gl_TexCoordIn[i][0];
EmitVertex();
}
}
-11
View File
@@ -1,11 +0,0 @@
#version 120
void main()
{
gl_FrontColor = gl_Color;
gl_TexCoord[0] = gl_MultiTexCoord0;
gl_Position = gl_Vertex;
}
+129 -89
View File
@@ -15,16 +15,11 @@
#include "ofxXmlSettings.h" #include "ofxXmlSettings.h"
#include "ofxArcBall.h"
#include <stdio.h>
#include <stdlib.h>
#define CAMERA_ID 0 #define CAMERA_ID 0
#define CAMERA_ACQU_WIDTH 640 #define CAMERA_ACQU_WIDTH 640
#define CAMERA_ACQU_HEIGHT 480 #define CAMERA_ACQU_HEIGHT 480
#define LOCATION "MIDDLESBOROUGH" #define LOCATION "MANCHESTER"
#define ISTATE_UNDEF 0xEEEE #define ISTATE_UNDEF 0xEEEE
#define ISTATE_START 0xAAAA #define ISTATE_START 0xAAAA
@@ -32,22 +27,6 @@
#define ISTATE_TRANSITION 0xCCCC #define ISTATE_TRANSITION 0xCCCC
#define ISTATE_END 0xDDDD #define ISTATE_END 0xDDDD
static const int subdiv_pixels = 4;
static const int VID_W = 640, VID_H = 480;
static const int VERTICES_X = VID_W / subdiv_pixels, VERTICES_Y = VID_W / subdiv_pixels;
static const int TRI_W = 1000;
int draw_style = FACE;
#define ALGO_1 1
#define ALGO_2 2
#define ALGO_3 3
#define ALGO_4 4
int algo = ALGO_2;
float scale = 1.f;
int _state = ISTATE_UNDEF; int _state = ISTATE_UNDEF;
@@ -61,64 +40,12 @@ string RefractiveIndex::_location;
ofxXmlSettings RefractiveIndex::XML; ofxXmlSettings RefractiveIndex::XML;
ofShader RefractiveIndex::_shader;
ofVboMesh RefractiveIndex::_mesh_vbo;
ofxArcBall RefractiveIndex::cam;
string msg;
void RefractiveIndex::setup_shader_vbo()
{
int vertices_per_frame = XML.getValue("config:algorithms:vertices_per_frame", TRI_W);
int pixel_per_vertex = XML.getValue("config:algorithms:pixel_per_vertex", subdiv_pixels);
int vertices_X = _vid_w / pixel_per_vertex, vertices_Y = _vid_h / pixel_per_vertex;
// VBO
for(int i = 0; i < vertices_X; i++){
for(int j = 0; j < vertices_Y; j++) {
_verts.push_back(ofVec3f((i / (float)vertices_X) * vertices_per_frame, (j / (float) vertices_Y) * vertices_per_frame, 0.0f));
_tex.push_back(ofVec2f(i / (float)vertices_X * _vid_w, j / (float) vertices_Y * _vid_h));
if( ( i + 1 < vertices_X ) && ( j + 1 < vertices_Y ) ) {
//triangle #1
_ind.push_back( (i+0) * vertices_Y + (j+0) );
_ind.push_back( (i+1) * vertices_Y + (j+0) );
_ind.push_back( (i+1) * vertices_Y + (j+1) );
//triangle #2
_ind.push_back( (i+1) * vertices_Y + (j+1) );
_ind.push_back( (i+0) * vertices_Y + (j+1) );
_ind.push_back( (i+0) * vertices_Y + (j+0) );
}
}
}
//ofEnableNormalizedTexCoords();
_mesh_vbo.addVertices(_verts);
_mesh_vbo.addTexCoords(_tex);
_mesh_vbo.addIndices(_ind);
_mesh_vbo.setMode(OF_PRIMITIVE_TRIANGLES);
// geometry shader
_shader.setGeometryInputType(GL_TRIANGLES);
_shader.setGeometryOutputType(GL_TRIANGLES);
_shader.setGeometryOutputCount(3);
_shader.load("dviid/rfi.vert.glsl", "dviid/rfi.frag.glsl", "dviid/rfi.geom.glsl");
printf("Maximum number of output vertices support is: %i\n", _shader.getGeometryMaxOutputCount());
}
void RefractiveIndex::setup() void RefractiveIndex::setup()
{ {
ofSetLogLevel(OF_LOG_VERBOSE); camDist=1000;
ofHideCursor();
ofBackground(0, 0, 0);
ofSetBackgroundAuto(false);
bool save_config = false; bool save_config = false;
cout << "Loading configuration..." << endl; cout << "Loading configuration..." << endl;
@@ -174,38 +101,45 @@ void RefractiveIndex::setup()
_analysisAdapator = NULL; _analysisAdapator = NULL;
_pixels.allocate(_vid_w, _vid_h, OF_IMAGE_COLOR_ALPHA); //getting a warning from the OFlog that the pixels aren't allocated
//void ofPixels::allocate(int w, int h, ofImageType type)
_pixels.allocate(_vid_w, _vid_h, OF_IMAGE_COLOR);
setup_shader_vbo();
//TODO: whichever one of these is first - it always runs twice ? //TODO: whichever one of these is first - it always runs twice ?
_analysisVector.push_back(new ShadowScapesAnalysis(V)); //1 _analysisVector.push_back(new ShadowScapesAnalysis(V)); //1
_analysisVector.push_back(new ShadowScapesAnalysis(H)); //2 _analysisVector.push_back(new ShadowScapesAnalysis(H)); //2
_analysisVector.push_back(new ShadowScapesAnalysis(D)); //3 _analysisVector.push_back(new ShadowScapesAnalysis(D)); //3
_analysisVector.push_back(new RelaxRateAnalysis()); //4 _analysisVector.push_back(new RelaxRateAnalysis()); //4
_analysisVector.push_back(new IResponseAnalysis()); //5 _analysisVector.push_back(new IResponseAnalysis()); //5
_analysisVector.push_back(new ShapeFromShadingAnalysis()); //6 _analysisVector.push_back(new ShapeFromShadingAnalysis()); //6
_analysisVector.push_back(new StrobeAnalysis()); //7 _analysisVector.push_back(new StrobeAnalysis()); //7
_analysisVector.push_back(new CamNoiseAnalysis()); //8 _analysisVector.push_back(new CamNoiseAnalysis()); //8
_analysisVector.push_back(new ColorSingleAnalysis()); //9 _analysisVector.push_back(new ColorSingleAnalysis()); //9
_analysisVector.push_back(new ColorMultiAnalysis()); //10
_analysisVector.push_back(new DiffNoiseAnalysis()); //11 _analysisVector.push_back(new ColorMultiAnalysis()); //0
_analysisVector.push_back(new DiffNoiseAnalysis()); //Q
//_currentAnalysisIndx = 0;
//_currentAnalysis = _analysisVector.at(_currentAnalysisIndx++);
//_state = ISTATE_START;
_currentAnalysis = NULL; _currentAnalysis = NULL;
_state = ISTATE_UNDEF; _state = ISTATE_UNDEF;
// disbale <ESC> ?
//ofSetEscapeQuitsApp(false);
} }
void RefractiveIndex::analysis_cb(string & analysis) void RefractiveIndex::analysis_cb(string & analysis)
{ {
assert(analysis == _currentAnalysis->_name); assert(analysis == _currentAnalysis->_name);
_state = ISTATE_STOP; _state = ISTATE_STOP;
} }
@@ -215,6 +149,17 @@ void RefractiveIndex::start_analysis()
_analysisAdapator = new AnalysisAdaptor(_currentAnalysis); _analysisAdapator = new AnalysisAdaptor(_currentAnalysis);
_currentAnalysis->setup(_vid_w, _vid_h); _currentAnalysis->setup(_vid_w, _vid_h);
_analysisAdapator->start(); _analysisAdapator->start();
//allocate fbo for HD
fbo.allocate(1920,1080);
// fbo.allocate( _currentAnalysis->_mesh_size_multiplier *_vid_w,_currentAnalysis->_mesh_size_multiplier * _vid_h);
//camera.setPosition((fbo.getWidth()/2), fbo.getHeight()/2,_currentAnalysis->_mesh_size_multiplier *500);
camera.setPosition(0, (fbo.getHeight()/2)+150, _currentAnalysis->_mesh_size_multiplier*500);
camera.setFov(65.0);
camera.setOrientation(ofVec3f(-2,0,0));
_meshRotation=0;
} }
void RefractiveIndex::stop_analysis() void RefractiveIndex::stop_analysis()
@@ -240,6 +185,7 @@ void RefractiveIndex::state_analysis()
_currentAnalysisIndx = 0; _currentAnalysisIndx = 0;
_currentAnalysis = _analysisVector.at(_currentAnalysisIndx++); _currentAnalysis = _analysisVector.at(_currentAnalysisIndx++);
_state = ISTATE_START; _state = ISTATE_START;
//_state = ISTATE_END;
} else { } else {
_currentAnalysis = _analysisVector.at(_currentAnalysisIndx++); _currentAnalysis = _analysisVector.at(_currentAnalysisIndx++);
_state = ISTATE_START; _state = ISTATE_START;
@@ -271,11 +217,58 @@ void RefractiveIndex::update()
void RefractiveIndex::draw() void RefractiveIndex::draw()
{ {
// refractive mauve - this doesn't work... looks weird in various places.
//ofBackground(113, 110, 136);
// black // black
ofBackground(0, 0, 0); ofBackground(0, 0, 0);
if(_currentAnalysis) if(_currentAnalysis){
_currentAnalysis->draw(); _currentAnalysis->draw();
if(_currentAnalysis->meshIsComplete){
fbo.begin();
ofClear(0,0,0);
glShadeModel(GL_SMOOTH);
camera.begin();
//this is a hack, I don't know how to colour the fbo with black pixels so I'm drawing a massive black rectangle in the background
/*
ofPushMatrix();
ofTranslate(0, 0,-500);
ofSetColor(0, 0, 0);
ofRect(-fbo.getWidth(), -fbo.getHeight(), fbo.getWidth()*3, fbo.getHeight()*3);
ofPopMatrix();
ofSetColor(255);
*/
//float xDiff= (fbo.getWidth()- 1.55*(_currentAnalysis->_mesh_size_multiplier * _vid_w))/2;
float xDiff= (fbo.getWidth()- 1.33333*(_currentAnalysis->_mesh_size_multiplier * _vid_w))/2;
float yDiff= (fbo.getHeight()-(_currentAnalysis->_mesh_size_multiplier * _vid_h))/2;
ofTranslate(xDiff,yDiff,-_currentAnalysis->zPlaneAverage );
//ofScale(1.33333,1.0,1.0);
//_currentAnalysis->aMesh.drawVertices(); // TODO: tom - why do you have the vertices drawing here?
_currentAnalysis->aMesh.drawFaces();
_currentAnalysis->aMesh.draw();
camera.end();
fbo.end();
ofPixels pixels;
fbo.readToPixels(pixels);
ofSaveImage(pixels,_currentAnalysis->meshFileName, OF_IMAGE_QUALITY_BEST);
//saving jpgs doesn't work - pngs only!
// PNG is fine - better for Final Cut anyway!
ofDisableBlendMode() ;
}
}
} }
void RefractiveIndex::setup_camera() void RefractiveIndex::setup_camera()
@@ -309,10 +302,15 @@ void RefractiveIndex::stop_camera()
void RefractiveIndex::keyPressed (int key) void RefractiveIndex::keyPressed (int key)
{ {
if( key =='f') if( key =='f')
ofToggleFullscreen(); ofToggleFullscreen();
/* TODO: complete the below... would be good to trigger the Analysis from keypresses if needed... */
// currently this doesn't work... the save_cb's in the individual
// tried to add a stop_analysis(); call but it blocks the whole programme
// i.e.: ask david how to shut off the prior Analysis if it's not finished running from here?
if(key == 'x') if(key == 'x')
{ {
if(_currentAnalysis) if(_currentAnalysis)
@@ -420,6 +418,48 @@ void RefractiveIndex::keyPressed (int key)
_state = ISTATE_TRANSITION; _state = ISTATE_TRANSITION;
} }
/*
TO DO: add a file dialog so we can save images to another hard drive...
e.g.: http://dev.openframeworks.cc/pipermail/of-dev-openframeworks.cc/2011-April/003125.html
>> case 's':
>> doSave ^= true;
>> doLoad = false;
>> if(doSave) {
>> ofFileDialogResult r = ofSystemLoadDialog("Select path to save to", true);
>> if(r.bSuccess) {
>> saveCounter = 0;
>> savePath = r.getPath();
>> ofDirectory::createDirectory(savePath + "/color/");
>> ofDirectory::createDirectory(savePath + "/depth/");
>> printf("SAVE %s %s\n", r.getPath().c_str(), r.getName().c_str());
>> } else {
>> doSave = false;
>> }
>>
>> }
>> break;
>>
>> case 'l':
>> doLoad ^= true;
>> doSave = false;
>> if(doLoad) {
>> ofFileDialogResult r = ofSystemLoadDialog("Select path to load from", true);
>> if(r.bSuccess) {
>> loadCounter = 0;
>> loadPath = r.getPath();
>> ofDirectory dir;
>> loadMaxFiles = MAX(dir.listDir(loadPath + "/color"), dir.listDir(loadPath + "/depth"));
>> printf("LOAD %i %s %s\n", loadMaxFiles, r.getPath().c_str(), r.getName().c_str());
>> } else {
>> doLoad = false;
>> }
>>
>> }
>> break;
*/
} }
void RefractiveIndex::exit() void RefractiveIndex::exit()
+7 -19
View File
@@ -10,16 +10,12 @@
#include "ofxOpenCv.h" #include "ofxOpenCv.h"
#include "ofxXmlSettings.h" #include "ofxXmlSettings.h"
#include "ofxOpenCv.h"
#include "ofxArcBall.h"
#define MODE_DRAWING 0xEEFF #define MODE_DRAWING 0xEEFF
#define MODE_ANALYSING 0xFFEE #define MODE_ANALYSING 0xFFEE
#define VERTS 1
#define WIRE 2
#define FACE 3
class RefractiveIndex : public ofBaseApp class RefractiveIndex : public ofBaseApp
{ {
public: public:
@@ -38,8 +34,6 @@ public:
void stop_analysis(); void stop_analysis();
void state_analysis(); void state_analysis();
void setup_shader_vbo();
// ofx // ofx
void keyPressed (int key); void keyPressed (int key);
void keyReleased(int key){;} void keyReleased(int key){;}
@@ -62,6 +56,9 @@ protected:
AnalysisAdaptor* _analysisAdapator; AnalysisAdaptor* _analysisAdapator;
vector<AbstractAnalysis*> _analysisVector; vector<AbstractAnalysis*> _analysisVector;
float _meshRotation;
float camDist;
ofEasyCam cam;
public: public:
// acquisition // acquisition
static ofPixels _pixels; static ofPixels _pixels;
@@ -76,17 +73,8 @@ public:
// this should be in xml // this should be in xml
static string _location; static string _location;
static ofxXmlSettings XML; // made this static so we can access RUN_NUM in the analyses static ofxXmlSettings XML; // made this static so we can access RUN_NUM in the analyses
ofCamera camera;
ofPixels keepOnScreen;
static ofVboMesh _mesh_vbo; ofFbo fbo;
vector<ofVec3f> _verts;
vector<ofVec2f> _tex;
vector<unsigned int> _ind;
static ofxArcBall cam;
static ofShader _shader;
}; };
+4 -4
View File
@@ -1,8 +1,8 @@
#include "ofAppGlutWindow.h" #include "ofAppGlutWindow.h"
#include "RefractiveIndex.h" #include "RefractiveIndex.h"
#define SCREEN_WIDTH 800 #define SCREEN_WIDTH 1280
#define SCREEN_HEIGHT 600 #define SCREEN_HEIGHT 800
int main() { int main() {
@@ -10,8 +10,8 @@ int main() {
bool fullscreen; bool fullscreen;
fullscreen = true; //fullscreen = true;
//fullscreen = false; fullscreen = false;
cout << "> display configuration" << endl; cout << "> display configuration" << endl;
cout << "* fullscreen: " << (fullscreen ? "yes" : "no") << endl; cout << "* fullscreen: " << (fullscreen ? "yes" : "no") << endl;
+11 -21
View File
@@ -7,8 +7,10 @@
void AbstractAnalysis::setup(int camWidth, int camHeight) { void AbstractAnalysis::setup(int camWidth, int camHeight) {
_cam_w = camWidth; _cam_h = camHeight; meshIsComplete=false;
imageForContourAvailable=false;
_cam_w = camWidth; _cam_h = camHeight;
if(RefractiveIndex::_mode == MODE_DRAWING) { if(RefractiveIndex::_mode == MODE_DRAWING) {
ofFileDialogResult r = ofSystemLoadDialog("choooose da folda", true); ofFileDialogResult r = ofSystemLoadDialog("choooose da folda", true);
if(!r.bSuccess) { if(!r.bSuccess) {
@@ -20,16 +22,6 @@ void AbstractAnalysis::setup(int camWidth, int camHeight) {
_whole_file_path_synthesis = r.filePath + "/darwings"; _whole_file_path_synthesis = r.filePath + "/darwings";
} }
// viewport
tx = RefractiveIndex::XML.getValue("config:viewport:tx", 200.0);
ty = RefractiveIndex::XML.getValue("config:viewport:ty", 50.0);
tz = RefractiveIndex::XML.getValue("config:viewport:tz", -500.0);
rx = RefractiveIndex::XML.getValue("config:viewport:rx", 0.0);
ry = RefractiveIndex::XML.getValue("config:viewport:ry", 0.0);
rz = RefractiveIndex::XML.getValue("config:viewport:rz", 0.0);
} }
// this is the main threaded loop for a given analysis // this is the main threaded loop for a given analysis
@@ -54,13 +46,14 @@ void AbstractAnalysis::do_synthesize() {
if(_state == STATE_STOP) goto exit; if(_state == STATE_STOP) goto exit;
_state = STATE_DISPLAY_RESULTS; _state = STATE_DISPLAY_RESULTS;
displayresults(); displayresults();
cleanup();
} }
break;
} }
case MODE_DRAWING: case MODE_DRAWING:
{ {
ofxFileHelper fileHelperDrawing; ofxFileHelper fileHelperDrawing;
if(!fileHelperDrawing.doesDirectoryExist(_whole_file_path_synthesis)){ if(!fileHelperDrawing.doesDirectoryExist(_whole_file_path_synthesis)){
fileHelperDrawing.makeDirectory(_whole_file_path_synthesis); fileHelperDrawing.makeDirectory(_whole_file_path_synthesis);
@@ -72,14 +65,12 @@ void AbstractAnalysis::do_synthesize() {
if(_state == STATE_STOP) goto exit; if(_state == STATE_STOP) goto exit;
_state = STATE_DISPLAY_RESULTS; _state = STATE_DISPLAY_RESULTS;
displayresults(); displayresults();
cleanup();
break;
} }
} }
exit: exit:
cleanup(); cleanup();
ofxFileHelper::deleteFolder(_whole_file_path_analysis);
ofNotifyEvent(_synthesize_cb, _name); ofNotifyEvent(_synthesize_cb, _name);
} }
@@ -131,7 +122,6 @@ void AbstractAnalysis::create_dir_allocate_images()
} }
_whole_file_path_synthesis = SYNTHESIS_PATH + RefractiveIndex::_location + "/" + _name + "/"+replaceTime; _whole_file_path_synthesis = SYNTHESIS_PATH + RefractiveIndex::_location + "/" + _name + "/"+replaceTime;
if(!fileHelperSynthesis.doesDirectoryExist(_whole_file_path_synthesis)){ if(!fileHelperSynthesis.doesDirectoryExist(_whole_file_path_synthesis)){
@@ -149,7 +139,6 @@ void AbstractAnalysis::create_dir_allocate_images()
fileHelperSynthesis.makeDirectory(SYNTHESIS_PATH+RefractiveIndex::_location+"/"+_name+"/"+replaceTime); fileHelperSynthesis.makeDirectory(SYNTHESIS_PATH+RefractiveIndex::_location+"/"+_name+"/"+replaceTime);
} }
//////////////////////////////END DIRECTORY CREATION ////////////////////////////////////////////////// //////////////////////////////END DIRECTORY CREATION //////////////////////////////////////////////////
@@ -168,6 +157,7 @@ void AbstractAnalysis::create_dir_allocate_images()
myGrayImage1.setUseTexture(false); myGrayImage1.setUseTexture(false);
myGrayImage1.allocate(RefractiveIndex::_vid_w, RefractiveIndex::_vid_h, OF_IMAGE_GRAYSCALE); myGrayImage1.allocate(RefractiveIndex::_vid_w, RefractiveIndex::_vid_h, OF_IMAGE_GRAYSCALE);
//////////////////////////////END ALLOCATE IMAGES ////////////////////////////////////////////////// //////////////////////////////END ALLOCATE IMAGES //////////////////////////////////////////////////
} }
@@ -192,6 +182,9 @@ void AbstractAnalysis::read_dir_create_list(string folder_path)
for(int i = 0; i < list.size(); i++) { for(int i = 0; i < list.size(); i++) {
string filepath = folder_path + "/" + list[i]; string filepath = folder_path + "/" + list[i];
_saved_filenames_analysis.push_back(filepath); _saved_filenames_analysis.push_back(filepath);
cout << list[i] << endl;
} }
} }
} }
@@ -204,7 +197,6 @@ void AbstractAnalysis::saveImageAnalysis(string filename)
if (RefractiveIndex::_vidGrabber.isFrameNew()) if (RefractiveIndex::_vidGrabber.isFrameNew())
{ {
RefractiveIndex::_pixels = RefractiveIndex::_vidGrabber.getPixelsRef(); //get ofPixels from the camera RefractiveIndex::_pixels = RefractiveIndex::_vidGrabber.getPixelsRef(); //get ofPixels from the camera
} else { } else {
return; return;
} }
@@ -236,7 +228,6 @@ void AbstractAnalysis::saveImageSynthesis(string filename, ofxCvImage* newPixels
#ifdef TARGET_OSX #ifdef TARGET_OSX
ofSaveImage(newPixels->getPixelsRef(), _whole_file_path_synthesis+"/"+filename, OF_IMAGE_QUALITY_BEST); ofSaveImage(newPixels->getPixelsRef(), _whole_file_path_synthesis+"/"+filename, OF_IMAGE_QUALITY_BEST);
#elif defined(TARGET_WIN32) #elif defined(TARGET_WIN32)
@@ -264,4 +255,3 @@ void AbstractAnalysis::saveImageSynthesis(string filename, ofxCvImage* newPixels
} }
+17 -4
View File
@@ -61,6 +61,23 @@ public:
// event // event
ofEvent<string> _synthesize_cb; ofEvent<string> _synthesize_cb;
bool meshIsComplete;
bool imageForContourAvailable;
ofMesh aMesh;
ofLight light;
ofLight lightStatic;
string meshFileName;
//difference between our image size and the size of the fbo
float widthScaleFactor;
float heightScaleFactor;
ofImage contourImage;
ofPixels meshPix;
ofPixels publicColorImage;
float zPlaneAverage;
//added Tom 1/5/12 defines the stretch we make to the mesh to make it fit HD proportions
float _mesh_size_multiplier;
protected: protected:
int _cam_w, _cam_h; int _cam_w, _cam_h;
@@ -81,9 +98,5 @@ protected:
int NUM_RUN; int NUM_RUN;
int NUM_SAVE_PER_RUN; int NUM_SAVE_PER_RUN;
//viewport
float tx, ty, tz, rx, ry, rz;
friend class AnalysisAdaptor; friend class AnalysisAdaptor;
}; };
+775 -66
View File
@@ -13,13 +13,6 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const int line_width_default = 0.5f;
const float point_size_default = 0.5f;
void CamNoiseAnalysis::setup(int camWidth, int camHeight) void CamNoiseAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
@@ -28,6 +21,62 @@ void CamNoiseAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN CamNoiseAnalysis " << NUM_RUN << endl; cout << "NUM_RUN CamNoiseAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier = 8;
vertexSubsampling = 1;
chooseColour = 6;
multiplier = 4.0;
ofSetLineWidth(5.0f);
glPointSize(5.0f);
glEnable(GL_DEPTH_TEST);
//blendMode = OF_BLENDMODE_ADD;
//blendMode = OF_BLENDMODE_MULTIPLY;
//blendMode = OF_BLENDMODE_SUBTRACT;
//blendMode = OF_BLENDMODE_ALPHA;
blendMode = OF_BLENDMODE_SCREEN;
//meshMode = OF_PRIMITIVE_TRIANGLES;
//meshMode = OF_PRIMITIVE_TRIANGLE_STRIP;
//meshMode = OF_PRIMITIVE_TRIANGLE_FAN;
// meshMode = OF_PRIMITIVE_LINES;
//meshMode = OF_PRIMITIVE_LINE_STRIP;
meshMode = OF_PRIMITIVE_POINTS;
///setup light
ofEnableLighting();
GLfloat light_ambient[] = {0.5, 0.5, 0.5, 0.5 };
GLfloat light_diffuse[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_specular[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_position[] = { 1.0, 1.0, 1.0, 0.0 };
glLightfv(GL_LIGHT0, GL_AMBIENT, light_ambient);
glLightfv(GL_LIGHT0, GL_DIFFUSE, light_diffuse);
glLightfv(GL_LIGHT0, GL_SPECULAR, light_specular);
glLightfv(GL_LIGHT0, GL_POSITION, light_position);
glEnable(GL_LIGHT0);
GLfloat light_ambient1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_diffuse1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_specular1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_position1[] = { -1.0, 1.0, 1.0, 0.0 };
glLightfv(GL_LIGHT1, GL_AMBIENT, light_ambient1);
glLightfv(GL_LIGHT1, GL_DIFFUSE, light_diffuse1);
glLightfv(GL_LIGHT1, GL_SPECULAR, light_specular1);
glLightfv(GL_LIGHT1, GL_POSITION, light_position1);
glEnable(GL_LIGHT1);
glPointSize(9.0f);
glEnable(GL_POINT_SMOOTH);
glCullFace(GL_BACK);
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_camnoise", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_camnoise", ACQUIRE_TIME);
cout << "ACQUIRE_TIME CamNoiseAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME CamNoiseAnalysis " << acq_run_time << endl;
@@ -54,26 +103,49 @@ void CamNoiseAnalysis::setup(int camWidth, int camHeight)
_show_image = false; _show_image = false;
_image_shown = false; _image_shown = false;
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
//cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
//cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
// clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
cvColorImage2.clear();
cvGrayImage2.clear();
cvGrayDiff2.clear();
////--------- cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
algo = RefractiveIndex::XML.getValue("config:algorithms:camnoise:algo", algo_default); cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
scale = RefractiveIndex::XML.getValue("config:algorithms:camnoise:scale", scale_default);
draw_style = RefractiveIndex::XML.getValue("config:algorithms:camnoise:draw_style", draw_style_default);
line_width = RefractiveIndex::XML.getValue("config:algorithms:camnoise:line_width", line_width_default);
point_size = RefractiveIndex::XML.getValue("config:algorithms:camnoise:point_size", point_size_default);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
} }
@@ -107,27 +179,160 @@ void CamNoiseAnalysis::acquire()
void CamNoiseAnalysis::synthesise() void CamNoiseAnalysis::synthesise()
{ {
// we don't need to synthesise //cout << "CamNoiseAnalysis::saving synthesis...\n";
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; _returnAveragePixelValues();
vector<vector<float> > averagePixelBrightnessesForEachLevel = averagePixelValuesForAllLevels;
float lightLevel=0;
float pLightLevel=0;
cout<<_listOfLightLevels.size()<<" "<<averagePixelBrightnessesForEachLevel.size()<<" these should be the same";
for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
vector<string> fileNameParts= ofSplitString(_saved_filenames_analysis[i], "_");
lightLevel = ofToFloat(fileNameParts[fileNameParts.size()-2]);
//cout << "CamNoiseAnalysis::synthesis FOR LOOP...\n";
//find which list of average pixel values is for THIS light level
int _averagePixelVectorIndex;
for (int j=0; j<_listOfLightLevels.size(); j+=3) {
if(lightLevel==_listOfLightLevels[j]){
_averagePixelVectorIndex=j;
}
}
//cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
// cout << "LOADED image1!!!" << endl;
if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
/* cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
cvColorImage1.convertToGrayscalePlanarImage(cvGrayImage1, 1);
cvColorImage2.convertToGrayscalePlanarImage(cvGrayImage2, 1);
//cvGrayDiff1.absDiff(cvGrayImage2, cvGrayImage1);
//cvGrayDiff1.erode();
cvGrayImage1.dilate();
cvGrayImage1.blur(5);
cvGrayImage1.contrastStretch();
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
cvColorImage1.setFromGrayscalePlanarImages(cvGrayImage1, cvGrayImage1, cvGrayImage1);
//cvColorImage2.setFromGrayscalePlanarImages(cvGrayImage2, cvGrayImage2, cvGrayImage2);
//cvPyrMeanShiftFiltering(cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), 1, 1);
//cvPyrMeanShiftFiltering(cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), 1, 1);
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
//cvSmooth( cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvSmooth( cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
image5.setFromPixels(cvColorImage2.getPixelsRef());
*/
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
//DIFFERENCING SUBSEQUENT IMAGES
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-imagePixels2[i]>0){
imagePixels1[i]-=imagePixels2[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//DIFFERENCING THE BACKGROUND
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, averagePixelBrightnessesForEachLevel[_averagePixelVectorIndex], _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_CamNoiseAnalysis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
}
} else {
cout<<"couldn't load image from "<<_saved_filenames_analysis[i]<<endl;
}
}
// _saved_filenames_synthesis has processed all the files in the analysis images folder // _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP) while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3); Thread::sleep(3);
*/
} }
void CamNoiseAnalysis::displayresults() void CamNoiseAnalysis::displayresults()
{ {
for(float i=1;i<_saved_filenames_analysis.size();i++){ for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
@@ -138,15 +343,13 @@ void CamNoiseAnalysis::displayresults()
//cout << "!_image_shown" << endl; //cout << "!_image_shown" << endl;
} }
_show_image = false; if(!image3.loadImage(_saved_filenames_synthesis[i])){
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
@@ -308,6 +511,8 @@ void CamNoiseAnalysis::draw()
case STATE_DISPLAY_RESULTS: case STATE_DISPLAY_RESULTS:
{ {
//cout << "STATE_DISPLAY_RESULTS...\n" << endl;
if (_frame_cnt > 2) if (_frame_cnt > 2)
{ {
_image_shown = true; _image_shown = true;
@@ -316,47 +521,21 @@ void CamNoiseAnalysis::draw()
_frame_cnt++; _frame_cnt++;
ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
glPointSize(point_size);
glEnable(GL_POINT_SMOOTH);
RefractiveIndex::cam.begin();
ofTranslate(tx, ty, tz);
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image) if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR); {
//cout << "_show_image...\n" << endl;
image2.bind(); ofEnableAlphaBlending();
RefractiveIndex::_shader.begin(); ofSetColor(255, 255, 255);
image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
image2.draw(0,0, ofGetWidth(), ofGetHeight());
RefractiveIndex::_shader.setUniform1i("algo", algo); ofDisableAlphaBlending();
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
_RUN_DONE = true;
image2.unbind();
RefractiveIndex::cam.end();
break; break;
} }
@@ -377,3 +556,533 @@ void CamNoiseAnalysis::save_cb(Timer& timer)
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void CamNoiseAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//to do
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(meshMode);
ofColor meshColour=ofColor(255,255,255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==2){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor = currentSecondImage.getColor(x, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==3){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==4){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
int randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) +1 ]));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==5){
for(int i=0;i<sPixels.size();i++){
int randomJitter2 = 0;
int randomJitter = 0;
ofColor currentSecondImageColor;
ofColor currentSecondImageBW;
currentSecondImageColor = currentSecondImage.getColor(x, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*((y)+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter)+1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==6){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x++;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y++;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> CamNoiseAnalysis::_returnDepthsAtEachPixel(ofImage &image1, vector<float> averageDepths, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
int inc=0;
if(chooseComparison==1){
//for each pixel...
float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
ofColor imageColor2 = imagePixels1.getColor(x+1, y+1);
ofColor imageColor3 = imagePixels1.getColor(x+2, y+2);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
if(i<100){
// cout<<" average: "<<averageDepths[inc]<<" actual: "<<imageColor1.getBrightness()<<" ";
}
// int thisDiff=imageColor1.getBrightness();
int thisDiff=-(imageColor1.getBrightness() - averageDepths[inc] );
//int thisDiff=abs(imageColor1.getLightness());
//int thisDiff=-abs(imageColor1.r);
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
differences.push_back(multiplier * thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
inc++;
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
void CamNoiseAnalysis:: _returnAveragePixelValues(){
//second number in 15_204.00_2.jpg is the light level
float lightLevel=0;
float pLightLevel=0;
float numberOfImagesActuallyLoaded=0;
vector<float> averagePixelValuesForOneLevel;
for (int j=0; j<RefractiveIndex::_vid_w*RefractiveIndex::_vid_h; j++) {
averagePixelValuesForOneLevel.push_back(0.0);
}
for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
//split file name by under score
vector<string> fileNameParts= ofSplitString(_saved_filenames_analysis[i], "_");
lightLevel = ofToFloat(fileNameParts[fileNameParts.size()-2]);
// cout<<" lightLevel "<<lightLevel;
ofPixels image1Pixels=image1.getPixelsRef();
int x=0;
int y=0;
int inc=0;
for (int j=0; j<image1Pixels.size(); j+=3) {
ofColor color=image1Pixels.getColor(x, y);
averagePixelValuesForOneLevel[inc]+= color.getBrightness();
x++;
inc++;
if(x>=image1Pixels.getWidth()){
x=0;
y++;
}
}
// _listOfLightLevels}
numberOfImagesActuallyLoaded++;
//if this is a new light level advance
if (lightLevel!=pLightLevel) {
///check that this light level is not already in our list
_listOfLightLevels.push_back(lightLevel);
for (int j=0; j<averagePixelValuesForOneLevel.size(); j++) {
averagePixelValuesForOneLevel[j]/=numberOfImagesActuallyLoaded;
//cout<<" "<<averagePixelValuesForOneLevel[j]<<" ";
}
averagePixelValuesForAllLevels.push_back(averagePixelValuesForOneLevel);
for (int j=0; j<averagePixelValuesForOneLevel.size(); j++) {
averagePixelValuesForOneLevel[j]=0;
}
pLightLevel=lightLevel;
numberOfImagesActuallyLoaded=0;
}
}
}
for(int j=0;j<_listOfLightLevels.size();j++){
//cout<<_listOfLightLevels[j]<<" lightlevel ";
}
}
+46 -6
View File
@@ -37,13 +37,53 @@ protected:
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
ofxCvColorImage cvColorImage1;
ofxCvColorImage cvColorImage2;
ofxCvColorImage cvColorImage3;
ofxCvColorImage cvColorImage4;
ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvContourFinder cvContourFinder1;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, vector<float> averageDepths, ofImage &backgroundImage);
//returns a vector of floats for each distinct light level
void _returnAveragePixelValues();
//this vector of vectors will be returned
vector<vector<float> > averagePixelValuesForAllLevels;
vector<float> _listOfLightLevels;
int vertexSubsampling;
int chooseColour;
ofPrimitiveMode meshMode;
ofBlendMode blendMode;
float multiplier;
bool _gotFirstImage;
ofImage _background;
int algo;
int scale;
int draw_style;
float line_width;
float point_size;
}; };
+334 -62
View File
@@ -12,11 +12,6 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const float line_width_default = 0.5f;
void ColorMultiAnalysis::setup(int camWidth, int camHeight) void ColorMultiAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
@@ -25,6 +20,14 @@ void ColorMultiAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN ColorMultiAnalysis " << NUM_RUN << endl; cout << "NUM_RUN ColorMultiAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier=8;
vertexSubsampling = 1;
chooseColour=1;
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_colormulti", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_colormulti", ACQUIRE_TIME);
cout << "ACQUIRE_TIME ColorMultiAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME ColorMultiAnalysis " << acq_run_time << endl;
@@ -51,21 +54,50 @@ void ColorMultiAnalysis::setup(int camWidth, int camHeight)
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
//cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
//cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
////--------- // clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
algo = RefractiveIndex::XML.getValue("config:algorithms:colormulti:algo", algo_default); cvColorImage2.clear();
scale = RefractiveIndex::XML.getValue("config:algorithms:colormulti:scale", scale_default); cvGrayImage2.clear();
draw_style = RefractiveIndex::XML.getValue("config:algorithms:colormulti:draw_style", draw_style_default); cvGrayDiff2.clear();
line_width = RefractiveIndex::XML.getValue("config:algorithms:colormulti:line_width", line_width_default);
cvConvertorImage.clear();
cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvConvertorImage.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
} }
@@ -101,25 +133,124 @@ void ColorMultiAnalysis::acquire()
void ColorMultiAnalysis::synthesise() void ColorMultiAnalysis::synthesise()
{ {
// we don't need to synthesise //cout << "ColorMultiAnalysis::saving synthesis...\n";
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
//cout << "ColorMultiAnalysis::synthesis FOR LOOP...\n";
//cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
//cout << "LOADED image1!!!" << endl;
//if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
//cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
//cvColorImage1.blur(1);
//cvColorImage1.erode();
//cvColorImage1.dilate();
//cvColorImage1.dilate();
//cvColorImage1.dilate();
//cvColorImage1.dilate();
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
cvSmooth( cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), CV_GAUSSIAN, 15, 15);
cvXorS( cvColorImage1.getCvImage(), cvScalarAll(2), cvColorImage1.getCvImage(), 0 );
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
// }
}
}
// TOM'S fix of why the last file gets overwritten again and again - but seems to prevent the files being written to the screen.
/*
_RUN_DONE = true;
*/
meshIsComplete=false;
_synth_save_cnt=0;
// _saved_filenames_synthesis has processed all the files in the analysis images folder // _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP) while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3); Thread::sleep(3);
*/
} }
void ColorMultiAnalysis::displayresults() void ColorMultiAnalysis::displayresults()
{ {
for(float i=1;i<_saved_filenames_analysis.size();i++){ for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
@@ -130,15 +261,13 @@ void ColorMultiAnalysis::displayresults()
//cout << "!_image_shown" << endl; //cout << "!_image_shown" << endl;
} }
_show_image = false; if(!image3.loadImage(_saved_filenames_synthesis[i])){
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
@@ -150,6 +279,27 @@ void ColorMultiAnalysis::displayresults()
void ColorMultiAnalysis::draw() void ColorMultiAnalysis::draw()
{ {
ofEnableSmoothing();
ofEnableLighting();
ofEnableSeparateSpecularLight();
light.enable();
light.setPosition(200,200,-150);
lightStatic.enable();
glEnable(GL_DEPTH_TEST);
ofSetLineWidth(2.0f);
//glPointSize(4.0f);
ofEnableBlendMode ( OF_BLENDMODE_ADD );
//ofEnableBlendMode ( OF_BLENDMODE_MULTIPLY );
//ofEnableBlendMode ( OF_BLENDMODE_SUBTRACT );
//ofEnableBlendMode ( OF_BLENDMODE_ALPHA );
//ofEnableBlendMode ( OF_BLENDMODE_SCREEN );
switch (_state) { switch (_state) {
case STATE_ACQUIRING: case STATE_ACQUIRING:
{ {
@@ -280,9 +430,8 @@ void ColorMultiAnalysis::draw()
_anim_cnt++; _anim_cnt++;
} else { } else {
//_state = STATE_DISPLAY_RESULTS; _state = STATE_DISPLAY_RESULTS;
_anim_cnt=0; _anim_cnt=0;
_RUN_DONE = true;
} }
ofPopMatrix(); ofPopMatrix();
ofSetRectMode(OF_RECTMODE_CORNER); ofSetRectMode(OF_RECTMODE_CORNER);
@@ -296,6 +445,7 @@ void ColorMultiAnalysis::draw()
//cout << "STATE_DISPLAY_RESULTS...\n" << endl; //cout << "STATE_DISPLAY_RESULTS...\n" << endl;
if (_frame_cnt > 2) if (_frame_cnt > 2)
{ {
_image_shown = true; _image_shown = true;
@@ -304,46 +454,20 @@ void ColorMultiAnalysis::draw()
_frame_cnt++; _frame_cnt++;
if (_show_image)
{
//cout << "_show_image...\n" << endl;
ofEnableAlphaBlending(); ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
RefractiveIndex::cam.begin(); ofSetColor(255, 255, 255);
image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
image2.draw(0,0, ofGetWidth(), ofGetHeight());
ofTranslate(tx, ty, tz); ofDisableAlphaBlending();
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR);
image2.bind();
RefractiveIndex::_shader.begin();
RefractiveIndex::_shader.setUniform1i("algo", algo);
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
image2.unbind();
RefractiveIndex::cam.end();
_RUN_DONE = true; _RUN_DONE = true;
break; break;
@@ -361,8 +485,156 @@ void ColorMultiAnalysis::draw()
void ColorMultiAnalysis::save_cb(Timer& timer) void ColorMultiAnalysis::save_cb(Timer& timer)
{ {
_save_cnt++; _save_cnt++;
string file_name = ofToString(_save_cnt,2)+"_"+ofToString(c,2)+"_"+ofToString(_run_cnt,2)+".jpg"; string file_name = ofToString(_save_cnt,2)+"_"+ofToString(c,2)+"_"+ofToString(_run_cnt,2)+".jpg";
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void ColorMultiAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(OF_PRIMITIVE_TRIANGLES);
//mesh.setMode(OF_PRIMITIVE_TRIANGLE_STRIP);
//mesh.setMode(OF_PRIMITIVE_TRIANGLE_FAN);
//mesh.setMode(OF_PRIMITIVE_LINES);
//mesh.setMode(OF_PRIMITIVE_LINE_STRIP);
//mesh.setMode(OF_PRIMITIVE_LINE_LOOP);
//mesh.setMode(OF_PRIMITIVE_POINTS);
/*
OF_PRIMITIVE_TRIANGLES,
OF_PRIMITIVE_TRIANGLE_STRIP,
OF_PRIMITIVE_TRIANGLE_FAN,
OF_PRIMITIVE_LINES,
OF_PRIMITIVE_LINE_STRIP,
OF_PRIMITIVE_LINE_LOOP,
OF_PRIMITIVE_POINTS
*/
ofColor meshColour=ofColor(255,255,255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> ColorMultiAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
if(chooseComparison==1){
//for each pixel...
//float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
//float _distanceToCentre=ofDist(imagePixels1.getWidth()/2, imagePixels1.getHeight()/2, x, y);
//float _presumedBrightness=ofMap(sqrt(_maxPossibleDistanceToCentre)-sqrt(_distanceToCentre), 0, sqrt(_maxPossibleDistanceToCentre), 0, 255);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
int thisDiff=-abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getLightness());
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
float multiplier=15.0*((thisDiff)/255.0);
differences.push_back(multiplier* thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
+36 -5
View File
@@ -31,14 +31,45 @@ protected:
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
int algo; ofxCvColorImage cvColorImage1;
int scale; ofxCvColorImage cvColorImage2;
int draw_style; ofxCvColorImage cvColorImage3;
float line_width; ofxCvColorImage cvColorImage4;
ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvContourFinder cvContourFinder1;
//this is the temporary container to allow us to convert and save out greyscale images
ofxCvColorImage cvConvertorImage;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
int vertexSubsampling;
int chooseColour;
bool _gotFirstImage;
ofImage _background;
}; };
+486 -63
View File
@@ -1,9 +1,11 @@
#include "ColorSingleAnalysis.h" #include "ColorSingleAnalysis.h"
#include "ofMain.h" #include "ofMain.h"
#include "Poco/Timer.h" #include "Poco/Timer.h"
#include "Poco/Thread.h" #include "Poco/Thread.h"
#include <string>
#include <iostream>
#include "RefractiveIndex.h" #include "RefractiveIndex.h"
using Poco::Timer; using Poco::Timer;
@@ -13,11 +15,6 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const float line_width_default = 0.5f;
void ColorSingleAnalysis::setup(int camWidth, int camHeight) void ColorSingleAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
@@ -26,10 +23,18 @@ void ColorSingleAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN ColorSingleAnalysis " << NUM_RUN << endl; cout << "NUM_RUN ColorSingleAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier=8;
vertexSubsampling = 1;
chooseColour=1;
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_colorsingle", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_colorsingle", ACQUIRE_TIME);
cout << "ACQUIRE_TIME ColorSingleAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME ColorSingleAnalysis " << acq_run_time << endl;
//int acq_run_time = 25; // 20 seconds of acquiring per run //int acq_run_time = 25; // 20 seconds of acquiring per run
DELTA_T_SAVE = 1*(10*acq_run_time/2); // for 20 seconds, we want this to be around 200 files DELTA_T_SAVE = 1*(10*acq_run_time/2); // for 20 seconds, we want this to be around 200 files
@@ -52,34 +57,62 @@ void ColorSingleAnalysis::setup(int camWidth, int camHeight)
b = 0; b = 0;
fileNameTag = ""; fileNameTag = "";
fileNameColor = "";
_show_image = false; _show_image = false;
_image_shown = false; _image_shown = false;
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
//cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
//cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
////--------- // clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
algo = RefractiveIndex::XML.getValue("config:algorithms:colorsingle:algo", algo_default); cvColorImage2.clear();
scale = RefractiveIndex::XML.getValue("config:algorithms:colorsingle:scale", scale_default); cvGrayImage2.clear();
draw_style = RefractiveIndex::XML.getValue("config:algorithms:colorsingle:draw_style", draw_style_default); cvGrayDiff2.clear();
line_width = RefractiveIndex::XML.getValue("config:algorithms:colorsingle:line_width", line_width_default);
cvConvertorImage.clear();
cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvConvertorImage.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
} }
void ColorSingleAnalysis::acquire() void ColorSingleAnalysis::acquire()
{ {
Timer* save_timer; Timer* save_timer;
TimerCallback<ColorSingleAnalysis> save_callback(*this, &ColorSingleAnalysis::save_cb); TimerCallback<ColorSingleAnalysis> save_callback(*this, &ColorSingleAnalysis::save_cb);
@@ -102,33 +135,156 @@ void ColorSingleAnalysis::acquire()
save_timer->stop(); save_timer->stop();
// }
} }
void ColorSingleAnalysis::synthesise() void ColorSingleAnalysis::synthesise()
{ {
// we don't need to synthesise //cout << "ColorSingleAnalysis::saving synthesis...\n";
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
//cout << "ColorSingleAnalysis::synthesis FOR LOOP...\n";
//cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
//cout << "LOADED image1!!!" << endl;
//if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
cout << "_saved_filenames_analysis[i].find(RED): " << _saved_filenames_analysis[i].find("RED") << endl;
if(_saved_filenames_analysis[i].find("RED")<_saved_filenames_analysis[i].length())
{
fileNameColor = "RED";
cout<<"FOUND RED"<<endl;
} else if (_saved_filenames_analysis[i].find("GREEN")<_saved_filenames_analysis[i].length())
{
fileNameColor = "GREEN";
cout<<"FOUND GREEN"<<endl;
} else if(_saved_filenames_analysis[i].find("BLUE")<_saved_filenames_analysis[i].length())
{
fileNameColor = "BLUE";
cout<<"FOUND BLUE"<<endl;
} else if(_saved_filenames_analysis[i].find("FADING")<_saved_filenames_analysis[i].length())
{
fileNameColor = "FADING";
cout<<"FOUND FADING"<<endl;
}
cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
//cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
cvColorImage1.blur(1);
//cvSmooth( cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), CV_GAUSSIAN, 9, 9 );
cvColorImage1.erode();
cvSmooth( cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), CV_GAUSSIAN, 3, 3 );
//cvColorImage1.erode();
//cvColorImage1.dilate();
//cvColorImage1.dilate();
//cvColorImage1.dilate();
//cvColorImage1.dilate();
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
//cvXorS( cvColorImage1.getCvImage(), cvScalarAll(255), cvColorImage1.getCvImage(), 0 );
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_ColorSingleAnalysis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorSingleAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
// }
}
}
// TOM'S fix of why the last file gets overwritten again and again - but seems to prevent the files being written to the screen.
/*
_RUN_DONE = true;
*/
meshIsComplete=false;
_synth_save_cnt=0;
// _saved_filenames_synthesis has processed all the files in the analysis images folder // _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP) while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3); Thread::sleep(3);
*/
} }
void ColorSingleAnalysis::displayresults() void ColorSingleAnalysis::displayresults()
{ {
for(float i=1;i<_saved_filenames_analysis.size();i++){ for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
@@ -139,15 +295,13 @@ void ColorSingleAnalysis::displayresults()
//cout << "!_image_shown" << endl; //cout << "!_image_shown" << endl;
} }
_show_image = false; if(!image3.loadImage(_saved_filenames_synthesis[i])){
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
@@ -159,12 +313,31 @@ void ColorSingleAnalysis::displayresults()
void ColorSingleAnalysis::draw() void ColorSingleAnalysis::draw()
{ {
ofEnableSmoothing();
ofEnableLighting();
ofEnableSeparateSpecularLight();
light.enable();
light.setPosition(200,200,-150);
lightStatic.enable();
glEnable(GL_DEPTH_TEST);
ofSetLineWidth(1.0f);
glPointSize(1.0f);
ofEnableBlendMode ( OF_BLENDMODE_ADD );
//ofEnableBlendMode ( OF_BLENDMODE_MULTIPLY );
//ofEnableBlendMode ( OF_BLENDMODE_SUBTRACT );
//ofEnableBlendMode ( OF_BLENDMODE_ALPHA );
//ofEnableBlendMode ( OF_BLENDMODE_SCREEN );
switch (_state) { switch (_state) {
case STATE_ACQUIRING: case STATE_ACQUIRING:
{ {
if (_frame_cnt < _frame_cnt_max) if (_frame_cnt < _frame_cnt_max)
{ {
@@ -312,6 +485,7 @@ void ColorSingleAnalysis::draw()
//cout << "STATE_DISPLAY_RESULTS...\n" << endl; //cout << "STATE_DISPLAY_RESULTS...\n" << endl;
if (_frame_cnt > 2) if (_frame_cnt > 2)
{ {
_image_shown = true; _image_shown = true;
@@ -320,46 +494,20 @@ void ColorSingleAnalysis::draw()
_frame_cnt++; _frame_cnt++;
if (_show_image)
{
//cout << "_show_image...\n" << endl;
ofEnableAlphaBlending(); ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
RefractiveIndex::cam.begin(); ofSetColor(255, 255, 255);
image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
image2.draw(0,0, ofGetWidth(), ofGetHeight());
ofTranslate(tx, ty, tz); ofDisableAlphaBlending();
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR);
image2.bind();
RefractiveIndex::_shader.begin();
RefractiveIndex::_shader.setUniform1i("algo", algo);
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
image2.unbind();
RefractiveIndex::cam.end();
_RUN_DONE = true; _RUN_DONE = true;
break; break;
@@ -381,3 +529,278 @@ void ColorSingleAnalysis::save_cb(Timer& timer)
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void ColorSingleAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
//mesh.setMode(OF_PRIMITIVE_TRIANGLES);
//mesh.setMode(OF_PRIMITIVE_TRIANGLE_STRIP);
//mesh.setMode(OF_PRIMITIVE_TRIANGLE_FAN);
//mesh.setMode(OF_PRIMITIVE_LINES);
//mesh.setMode(OF_PRIMITIVE_LINE_STRIP);
//mesh.setMode(OF_PRIMITIVE_LINE_LOOP);
mesh.setMode(OF_PRIMITIVE_POINTS);
/*
OF_PRIMITIVE_TRIANGLES,
OF_PRIMITIVE_TRIANGLE_STRIP,
OF_PRIMITIVE_TRIANGLE_FAN,
OF_PRIMITIVE_LINES,
OF_PRIMITIVE_LINE_STRIP,
OF_PRIMITIVE_LINE_LOOP,
OF_PRIMITIVE_POINTS
*/
ofColor meshColour=ofColor(255,255,255, 255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==2){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor = currentSecondImage.getColor(x, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==3){
ofColor currentSecondImageColor;
for(int i=0;i<sPixels.size();i++){
if(fileNameColor=="RED")
{
currentSecondImageColor.r=255;
currentSecondImageColor.g=0;
currentSecondImageColor.b=0;
currentSecondImageColor.a=255;
} else if(fileNameColor=="GREEN")
{
currentSecondImageColor.r=0;
currentSecondImageColor.g=255;
currentSecondImageColor.b=0;
currentSecondImageColor.a=255;
} else if(fileNameColor=="BLUE")
{
currentSecondImageColor.r=0;
currentSecondImageColor.g=0;
currentSecondImageColor.b=255;
currentSecondImageColor.a=255;
} else if(fileNameColor=="FADING")
{
currentSecondImageColor.r= 255;
currentSecondImageColor.g= 255;
currentSecondImageColor.b= 255;
currentSecondImageColor.a= 255;
}
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
//x++;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//y++;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> ColorSingleAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
if(chooseComparison==1){
//for each pixel...
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
int thisDiff;
if(fileNameColor=="RED")
{
//thisDiff=abs(imageColor1.r);
thisDiff=abs(255-imageColor1.r);
} else if(fileNameColor=="GREEN")
{
//thisDiff=abs(imageColor1.g);
thisDiff=abs(255-imageColor1.g);
} else if(fileNameColor=="BLUE")
{
//thisDiff=abs(imageColor1.b);
thisDiff=abs(255-imageColor1.b);
} else if(fileNameColor=="FADING") {
//thisDiff=imageColor1.getBrightness();
thisDiff=255-imageColor1.getBrightness();
}
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
float multiplier=8.0;
differences.push_back(multiplier* thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
+40 -6
View File
@@ -1,4 +1,4 @@
/* /*
~ author: dviid ~ author: dviid
~ contact: dviid@labs.ciid.dk ~ contact: dviid@labs.ciid.dk
*/ */
@@ -32,19 +32,53 @@ protected:
bool _RUN_DONE; bool _RUN_DONE;
string fileNameTag; string fileNameTag;
string fileNameColor;
float r,g,b; float r,g,b;
int _run_cnt, _save_cnt, _fade_cnt, _synth_save_cnt, _anim_cnt; int _run_cnt, _save_cnt, _fade_cnt, _synth_save_cnt, _anim_cnt;
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
int algo; ofxCvColorImage cvColorImage1;
int scale; ofxCvColorImage cvColorImage2;
int draw_style; ofxCvColorImage cvColorImage3;
float line_width; ofxCvColorImage cvColorImage4;
ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvFloatImage cvFloatImage1;
ofxCvContourFinder cvContourFinder1;
//this is the temporary container to allow us to convert and save out greyscale images
ofxCvColorImage cvConvertorImage;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
int vertexSubsampling;
int chooseColour;
bool _gotFirstImage;
ofImage _background;
}; };
+647 -62
View File
@@ -13,20 +13,37 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const int line_width_default = 0.5f;
const float point_size_default = 0.5f;
void DiffNoiseAnalysis::setup(int camWidth, int camHeight) void DiffNoiseAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
NUM_RUN = RefractiveIndex::XML.getValue("config:analysis_NUM_RUN:NUM_RUN_diffnoise", NUMBER_RUNS); NUM_RUN = RefractiveIndex::XML.getValue("config:analysis_NUM_RUN:NUM_RUN_diffnoise", NUMBER_RUNS);
cout << "NUM_RUN DiffNoiseAnalysis " << NUM_RUN << endl; cout << "NUM_RUN DiffNoiseAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier = 10;
vertexSubsampling = 1;
chooseColour = 5;
multiplier = 4.0;
blendMode = OF_BLENDMODE_ADD;
//blendMode = OF_BLENDMODE_MULTIPLY;
//blendMode = OF_BLENDMODE_SUBTRACT;
//blendMode = OF_BLENDMODE_ALPHA;
//blendMode = OF_BLENDMODE_SCREEN;
meshMode = OF_PRIMITIVE_TRIANGLES;
//meshMode = OF_PRIMITIVE_TRIANGLE_STRIP;
//meshMode = OF_PRIMITIVE_TRIANGLE_FAN;
//meshMode = OF_PRIMITIVE_LINES;
//meshMode = OF_PRIMITIVE_LINE_STRIP;
//meshMode = OF_PRIMITIVE_POINTS;
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_diffnoise", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_diffnoise", ACQUIRE_TIME);
cout << "ACQUIRE_TIME DiffNoiseAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME DiffNoiseAnalysis " << acq_run_time << endl;
@@ -53,23 +70,50 @@ void DiffNoiseAnalysis::setup(int camWidth, int camHeight)
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
//cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
//cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
////--------- // clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
algo = RefractiveIndex::XML.getValue("config:algorithms:diffnoise:algo", algo_default); cvColorImage2.clear();
scale = RefractiveIndex::XML.getValue("config:algorithms:diffnoise:scale", scale_default); cvGrayImage2.clear();
draw_style = RefractiveIndex::XML.getValue("config:algorithms:diffnoise:draw_style", draw_style_default); cvGrayDiff2.clear();
line_width = RefractiveIndex::XML.getValue("config:algorithms:diffnoise:line_width", line_width_default);
point_size = RefractiveIndex::XML.getValue("config:algorithms:diffnoise:point_size", point_size_default);
cvConvertorImage.clear();
cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvConvertorImage.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
} }
@@ -104,27 +148,167 @@ void DiffNoiseAnalysis::acquire()
void DiffNoiseAnalysis::synthesise() void DiffNoiseAnalysis::synthesise()
{ {
// we don't need to synthesise //cout << "DiffNoiseAnalysis::saving synthesis...\n";
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
//cout << "DiffNoiseAnalysis::synthesis FOR LOOP...\n";
//cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
//cout << "LOADED image1!!!" << endl;
//if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
//cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
//cvColorImage1.erode();
//cvColorImage1.dilate();
//cvColorImage1.blur(5);
//cvColorImage2.blur(5);
cvColorImage1.convertToGrayscalePlanarImage(cvGrayImage1, 1);
//cvColorImage2.convertToGrayscalePlanarImage(cvGrayImage2, 1);
//cvGrayImage1.convertToRange(0.0, 255.0);
//cvGrayImage2.convertToRange(0.0, 255.0);
//cvGrayImage1.adaptiveThreshold( 200, 0);
//cvGrayImage2.adaptiveThreshold( 200, 0);
//cvGrayImage1.contrastStretch();
//cvGrayImage2.contrastStretch();
//cvGrayImage1.brightnessContrast(1.0,0.5);
//cvGrayImage2.brightnessContrast(1.0,0.5);
cvColorImage1.setFromGrayscalePlanarImages(cvGrayImage1, cvGrayImage1, cvGrayImage1);
//cvColorImage2.setFromGrayscalePlanarImages(cvGrayImage2, cvGrayImage2, cvGrayImage2);
cvPyrMeanShiftFiltering(cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), 1, 1);
//cvPyrMeanShiftFiltering(cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), 1, 1);
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
//cvXorS( cvColorImage1.getCvImage(), cvScalarAll(150), cvColorImage1.getCvImage(), 0 );
//cvXorS( cvColorImage2.getCvImage(), cvScalarAll(150), cvColorImage1.getCvImage(), 0 );
//cvSmooth( cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvSmooth( cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
//image5.setFromPixels(cvColorImage2.getPixelsRef());
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
//DIFFERENCING SUBSEQUENT IMAGES
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-imagePixels2[i]>0){
imagePixels1[i]-=imagePixels2[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//DIFFERENCING THE BACKGROUND
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_DiffNoiseAnalysis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
//}
} else {
cout<<"couldn't load image from "<<_saved_filenames_analysis[i]<<endl;
}
}
// TOM'S fix of why the last file gets overwritten again and again - but seems to prevent the files being written to the screen.
/*
_RUN_DONE = true;
*/
meshIsComplete=false;
_synth_save_cnt=0;
// _saved_filenames_synthesis has processed all the files in the analysis images folder // _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP) while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3); Thread::sleep(3);
*/
} }
void DiffNoiseAnalysis::displayresults() void DiffNoiseAnalysis::displayresults()
{ {
for(float i=1;i<_saved_filenames_analysis.size();i++){ for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
@@ -135,27 +319,46 @@ void DiffNoiseAnalysis::displayresults()
//cout << "!_image_shown" << endl; //cout << "!_image_shown" << endl;
} }
_show_image = false; if(!image3.loadImage(_saved_filenames_synthesis[i])){
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
} }
} }
} }
// this runs at frame rate = 33 ms for 30 FPS // this runs at frame rate = 33 ms for 30 FPS
void DiffNoiseAnalysis::draw() void DiffNoiseAnalysis::draw()
{ {
ofEnableSmoothing();
ofEnableLighting();
ofEnableSeparateSpecularLight();
light.setPointLight();
light.enable();
lightStatic.enable();
light.setPosition(ofGetWidth()/2,ofGetHeight()/2,5);
lightStatic.setPosition(ofGetWidth()/2,ofGetHeight()/2,-1);
glEnable(GL_DEPTH_TEST);
ofSetLineWidth(1.0f);
glPointSize(5.0f);
ofEnableBlendMode(blendMode);
switch (_state) { switch (_state) {
case STATE_ACQUIRING: case STATE_ACQUIRING:
{ {
@@ -202,7 +405,6 @@ void DiffNoiseAnalysis::draw()
} }
} }
if (_frame_cnt >= (_frame_cnt_max-_fade_in_frames) && _frame_cnt <= _frame_cnt_max) { if (_frame_cnt >= (_frame_cnt_max-_fade_in_frames) && _frame_cnt <= _frame_cnt_max) {
for (int i=1; i < ofGetHeight() ; i=i+rectSize) for (int i=1; i < ofGetHeight() ; i=i+rectSize)
@@ -319,6 +521,9 @@ void DiffNoiseAnalysis::draw()
case STATE_DISPLAY_RESULTS: case STATE_DISPLAY_RESULTS:
{ {
//cout << "STATE_DISPLAY_RESULTS...\n" << endl;
if (_frame_cnt > 2) if (_frame_cnt > 2)
{ {
_image_shown = true; _image_shown = true;
@@ -327,47 +532,22 @@ void DiffNoiseAnalysis::draw()
_frame_cnt++; _frame_cnt++;
ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
glPointSize(point_size);
glEnable(GL_POINT_SMOOTH);
RefractiveIndex::cam.begin();
ofTranslate(tx, ty, tz);
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image) if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR); {
//cout << "_show_image...\n" << endl;
image2.bind(); ofEnableAlphaBlending();
RefractiveIndex::_shader.begin(); ofSetColor(255, 255, 255);
image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
//image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_GRAYSCALE);
image2.draw(0,0, ofGetWidth(), ofGetHeight());
RefractiveIndex::_shader.setUniform1i("algo", algo); ofDisableAlphaBlending();
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
_RUN_DONE = true;
image2.unbind();
RefractiveIndex::cam.end();
break; break;
} }
@@ -385,3 +565,408 @@ void DiffNoiseAnalysis::save_cb(Timer& timer)
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void DiffNoiseAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(meshMode);
ofColor meshColour=ofColor(255,255,255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==2){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor = currentSecondImage.getColor(x, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==3){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==4){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
int randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) +1 ]));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==5){
for(int i=0;i<sPixels.size();i++){
int randomJitter2 = 0;
int randomJitter = 0;
ofColor currentSecondImageColor;
ofColor currentSecondImageBW;
currentSecondImageColor = currentSecondImage.getColor(x, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*((y)+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter)+1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> DiffNoiseAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
if(chooseComparison==1){
//for each pixel...
float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
float _distanceToCentre=ofDist(imagePixels1.getWidth()/2, imagePixels1.getHeight()/2, x, y);
float _presumedBrightness=ofMap(sqrt(_maxPossibleDistanceToCentre)-sqrt(_distanceToCentre), 0, sqrt(_maxPossibleDistanceToCentre), 0, 255);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
int thisDiff=-abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getLightness());
//int thisDiff=-abs(imageColor1.r);
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
differences.push_back(multiplier * thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
+39 -6
View File
@@ -36,14 +36,47 @@ protected:
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
int algo; ofxCvColorImage cvColorImage1;
int scale; ofxCvColorImage cvColorImage2;
int draw_style; ofxCvColorImage cvColorImage3;
float line_width; ofxCvColorImage cvColorImage4;
float point_size; ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvContourFinder cvContourFinder1;
//this is the temporary container to allow us to convert and save out greyscale images
ofxCvColorImage cvConvertorImage;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
int vertexSubsampling;
int chooseColour;
ofPrimitiveMode meshMode;
ofBlendMode blendMode;
float multiplier;
bool _gotFirstImage;
ofImage _background;
}; };
+251 -65
View File
@@ -13,13 +13,6 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const int line_width_default = 0.5f;
const float point_size_default = 0.5f;
void IResponseAnalysis::setup(int camWidth, int camHeight) void IResponseAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
@@ -28,10 +21,21 @@ void IResponseAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN IResponseAnalysis " << NUM_RUN << endl; cout << "NUM_RUN IResponseAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier=4;
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_iresponse", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_iresponse", ACQUIRE_TIME);
cout << "ACQUIRE_TIME IResponseAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME IResponseAnalysis " << acq_run_time << endl;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier=8;
//int acq_run_time = 20; // 20 seconds of acquiring per run //int acq_run_time = 20; // 20 seconds of acquiring per run
@@ -54,28 +58,50 @@ void IResponseAnalysis::setup(int camWidth, int camHeight)
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
//cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
//cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
////--------- // clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
algo = RefractiveIndex::XML.getValue("config:algorithms:iresponse:algo", algo_default); cvColorImage2.clear();
scale = RefractiveIndex::XML.getValue("config:algorithms:iresponse:scale", scale_default); cvGrayImage2.clear();
draw_style = RefractiveIndex::XML.getValue("config:algorithms:iresponse:draw_style", draw_style_default); cvGrayDiff2.clear();
line_width = RefractiveIndex::XML.getValue("config:algorithms:iresponse:line_width", line_width_default);
point_size = RefractiveIndex::XML.getValue("config:algorithms:iresponse:point_size", point_size_default); cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
} }
void IResponseAnalysis::acquire() void IResponseAnalysis::acquire()
{ {
Timer* save_timer; Timer* save_timer;
TimerCallback<IResponseAnalysis> save_callback(*this, &IResponseAnalysis::save_cb); TimerCallback<IResponseAnalysis> save_callback(*this, &IResponseAnalysis::save_cb);
@@ -103,28 +129,92 @@ void IResponseAnalysis::acquire()
void IResponseAnalysis::synthesise() void IResponseAnalysis::synthesise()
{ {
cout<<"SYNTHESISING IRESPONSE";
// we don't need to synthesise
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n"; //cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
//cout << "IResponseAnalysis::synthesis FOR LOOP...\n";
//cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
//cout << "LOADED image1!!!" << endl;
//if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
//background subtraction//
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//meshPix=make3DZmap(image1, image5, _background);
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_IResponseSynthesis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
}
//}
}
// TOM'S fix of why the last file gets overwritten again and again - but seems to prevent the files being written to the screen.
/*
_RUN_DONE = true;
*/
meshIsComplete=false;
_synth_save_cnt=0;
// _saved_filenames_synthesis has processed all the files in the analysis images folder // _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP) while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3); Thread::sleep(3);
*/
} }
void IResponseAnalysis::displayresults() void IResponseAnalysis::displayresults()
{ {
for(float i=1;i<_saved_filenames_analysis.size();i++){ for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
@@ -135,15 +225,13 @@ void IResponseAnalysis::displayresults()
//cout << "!_image_shown" << endl; //cout << "!_image_shown" << endl;
} }
_show_image = false; if(!image3.loadImage(_saved_filenames_synthesis[i])){
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; // cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
@@ -284,6 +372,8 @@ void IResponseAnalysis::draw()
case STATE_DISPLAY_RESULTS: case STATE_DISPLAY_RESULTS:
{ {
//cout << "STATE_DISPLAY_RESULTS...\n" << endl;
if (_frame_cnt > 2) if (_frame_cnt > 2)
{ {
_image_shown = true; _image_shown = true;
@@ -292,47 +382,21 @@ void IResponseAnalysis::draw()
_frame_cnt++; _frame_cnt++;
ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
glPointSize(point_size);
glEnable(GL_POINT_SMOOTH);
RefractiveIndex::cam.begin();
ofTranslate(tx, ty, tz);
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image) if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR); {
//cout << "_show_image...\n" << endl;
image2.bind(); ofEnableAlphaBlending();
RefractiveIndex::_shader.begin(); ofSetColor(255, 255, 255);
image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
image2.draw(0,0, ofGetWidth(), ofGetHeight());
RefractiveIndex::_shader.setUniform1i("algo", algo); ofDisableAlphaBlending();
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
_RUN_DONE = true;
image2.unbind();
RefractiveIndex::cam.end();
break; break;
} }
@@ -352,3 +416,125 @@ void IResponseAnalysis::save_cb(Timer& timer)
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void IResponseAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(OF_PRIMITIVE_TRIANGLES);
ofColor meshColour=ofColor(255,0,0);
int chooseColour=1 ;
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x++;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y++;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> IResponseAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//the current version compares how bright this pixel is with how bright it would be following inverse square fall off from centre
if(chooseComparison==1){
//for each pixel...
float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
float _distanceToCentre=ofDist(imagePixels1.getWidth()/2, imagePixels1.getHeight()/2, x, y);
float _presumedBrightness=ofMap(sqrt(_maxPossibleDistanceToCentre)-sqrt(_distanceToCentre), 0, sqrt(_maxPossibleDistanceToCentre), 0, 255);
//float _presumedBrightness=255;
int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
//cout<<thisDiff<< " thisDiff "<<endl;
float multiplier=4.0;
differences.push_back(multiplier * thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
+27 -6
View File
@@ -35,14 +35,35 @@ protected:
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
int algo; ofxCvColorImage cvColorImage1;
int scale; ofxCvColorImage cvColorImage2;
int draw_style; ofxCvColorImage cvColorImage3;
float line_width; ofxCvColorImage cvColorImage4;
float point_size; ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvContourFinder cvContourFinder1;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//returns ofPixels but these pixels actually hold depth data.
//ofPixels make3DZmap(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
bool _gotFirstImage;
ofImage _background;
}; };
+680 -68
View File
@@ -12,12 +12,8 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
#define TRESHOLD 80
const int algo_default = 1; #define MAXBLOBS 15
const int scale_default = 500;
const int draw_style_default = 3;
const int line_width_default = 0.5f;
const float point_size_default = 0.5f;
void RelaxRateAnalysis::setup(int camWidth, int camHeight) void RelaxRateAnalysis::setup(int camWidth, int camHeight)
{ {
@@ -27,10 +23,41 @@ void RelaxRateAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN RelaxRateAnalysis " << NUM_RUN << endl; cout << "NUM_RUN RelaxRateAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier = 8;
vertexSubsampling_x = 1; //must be at least '1'
vertexSubsampling_y = 5; //must be at least '1'
chooseColour = 2;
multiplier = 4.0;
//blendMode = OF_BLENDMODE_ADD;
//blendMode = OF_BLENDMODE_MULTIPLY;
blendMode = OF_BLENDMODE_SUBTRACT;
//blendMode = OF_BLENDMODE_ALPHA;
//blendMode = OF_BLENDMODE_SCREEN;
//meshMode = OF_PRIMITIVE_TRIANGLES;
//meshMode = OF_PRIMITIVE_TRIANGLE_STRIP;
//meshMode = OF_PRIMITIVE_TRIANGLE_FAN;
//meshMode = OF_PRIMITIVE_LINES;
meshMode = OF_PRIMITIVE_LINE_STRIP;
//meshMode = OF_PRIMITIVE_POINTS;
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_relaxrate", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_relaxrate", ACQUIRE_TIME);
cout << "ACQUIRE_TIME RelaxRateAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME RelaxRateAnalysis " << acq_run_time << endl;
_treshold = RefractiveIndex::XML.getValue("config:relaxrate:treshold", TRESHOLD);
cout << "TRESHOLD RelaxRateAnalysis " << _treshold << endl;
_maxblobs = RefractiveIndex::XML.getValue("config:relaxrate:maxblobs", MAXBLOBS);
cout << "MAXBLOBS RelaxRateAnalysis " << _maxblobs << endl;
//int acq_run_time = 20; // 20 seconds of acquiring per run
DELTA_T_SAVE = 2*(10*acq_run_time/2); // for 20 seconds, we want this to be around 200 files DELTA_T_SAVE = 2*(10*acq_run_time/2); // for 20 seconds, we want this to be around 200 files
// or 10 times per second = every 100 ms // or 10 times per second = every 100 ms
@@ -53,22 +80,45 @@ void RelaxRateAnalysis::setup(int camWidth, int camHeight)
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
// clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
cvColorImage2.clear();
cvGrayImage2.clear();
cvGrayDiff2.clear();
////--------- cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
algo = RefractiveIndex::XML.getValue("config:algorithms:relaxrate:algo", algo_default);
scale = RefractiveIndex::XML.getValue("config:algorithms:relaxrate:scale", scale_default);
draw_style = RefractiveIndex::XML.getValue("config:algorithms:relaxrate:draw_style", draw_style_default);
line_width = RefractiveIndex::XML.getValue("config:algorithms:relaxrate:line_width", line_width_default);
point_size = RefractiveIndex::XML.getValue("config:algorithms:relaxrate:point_size", point_size_default);
} }
@@ -102,47 +152,189 @@ void RelaxRateAnalysis::acquire()
void RelaxRateAnalysis::synthesise() void RelaxRateAnalysis::synthesise()
{ {
// we don't need to synthesise // cout << "RelaxRate::saving synthesis...\n";
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
// _saved_filenames_synthesis has processed all the files in the analysis images folder // cout << "StrobeAnalysis::synthesis FOR LOOP...\n";
while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3); // cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
// cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
//cout << "LOADED image1!!!" << endl;
if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
//cvColorImage1.erode();
//cvColorImage1.erode();
//cvColorImage1.dilate();
cvColorImage1.blur(1);
cvColorImage2.blur(1);
//cvXorS( cvColorImage1.getCvImage(), cvScalarAll(150), cvColorImage1.getCvImage(), 0 );
//cvXorS( cvColorImage2.getCvImage(), cvScalarAll(150), cvColorImage1.getCvImage(), 0 );
cvColorImage1.convertToGrayscalePlanarImage(cvGrayImage1, 1);
cvColorImage2.convertToGrayscalePlanarImage(cvGrayImage2, 1);
//cvGrayImage1.convertToRange(0.0, 255.0);
//cvGrayImage2.convertToRange(0.0, 255.0);
//cvGrayImage1.adaptiveThreshold( 200, 0);
//cvGrayImage2.adaptiveThreshold( 200, 0);
//cvGrayImage1.contrastStretch();
//cvGrayImage2.contrastStretch();
cvGrayDiff1.absDiff(cvGrayImage1, cvGrayImage2);
//cvGrayDiff1.brightnessContrast(1.0,0.5);
//cvGrayImage1.brightnessContrast(1.0,0.5);
//cvGrayImage2.brightnessContrast(1.0,0.5);
cvColorImage1.setFromGrayscalePlanarImages(cvGrayImage1, cvGrayImage1, cvGrayImage1);
//cvColorImage2.setFromGrayscalePlanarImages(cvGrayImage2, cvGrayImage2, cvGrayImage2);
//cvPyrMeanShiftFiltering(cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), 1, 1);
//cvPyrMeanShiftFiltering(cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), 1, 1);
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
//cvSmooth( cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvSmooth( cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
image5.setFromPixels(cvColorImage2.getPixelsRef());
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
//DIFFERENCING SUBSEQUENT IMAGES
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-imagePixels2[i]>0){
imagePixels1[i]-=imagePixels2[i];
}
else{
imagePixels1[i]=0;
}
}
*/ */
//DIFFERENCING THE BACKGROUND
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_RelaxRateAnalysis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
}
} else {
cout<<"couldn't load image from "<<_saved_filenames_analysis[i]<<endl;
}
}
// TOM'S fix of why the last file gets overwritten again and again - but seems to prevent the files being written to the screen.
/*
_RUN_DONE = true;
*/
meshIsComplete=false;
_synth_save_cnt=0;
// _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(10);
} }
void RelaxRateAnalysis::displayresults() void RelaxRateAnalysis::displayresults()
{ {
for(float i=1;i<_saved_filenames_analysis.size();i++){ for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
//cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl; // cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl;
while(!_image_shown){ while(!_image_shown){
Thread::sleep(2); Thread::sleep(2);
//cout << "!_image_shown" << endl; //cout << "!_image_shown" << endl;
} }
_show_image = false; if(!image3.loadImage(_saved_filenames_synthesis[i])){
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; // cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
@@ -156,6 +348,24 @@ void RelaxRateAnalysis::displayresults()
void RelaxRateAnalysis::draw() void RelaxRateAnalysis::draw()
{ {
ofEnableSmoothing();
ofEnableLighting();
ofEnableSeparateSpecularLight();
light.setPointLight();
light.enable();
lightStatic.enable();
light.setPosition(ofGetWidth()/2,ofGetHeight()/2,5);
lightStatic.setPosition(ofGetWidth()/2,ofGetHeight()/2,-1);
glEnable(GL_DEPTH_TEST);
ofSetLineWidth(2.0f);
glPointSize(1.0f);
ofEnableBlendMode(blendMode);
switch (_state) { switch (_state) {
case STATE_ACQUIRING: case STATE_ACQUIRING:
{ {
@@ -289,47 +499,16 @@ void RelaxRateAnalysis::draw()
_frame_cnt++; _frame_cnt++;
ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
glPointSize(point_size);
glEnable(GL_POINT_SMOOTH);
RefractiveIndex::cam.begin();
ofTranslate(tx, ty, tz);
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image) if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR); {
for(int i=0;i<cvContourFinderVectDisplay.size();i++){
image2.bind(); cvContourFinderVectDisplay[i]->draw(0,0, ofGetWidth(), ofGetHeight());
RefractiveIndex::_shader.begin();
RefractiveIndex::_shader.setUniform1i("algo", algo);
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); }
image2.unbind();
RefractiveIndex::cam.end();
// display results of the synthesis
_RUN_DONE = true;
break; break;
} }
@@ -348,5 +527,438 @@ void RelaxRateAnalysis::save_cb(Timer& timer)
string file_name = ofToString(_save_cnt,2)+"_"+ ofToString(c,2)+"_"+ofToString(_run_cnt,2)+".jpg"; string file_name = ofToString(_save_cnt,2)+"_"+ ofToString(c,2)+"_"+ofToString(_run_cnt,2)+".jpg";
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
}
void RelaxRateAnalysis::cleanup()
{
}
void RelaxRateAnalysis::clearcfindervect()
{
for(int i = 0; i < cvContourFinderVect.size(); i++) {
rfiCvContourFinder* f = cvContourFinderVect[i];
// maybe it's erase here? http://forum.openframeworks.cc/index.php/topic,3016.0.html
// cvContourFinderVect.erase(i);
delete f;
}
cvContourFinderVect.clear();
}
void RelaxRateAnalysis::clearcfindervectdisplay()
{
cvContourFinderVectDisplay.clear();
}
void RelaxRateAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(meshMode);
ofColor meshColour=ofColor(255,255,255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling_x;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling_y;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==2){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor = currentSecondImage.getColor(x, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling_x;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling_y;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==3){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling_x;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling_y;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==4){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
int randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) +1 ]));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
x=x+vertexSubsampling_x;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling_y;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==5){
for(int i=0;i<sPixels.size();i++){
int randomJitter2 = 0;
int randomJitter = 0;
ofColor currentSecondImageColor;
ofColor currentSecondImageBW;
currentSecondImageColor = currentSecondImage.getColor(x, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*((y)+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter)+1 ]));
x=x+vertexSubsampling_x;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling_y;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> RelaxRateAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
if(chooseComparison==1){
//for each pixel...
float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
float _distanceToCentre=ofDist(imagePixels1.getWidth()/2, imagePixels1.getHeight()/2, x, y);
float _presumedBrightness=ofMap(sqrt(_maxPossibleDistanceToCentre)-sqrt(_distanceToCentre), 0, sqrt(_maxPossibleDistanceToCentre), 0, 255);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
int thisDiff=-abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getLightness());
//int thisDiff=-abs(imageColor1.r);
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
differences.push_back(multiplier * thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
} }
+42 -5
View File
@@ -23,6 +23,7 @@ public:
void acquire(); void acquire();
void synthesise(); void synthesise();
void displayresults(); void displayresults();
void cleanup();
void draw(); void draw();
@@ -30,6 +31,8 @@ public:
protected: protected:
void clearcfindervect();
void clearcfindervectdisplay();
bool _RUN_DONE; bool _RUN_DONE;
float _flip, _level; float _flip, _level;
@@ -43,11 +46,45 @@ protected:
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
ofxCvColorImage cvColorImage1;
ofxCvColorImage cvColorImage2;
ofxCvColorImage cvColorImage3;
ofxCvColorImage cvColorImage4;
ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
vector<rfiCvContourFinder*> cvContourFinderVect;
vector<rfiCvContourFinder*> cvContourFinderVectDisplay;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
int vertexSubsampling_x;
int vertexSubsampling_y;
int chooseColour;
ofPrimitiveMode meshMode;
ofBlendMode blendMode;
float multiplier;
bool _gotFirstImage;
ofImage _background;
int algo;
int scale;
int draw_style;
float line_width;
float point_size;
}; };
+649 -69
View File
@@ -17,11 +17,6 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const double line_width_default = 0.5;
void ShadowScapesAnalysis::setup(int camWidth, int camHeight) void ShadowScapesAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
@@ -30,6 +25,57 @@ void ShadowScapesAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN ShadowScapesAnalysis " << NUM_RUN << endl; cout << "NUM_RUN ShadowScapesAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier = 8;
vertexSubsampling = 1;
chooseColour = 5;
multiplier = 4.0;
ofSetLineWidth(5.0f);
glPointSize(5.0f);
glEnable(GL_DEPTH_TEST);
//blendMode = OF_BLENDMODE_ADD;
//blendMode = OF_BLENDMODE_MULTIPLY;
//blendMode = OF_BLENDMODE_SUBTRACT;
blendMode = OF_BLENDMODE_ALPHA;
//blendMode = OF_BLENDMODE_SCREEN;
//meshMode = OF_PRIMITIVE_TRIANGLES;
//meshMode = OF_PRIMITIVE_TRIANGLE_STRIP;
//meshMode = OF_PRIMITIVE_TRIANGLE_FAN;
meshMode = OF_PRIMITIVE_LINES;
//meshMode = OF_PRIMITIVE_LINE_STRIP;
//meshMode = OF_PRIMITIVE_POINTS;
///setup light
ofEnableLighting();
GLfloat light_ambient[] = {0.5, 0.5, 0.5, 0.5 };
GLfloat light_diffuse[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_specular[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_position[] = { 1.0, 1.0, 1.0, 0.0 };
glLightfv(GL_LIGHT0, GL_AMBIENT, light_ambient);
glLightfv(GL_LIGHT0, GL_DIFFUSE, light_diffuse);
glLightfv(GL_LIGHT0, GL_SPECULAR, light_specular);
glLightfv(GL_LIGHT0, GL_POSITION, light_position);
glEnable(GL_LIGHT0);
GLfloat light_ambient1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_diffuse1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_specular1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_position1[] = { -1.0, 1.0, 1.0, 0.0 };
glLightfv(GL_LIGHT1, GL_AMBIENT, light_ambient1);
glLightfv(GL_LIGHT1, GL_DIFFUSE, light_diffuse1);
glLightfv(GL_LIGHT1, GL_SPECULAR, light_specular1);
glLightfv(GL_LIGHT1, GL_POSITION, light_position1);
glEnable(GL_LIGHT1);
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_shadowscapes", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_shadowscapes", ACQUIRE_TIME);
cout << "ACQUIRE_TIME ShadowScapesAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME ShadowScapesAnalysis " << acq_run_time << endl;
@@ -47,7 +93,7 @@ void ShadowScapesAnalysis::setup(int camWidth, int camHeight)
DELTA_T_SAVE = 3*(10*acq_run_time/2); // for 20 seconds, we want this to be around 100 files DELTA_T_SAVE = 3*(10*acq_run_time/2); // for 20 seconds, we want this to be around 100 files
// or 5 times per second = every 200 ms // or 5 times per second = every 200 ms
_scanLineWidth = 300.0; _scanLineWidth = 100.0;
_run_cnt = 0; _run_cnt = 0;
_save_cnt = 0; _save_cnt = 0;
_synth_save_cnt = 0; _synth_save_cnt = 0;
@@ -60,21 +106,48 @@ void ShadowScapesAnalysis::setup(int camWidth, int camHeight)
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
//cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
//cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
// clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
cvColorImage2.clear();
cvGrayImage2.clear();
cvGrayDiff2.clear();
////--------- cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
algo = RefractiveIndex::XML.getValue("config:algorithms:shadowscapes:algo", algo_default);
scale = RefractiveIndex::XML.getValue("config:algorithms:shadowscapes:scale", scale_default);
draw_style = RefractiveIndex::XML.getValue("config:algorithms:shadowscapes:draw_style", draw_style_default);
line_width = RefractiveIndex::XML.getValue("config:algorithms:shadowscapes:line_width", line_width_default);
} }
@@ -102,50 +175,167 @@ void ShadowScapesAnalysis::acquire()
void ShadowScapesAnalysis::synthesise() void ShadowScapesAnalysis::synthesise()
{ {
// we don't need to synthesise //cout << "ShadowScapesAnalysis::saving synthesis...\n";
return;
/* for(float i=1;i<_saved_filenames_analysis.size()-1; i++){
//cout << "IResponseAnalysis::saving synthesis...\n"; // cout << "ShadowScapesAnalysis::synthesis FOR LOOP...\n";
if(_state == STATE_STOP) return;
_RUN_DONE = false; // cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
// _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3);
*/
}
void ShadowScapesAnalysis::displayresults()
{
for(float i=1;i<_saved_filenames_analysis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
//cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl;
while(!_image_shown){
Thread::sleep(2);
//cout << "!_image_shown" << endl;
}
_show_image = false;
if(!image1.loadImage(_saved_filenames_analysis[i])){ if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image1.loadImage(_saved_filenames_analysis[i])){
// cout << "LOADED image1!!!" << endl;
if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
cvColorImage1.convertToGrayscalePlanarImage(cvGrayImage1, 1);
cvColorImage2.convertToGrayscalePlanarImage(cvGrayImage2, 1);
//cvGrayDiff1.absDiff(cvGrayImage2, cvGrayImage1);
//cvGrayDiff1.erode();
cvGrayImage1.dilate();
cvGrayImage1.blur(5);
cvGrayImage1.contrastStretch();
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
cvColorImage1.setFromGrayscalePlanarImages(cvGrayImage1, cvGrayImage1, cvGrayImage1);
//cvColorImage2.setFromGrayscalePlanarImages(cvGrayImage2, cvGrayImage2, cvGrayImage2);
//cvPyrMeanShiftFiltering(cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), 1, 1);
//cvPyrMeanShiftFiltering(cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), 1, 1);
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
//cvSmooth( cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvSmooth( cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
image5.setFromPixels(cvColorImage2.getPixelsRef());
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
//DIFFERENCING SUBSEQUENT IMAGES
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-imagePixels2[i]>0){
imagePixels1[i]-=imagePixels2[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//DIFFERENCING THE BACKGROUND
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_ShadowScapeAnalysis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
}
} else {
cout<<"couldn't load image from "<<_saved_filenames_analysis[i]<<endl;
}
}
// _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3);
}
void ShadowScapesAnalysis::displayresults()
{
for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return;
// cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl;
while(!_image_shown){
Thread::sleep(2);
//cout << "!_image_shown" << endl;
}
if(!image3.loadImage(_saved_filenames_synthesis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
} }
} }
} }
@@ -333,47 +523,27 @@ void ShadowScapesAnalysis::draw()
_frame_cnt++; _frame_cnt++;
if (_show_image)
{
// cout << "_show_image...\n" << endl;
ofEnableAlphaBlending(); ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
RefractiveIndex::cam.begin(); ofSetColor(255, 255, 255);
ofTranslate(tx, ty, tz); image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz); image2.draw(0,0, ofGetWidth(), ofGetHeight());
glScalef(1.5, 1, 1);
if (_show_image) ofDisableAlphaBlending();
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR);
image2.bind();
RefractiveIndex::_shader.begin();
RefractiveIndex::_shader.setUniform1i("algo", algo);
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
image2.unbind();
RefractiveIndex::cam.end();
_RUN_DONE = true; _RUN_DONE = true;
// clear allocated memory...?
break; break;
} }
@@ -406,3 +576,413 @@ void ShadowScapesAnalysis::save_cb(Timer& timer)
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void ShadowScapesAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(meshMode);
ofColor meshColour=ofColor(255,255,255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==2){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor = currentSecondImage.getColor(x, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==3){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==4){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
int randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) +1 ]));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==5){
for(int i=0;i<sPixels.size();i++){
int randomJitter2 = 0;
int randomJitter = 0;
ofColor currentSecondImageColor;
ofColor currentSecondImageBW;
currentSecondImageColor = currentSecondImage.getColor(x, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*((y)+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter)+1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> ShadowScapesAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
if(chooseComparison==1){
//for each pixel...
float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
ofColor imageColor2 = imagePixels1.getColor(x+1, y+1);
ofColor imageColor3 = imagePixels1.getColor(x+2, y+2);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
int thisDiff=-abs(imageColor1.getBrightness()+ofRandom(-50,50));
//int thisDiff=abs(imageColor1.getLightness());
//int thisDiff=-abs(imageColor1.r);
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
differences.push_back(multiplier * thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
+36 -5
View File
@@ -42,13 +42,44 @@ protected:
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
ofxCvColorImage cvColorImage1;
ofxCvColorImage cvColorImage2;
ofxCvColorImage cvColorImage3;
ofxCvColorImage cvColorImage4;
ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvContourFinder cvContourFinder1;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
int vertexSubsampling;
int chooseColour;
ofPrimitiveMode meshMode;
ofBlendMode blendMode;
float multiplier;
bool _gotFirstImage;
ofImage _background;
int algo;
int scale;
int draw_style;
double line_width;
}; };
+737 -78
View File
@@ -13,13 +13,6 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 20 #define ACQUIRE_TIME 20
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const int line_width_default = 0.5f;
const float point_size_default = 0.5f;
void ShapeFromShadingAnalysis::setup(int camWidth, int camHeight) void ShapeFromShadingAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
@@ -28,6 +21,56 @@ void ShapeFromShadingAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN ShapeFromShadingAnalysis " << NUM_RUN << endl; cout << "NUM_RUN ShapeFromShadingAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier = 8;
vertexSubsampling = 1;
chooseColour = 5;
multiplier = 3.0;
ofSetLineWidth(5.0f);
glPointSize(5.0f);
//blendMode = OF_BLENDMODE_ADD;
//blendMode = OF_BLENDMODE_MULTIPLY;
//blendMode = OF_BLENDMODE_SUBTRACT;
blendMode = OF_BLENDMODE_ALPHA;
//blendMode = OF_BLENDMODE_SCREEN;
//meshMode = OF_PRIMITIVE_TRIANGLES;
//meshMode = OF_PRIMITIVE_TRIANGLE_STRIP;
//meshMode = OF_PRIMITIVE_TRIANGLE_FAN;
meshMode = OF_PRIMITIVE_LINES;
//meshMode = OF_PRIMITIVE_LINE_STRIP;
//meshMode = OF_PRIMITIVE_POINTS;
///setup light
ofEnableLighting();
GLfloat light_ambient[] = {0.5, 0.5, 0.5, 0.5 };
GLfloat light_diffuse[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_specular[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_position[] = { 1.0, 1.0, 1.0, 0.0 };
glLightfv(GL_LIGHT0, GL_AMBIENT, light_ambient);
glLightfv(GL_LIGHT0, GL_DIFFUSE, light_diffuse);
glLightfv(GL_LIGHT0, GL_SPECULAR, light_specular);
glLightfv(GL_LIGHT0, GL_POSITION, light_position);
glEnable(GL_LIGHT0);
GLfloat light_ambient1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_diffuse1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_specular1[] = { 0.5, 0.5, 0.5, 0.5 };
GLfloat light_position1[] = { -1.0, 1.0, 1.0, 0.0 };
glLightfv(GL_LIGHT1, GL_AMBIENT, light_ambient1);
glLightfv(GL_LIGHT1, GL_DIFFUSE, light_diffuse1);
glLightfv(GL_LIGHT1, GL_SPECULAR, light_specular1);
glLightfv(GL_LIGHT1, GL_POSITION, light_position1);
glEnable(GL_LIGHT1);
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_shapefromshading", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_shapefromshading", ACQUIRE_TIME);
cout << "ACQUIRE_TIME ShapeFromShadingAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME ShapeFromShadingAnalysis " << acq_run_time << endl;
@@ -54,21 +97,50 @@ void ShapeFromShadingAnalysis::setup(int camWidth, int camHeight)
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image3.clear();
image4.clear();
image5.clear();
image1.setUseTexture(false); // images use for drawing the synthesized files to the screen ///
image2.setUseTexture(true); image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
////--------- // cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
// cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
algo = RefractiveIndex::XML.getValue("config:algorithms:shapeshade:algo", algo_default); // clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
scale = RefractiveIndex::XML.getValue("config:algorithms:shapeshade:scale", scale_default); // that we're getting in OSX/Windows and is maybe crashing Windows
draw_style = RefractiveIndex::XML.getValue("config:algorithms:shapeshade:draw_style", draw_style_default); // http://forum.openframeworks.cc/index.php?topic=1867.0
line_width = RefractiveIndex::XML.getValue("config:algorithms:shapeshade:line_width", line_width_default); cvColorImage1.clear();
point_size = RefractiveIndex::XML.getValue("config:algorithms:shapeshade:point_size", point_size_default); cvGrayImage1.clear();
cvGrayDiff1.clear();
cvColorImage2.clear();
cvGrayImage2.clear();
cvGrayDiff2.clear();
cvConvertorImage.clear();
cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvConvertorImage.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
} }
@@ -124,46 +196,207 @@ void ShapeFromShadingAnalysis::acquire()
void ShapeFromShadingAnalysis::synthesise() void ShapeFromShadingAnalysis::synthesise()
{ {
// we don't need to synthesise // cout << "ShapeFromShadingAnalysis::saving synthesis...\n";
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
// _saved_filenames_synthesis has processed all the files in the analysis images folder // cout << "ShapeFromShadingAnalysis::synthesis FOR LOOP...\n";
while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3);
*/
// cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
}
void ShapeFromShadingAnalysis::displayresults()
{
for(float i=1;i<_saved_filenames_analysis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
//cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl;
while(!_image_shown){
Thread::sleep(2);
//cout << "!_image_shown" << endl;
}
_show_image = false;
if(!image1.loadImage(_saved_filenames_analysis[i])){ if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image1.loadImage(_saved_filenames_analysis[i])){
// cout << "LOADED image1!!!" << endl;
if(image5.loadImage(_saved_filenames_analysis[i+1])){
if(_saved_filenames_analysis[i].find("QUAD1")<_saved_filenames_analysis[i].length())
{
fileNameQuad = "QUAD1";
cout<<"FOUND QUAD1"<<endl;
} else if (_saved_filenames_analysis[i].find("QUAD2")<_saved_filenames_analysis[i].length())
{
fileNameQuad = "QUAD2";
cout<<"FOUND QUAD2"<<endl;
} else if(_saved_filenames_analysis[i].find("QUAD3")<_saved_filenames_analysis[i].length())
{
fileNameQuad = "QUAD3";
cout<<"FOUND QUAD3"<<endl;
} else if(_saved_filenames_analysis[i].find("QUAD4")<_saved_filenames_analysis[i].length())
{
fileNameQuad = "QUAD4";
cout<<"FOUND QUAD4"<<endl;
}
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
cvColorImage1.convertToGrayscalePlanarImage(cvGrayImage1, 1);
cvColorImage2.convertToGrayscalePlanarImage(cvGrayImage2, 1);
//cvGrayDiff1.absDiff(cvGrayImage2, cvGrayImage1);
//cvGrayDiff1.erode();
cvGrayImage1.dilate();
cvGrayImage1.blur(5);
cvGrayImage1.contrastStretch();
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
cvColorImage1.setFromGrayscalePlanarImages(cvGrayImage1, cvGrayImage1, cvGrayImage1);
//cvColorImage2.setFromGrayscalePlanarImages(cvGrayImage2, cvGrayImage2, cvGrayImage2);
//cvPyrMeanShiftFiltering(cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), 1, 1);
//cvPyrMeanShiftFiltering(cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), 1, 1);
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
//cvSmooth( cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvSmooth( cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
image5.setFromPixels(cvColorImage2.getPixelsRef());
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
//DIFFERENCING SUBSEQUENT IMAGES
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-imagePixels2[i]>0){
imagePixels1[i]-=imagePixels2[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//DIFFERENCING THE BACKGROUND
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
if(fileNameQuad=="QUAD1")
{
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_ShapeFromShadingAnalysis_"+fileNameQuad+"_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
} else if(fileNameQuad=="QUAD2")
{
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_ShapeFromShadingAnalysis_"+fileNameQuad+"_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
} else if(fileNameQuad=="QUAD3")
{
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_ShapeFromShadingAnalysis_"+fileNameQuad+"_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
} else if(fileNameQuad=="QUAD4") {
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_ShapeFromShadingAnalysis_"+fileNameQuad+"_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
}
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
}
} else {
cout<<"couldn't load image from "<<_saved_filenames_analysis[i]<<endl;
}
}
// _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3);
}
void ShapeFromShadingAnalysis::displayresults()
{
for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return;
// cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl;
while(!_image_shown){
Thread::sleep(2);
//cout << "!_image_shown" << endl;
}
if(!image3.loadImage(_saved_filenames_synthesis[i])){
//couldn't load image
cout << "didn't load image" << endl;
}
if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
@@ -175,6 +408,48 @@ void ShapeFromShadingAnalysis::displayresults()
void ShapeFromShadingAnalysis::draw() void ShapeFromShadingAnalysis::draw()
{ {
//rotate light around origin ofviewspace
float xx=cos(ofGetElapsedTimef()*0.4)*150;
float yy=sin(ofGetElapsedTimef()*0.4)*150;
float zz=0;
if(fileNameQuad=="QUAD1")
{
GLfloat light_position[] = { 1000, 1000, 20, 0.0 };
GLfloat light_position1[] = { 1000, 1000, 20, 0.0 };
glLightfv(GL_LIGHT0, GL_POSITION, light_position);
glLightfv(GL_LIGHT1, GL_POSITION, light_position1);
} else if(fileNameQuad=="QUAD2")
{
GLfloat light_position[] = { 1000, -1000, 20, 0.0 };
GLfloat light_position1[] = { 1000, -1000, 20, 0.0 };
glLightfv(GL_LIGHT0, GL_POSITION, light_position);
glLightfv(GL_LIGHT1, GL_POSITION, light_position1);
} else if(fileNameQuad=="QUAD3")
{
GLfloat light_position[] = {-1000, 1000, 20, 0.0 };
GLfloat light_position1[] = { -1000, 1000, 20, 0.0 };
glLightfv(GL_LIGHT0, GL_POSITION, light_position);
glLightfv(GL_LIGHT1, GL_POSITION, light_position1);
} else if(fileNameQuad=="QUAD4")
{
GLfloat light_position[] = { -1000, -1000, 20, 0.0 };
GLfloat light_position1[] = { -1000, -1000, 20, 0.0 };
glLightfv(GL_LIGHT0, GL_POSITION, light_position);
glLightfv(GL_LIGHT1, GL_POSITION, light_position1);
}
switch (_state) { switch (_state) {
case STATE_ACQUIRING: case STATE_ACQUIRING:
{ {
@@ -477,6 +752,8 @@ void ShapeFromShadingAnalysis::draw()
case STATE_DISPLAY_RESULTS: case STATE_DISPLAY_RESULTS:
{ {
// cout << "STATE_DISPLAY_RESULTS...\n" << endl;
if (_frame_cnt > 2) if (_frame_cnt > 2)
{ {
_image_shown = true; _image_shown = true;
@@ -485,50 +762,23 @@ void ShapeFromShadingAnalysis::draw()
_frame_cnt++; _frame_cnt++;
ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
glPointSize(point_size);
glEnable(GL_POINT_SMOOTH);
RefractiveIndex::cam.begin();
ofTranslate(tx, ty, tz);
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image) if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR); {
// cout << "_show_image...\n" << endl;
image2.bind(); ofEnableAlphaBlending();
RefractiveIndex::_shader.begin(); ofSetColor(255, 255, 255);
image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
image2.draw(0,0, ofGetWidth(), ofGetHeight());
RefractiveIndex::_shader.setUniform1i("algo", algo); ofDisableAlphaBlending();
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
_RUN_DONE = true;
image2.unbind();
RefractiveIndex::cam.end();
break; break;
} }
@@ -548,3 +798,412 @@ void ShapeFromShadingAnalysis::save_cb(Timer& timer)
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void ShapeFromShadingAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(meshMode);
ofColor meshColour=ofColor(255,255,255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==2){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor = currentSecondImage.getColor(x, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==3){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==4){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
int randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) +1 ]));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==5){
for(int i=0;i<sPixels.size();i++){
int randomJitter2 = 0;
int randomJitter = 0;
ofColor currentSecondImageColor;
ofColor currentSecondImageBW;
currentSecondImageColor = currentSecondImage.getColor(x, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*((y)+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter)+1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> ShapeFromShadingAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
if(chooseComparison==1){
//for each pixel...
float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
ofColor imageColor2 = imagePixels1.getColor(x+1, y+1);
ofColor imageColor3 = imagePixels1.getColor(x+2, y+2);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
int thisDiff=-abs(imageColor1.getBrightness()+ofRandom(-50,50));
//int thisDiff=abs(imageColor1.getLightness());
//int thisDiff=-abs(imageColor1.r);
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
differences.push_back(multiplier * thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
+40 -6
View File
@@ -31,6 +31,8 @@ public:
protected: protected:
string quad; string quad;
string fileNameQuad;
bool _RUN_DONE; bool _RUN_DONE;
float _flip, _level; float _flip, _level;
int _animation_cnt1; int _animation_cnt1;
@@ -55,14 +57,46 @@ protected:
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
int algo; ofxCvColorImage cvColorImage1;
int scale; ofxCvColorImage cvColorImage2;
int draw_style; ofxCvColorImage cvColorImage3;
float line_width; ofxCvColorImage cvColorImage4;
float point_size; ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvContourFinder cvContourFinder1;
//this is the temporary container to allow us to convert and save out greyscale images
ofxCvColorImage cvConvertorImage;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
int vertexSubsampling;
int chooseColour;
ofPrimitiveMode meshMode;
ofBlendMode blendMode;
float multiplier;
bool _gotFirstImage;
ofImage _background;
}; };
+653 -67
View File
@@ -13,12 +13,6 @@ using Poco::Thread;
#define NUMBER_RUNS 1 #define NUMBER_RUNS 1
#define ACQUIRE_TIME 30 #define ACQUIRE_TIME 30
const int algo_default = 1;
const int scale_default = 500;
const int draw_style_default = 3;
const int line_width_default = 0.5f;
const float point_size_default = 0.5f;
void StrobeAnalysis::setup(int camWidth, int camHeight) void StrobeAnalysis::setup(int camWidth, int camHeight)
{ {
AbstractAnalysis::setup(camWidth, camHeight); AbstractAnalysis::setup(camWidth, camHeight);
@@ -27,6 +21,28 @@ void StrobeAnalysis::setup(int camWidth, int camHeight)
cout << "NUM_RUN StrobeAnalysis " << NUM_RUN << endl; cout << "NUM_RUN StrobeAnalysis " << NUM_RUN << endl;
//NUM_RUN = 5; //NUM_RUN = 5;
//flag for main sketch
meshIsComplete=false;
_gotFirstImage=false;
_mesh_size_multiplier = 8;
vertexSubsampling = 3;
chooseColour = 2;
multiplier = 4.0;
//blendMode = OF_BLENDMODE_ADD;
//blendMode = OF_BLENDMODE_MULTIPLY;
blendMode = OF_BLENDMODE_SUBTRACT;
//blendMode = OF_BLENDMODE_ALPHA;
//blendMode = OF_BLENDMODE_SCREEN;
//meshMode = OF_PRIMITIVE_TRIANGLES;
//meshMode = OF_PRIMITIVE_TRIANGLE_STRIP;
//meshMode = OF_PRIMITIVE_TRIANGLE_FAN;
meshMode = OF_PRIMITIVE_LINES;
//meshMode = OF_PRIMITIVE_LINE_STRIP;
//meshMode = OF_PRIMITIVE_POINTS;
int acq_run_time; // 10 seconds of acquiring per run int acq_run_time; // 10 seconds of acquiring per run
acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_strobe", ACQUIRE_TIME); acq_run_time = RefractiveIndex::XML.getValue("config:analysis_time:acquiretime_strobe", ACQUIRE_TIME);
cout << "ACQUIRE_TIME StrobeAnalysis " << acq_run_time << endl; cout << "ACQUIRE_TIME StrobeAnalysis " << acq_run_time << endl;
@@ -54,24 +70,47 @@ void StrobeAnalysis::setup(int camWidth, int camHeight)
image1.clear(); image1.clear();
image2.clear(); image2.clear();
image1.clear(); image3.clear();
image2.clear(); image4.clear();
image5.clear();
// images use for drawing the synthesized files to the screen /// // images use for drawing the synthesized files to the screen ///
image1.setUseTexture(false); // the non texture image that is needed to first load the image image1.setUseTexture(false); // the non texture image that is needed to first load the image
image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1 image2.setUseTexture(true); // the image that needs to get written to the screen which takes the content of image1
// images used for re-loading and saving out the synthesized files ///
image3.setUseTexture(false);
image4.setUseTexture(false);
image5.setUseTexture(false);
image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR); image2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image3.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image4.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
image5.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h, OF_IMAGE_COLOR);
// cout << "RefractiveIndex::_vid_w " << RefractiveIndex::_vid_w << endl;
// cout << "RefractiveIndex::_vid_h " << RefractiveIndex::_vid_h << endl;
////--------- // clear() apparently fixes the "OF_WARNING: in allocate, reallocating a ofxCvImage"
// that we're getting in OSX/Windows and is maybe crashing Windows
// http://forum.openframeworks.cc/index.php?topic=1867.0
cvColorImage1.clear();
cvGrayImage1.clear();
cvGrayDiff1.clear();
cvColorImage2.clear();
cvGrayImage2.clear();
cvGrayDiff2.clear();
cvColorImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff1.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvColorImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayImage2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
cvGrayDiff2.allocate(RefractiveIndex::_vid_w,RefractiveIndex::_vid_h);
algo = RefractiveIndex::XML.getValue("config:algorithms:strobe:algo", algo_default);
scale = RefractiveIndex::XML.getValue("config:algorithms:strobe:scale", scale_default);
draw_style = RefractiveIndex::XML.getValue("config:algorithms:strobe:draw_style", draw_style_default);
line_width = RefractiveIndex::XML.getValue("config:algorithms:strobe:line_width", line_width_default);
point_size = RefractiveIndex::XML.getValue("config:algorithms:strobe:point_size", point_size_default);
} }
@@ -108,45 +147,190 @@ void StrobeAnalysis::acquire()
void StrobeAnalysis::synthesise() void StrobeAnalysis::synthesise()
{ {
// we don't need to synthesise // cout << "StrobeAnalysis::saving synthesis...\n";
return;
/*
//cout << "IResponseAnalysis::saving synthesis...\n";
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
_RUN_DONE = false; for(float i=1;i<_saved_filenames_analysis.size()-1;i++){
// cout << "StrobeAnalysis::synthesis FOR LOOP...\n";
// cout << "_saved_filenames_analysis[i]" << _saved_filenames_analysis[i] << endl;
if(_state == STATE_STOP) return;
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image
// cout << "didn't load image" << endl;
}
if(image1.loadImage(_saved_filenames_analysis[i])){
//cout << "LOADED image1!!!" << endl;
if(image5.loadImage(_saved_filenames_analysis[i+1])){
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
cvColorImage1.setFromPixels(image1.getPixels(), image1.width, image1.height);
cvColorImage2.setFromPixels(image5.getPixels(), image5.width, image5.height);
//cvColorImage1.erode();
//cvColorImage1.erode();
//cvColorImage1.dilate();
cvColorImage1.blur(1);
cvColorImage2.blur(1);
//cvXorS( cvColorImage1.getCvImage(), cvScalarAll(150), cvColorImage1.getCvImage(), 0 );
//cvXorS( cvColorImage2.getCvImage(), cvScalarAll(150), cvColorImage1.getCvImage(), 0 );
cvColorImage1.convertToGrayscalePlanarImage(cvGrayImage1, 1);
cvColorImage2.convertToGrayscalePlanarImage(cvGrayImage2, 1);
//cvGrayImage1.convertToRange(0.0, 255.0);
//cvGrayImage2.convertToRange(0.0, 255.0);
//cvGrayImage1.adaptiveThreshold( 200, 0);
//cvGrayImage2.adaptiveThreshold( 200, 0);
//cvGrayImage1.contrastStretch();
//cvGrayImage2.contrastStretch();
cvGrayDiff1.absDiff(cvGrayImage1, cvGrayImage2);
cvGrayDiff1.brightnessContrast(1.0,0.5);
//cvGrayImage1.brightnessContrast(1.0,0.5);
//cvGrayImage2.brightnessContrast(1.0,0.5);
cvColorImage1.setFromGrayscalePlanarImages(cvGrayImage1, cvGrayImage1, cvGrayImage1);
//cvColorImage2.setFromGrayscalePlanarImages(cvGrayImage2, cvGrayImage2, cvGrayImage2);
//cvPyrMeanShiftFiltering(cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), 1, 1);
//cvPyrMeanShiftFiltering(cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), 1, 1);
//cvFloatImage1 = cvColorImage1;
//cvGrayImage1 = cvColorImage1;
//cvSmooth( cvColorImage1.getCvImage(), cvColorImage1.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvSmooth( cvColorImage2.getCvImage(), cvColorImage2.getCvImage(), CV_GAUSSIAN, 5, 5);
//cvCanny(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 100, 100, 3);
//cvLaplace(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0);
//cvGrayImage1 = cvCreateImage(cvSize(image1.width, image1.height),IPL_DEPTH_16S,1);
//cvSobel(cvGrayImage1.getCvImage(), cvGrayImage1.getCvImage(), 0, 1, 3);
// convert the CV image
image1.setFromPixels(cvColorImage1.getPixelsRef());
image5.setFromPixels(cvColorImage2.getPixelsRef());
///////////////////////// PROCESS THE SAVED CAMERA IMAGES OF SHIT TO THE IMAGES //////////////////////////
if(!_gotFirstImage){
cout<<"background image is"<< _saved_filenames_analysis[i]<<endl;
_background=image1;
_gotFirstImage=true;
}
//subtract background begin///////////////
ofPixels imagePixels1 = image1.getPixelsRef();
ofPixels imagePixels2 = image5.getPixelsRef();
ofPixels backgroundPixels = _background.getPixelsRef();
//DIFFERENCING SUBSEQUENT IMAGES
/*
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-imagePixels2[i]>0){
imagePixels1[i]-=imagePixels2[i];
}
else{
imagePixels1[i]=0;
}
}
*/
//DIFFERENCING THE BACKGROUND
for(int i=0;i<imagePixels1.size();i++){
//unsigned char val=imagePixels1[i];
// cout<<(int)backgroundPixels[i]<< " thesePixels[i] "<<(int)imagePixels1[i]<<endl;
if(imagePixels1[i]-backgroundPixels[i]>0){
imagePixels1[i]-=backgroundPixels[i];
}
else{
imagePixels1[i]=0;
}
}
//update the images with their new background subtracted selves
image1.setFromPixels(imagePixels1);
//flag the main app that we aren't read yet
meshIsComplete=false;
//make a mesh - this mesh will be drawn in the main app
setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
//setMeshFromPixels(_returnDepthsAtEachPixel(image1, image1, _background), image1, image1, aMesh);
/////////////////////////////////// SAVE TO DISK IN THE SYNTHESIS FOLDER ////////////////////////////////
//string file_name;
//with jpgs this was refusing to save out
meshFileName = _whole_file_path_synthesis+"/"+ofToString(_synth_save_cnt, 2)+"_StrobeAnalysis_"+ofToString(_run_cnt,2)+".png";
_saved_filenames_synthesis.push_back(meshFileName);
//file_name = ofToString(_synth_save_cnt, 2)+"_ColorMultiAnalysis_"+ofToString(_run_cnt,2)+".jpg";
//flag that we are finished
meshIsComplete=true;
_synth_save_cnt++;
}
} else {
cout<<"couldn't load image from "<<_saved_filenames_analysis[i]<<endl;
}
}
// TOM'S fix of why the last file gets overwritten again and again - but seems to prevent the files being written to the screen.
/*
_RUN_DONE = true;
*/
meshIsComplete=false;
_synth_save_cnt=0;
// _saved_filenames_synthesis has processed all the files in the analysis images folder // _saved_filenames_synthesis has processed all the files in the analysis images folder
while(!_RUN_DONE && _state != STATE_STOP) while(!_RUN_DONE && _state != STATE_STOP)
Thread::sleep(3); Thread::sleep(10);
*/
} }
void StrobeAnalysis::displayresults() void StrobeAnalysis::displayresults()
{ {
for(float i=1;i<_saved_filenames_analysis.size();i++){ for(float i=1;i<_saved_filenames_synthesis.size();i++){
if(_state == STATE_STOP) return; if(_state == STATE_STOP) return;
//cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl; // cout << "_saved_filenames_analysis[i] - " << _saved_filenames_synthesis[i] << endl;
while(!_image_shown){ while(!_image_shown){
Thread::sleep(2); Thread::sleep(2);
//cout << "!_image_shown" << endl; //cout << "!_image_shown" << endl;
} }
_show_image = false; if(!image3.loadImage(_saved_filenames_synthesis[i])){
if(!image1.loadImage(_saved_filenames_analysis[i])){
//couldn't load image //couldn't load image
cout << "didn't load image" << endl; // cout << "didn't load image" << endl;
} }
if(image1.loadImage(_saved_filenames_analysis[i])){ if(image3.loadImage(_saved_filenames_synthesis[i])){
image3.loadImage(_saved_filenames_synthesis[i]);
//cout << "_show_image = true;" << endl; //cout << "_show_image = true;" << endl;
_show_image = true; _show_image = true;
_image_shown = false; _image_shown = false;
@@ -160,6 +344,27 @@ void StrobeAnalysis::displayresults()
void StrobeAnalysis::draw() void StrobeAnalysis::draw()
{ {
ofEnableSmoothing();
ofEnableLighting();
ofEnableSeparateSpecularLight();
light.setPointLight();
light.enable();
lightStatic.enable();
light.setPosition(ofGetWidth()/2,ofGetHeight()/2,5);
lightStatic.setPosition(ofGetWidth()/2,ofGetHeight()/2,-1);
glEnable(GL_DEPTH_TEST);
ofSetLineWidth(1.0f);
glPointSize(5.0f);
ofEnableBlendMode(blendMode);
switch (_state) { switch (_state) {
case STATE_ACQUIRING: case STATE_ACQUIRING:
{ {
@@ -178,7 +383,6 @@ void StrobeAnalysis::draw()
ofRect(0, 0, ofGetWidth(), ofGetHeight()); ofRect(0, 0, ofGetWidth(), ofGetHeight());
//cout << "FADE IN STROBE TIME " << endl; //cout << "FADE IN STROBE TIME " << endl;
} }
if (_frame_cnt >= _fade_in_frames && _frame_cnt < (_frame_cnt_max-_fade_in_frames)){ if (_frame_cnt >= _fade_in_frames && _frame_cnt < (_frame_cnt_max-_fade_in_frames)){
@@ -210,6 +414,7 @@ void StrobeAnalysis::draw()
} }
ofDisableAlphaBlending(); ofDisableAlphaBlending();
} else { } else {
//_state = STATE_SYNTHESISING; //_state = STATE_SYNTHESISING;
_RUN_DONE = true; _RUN_DONE = true;
@@ -306,6 +511,8 @@ void StrobeAnalysis::draw()
case STATE_DISPLAY_RESULTS: case STATE_DISPLAY_RESULTS:
{ {
// cout << "STATE_DISPLAY_RESULTS...\n" << endl;
if (_frame_cnt > 2) if (_frame_cnt > 2)
{ {
_image_shown = true; _image_shown = true;
@@ -314,47 +521,21 @@ void StrobeAnalysis::draw()
_frame_cnt++; _frame_cnt++;
ofEnableAlphaBlending();
glShadeModel(GL_SMOOTH);
glLineWidth(line_width);
glPointSize(point_size);
glEnable(GL_POINT_SMOOTH);
RefractiveIndex::cam.begin();
ofTranslate(tx, ty, tz);
ofRotateX(rx); ofRotateY(ry); ofRotateZ(rz);
glScalef(1.5, 1, 1);
if (_show_image) if (_show_image)
image2.setFromPixels(image1.getPixels(), image1.width, image1.height, OF_IMAGE_COLOR); {
// cout << "_show_image...\n" << endl;
image2.bind(); ofEnableAlphaBlending();
RefractiveIndex::_shader.begin(); ofSetColor(255, 255, 255);
image2.setFromPixels(image3.getPixels(),image3.width,image3.height, OF_IMAGE_COLOR);
image2.draw(0,0, ofGetWidth(), ofGetHeight());
RefractiveIndex::_shader.setUniform1i("algo", algo); ofDisableAlphaBlending();
RefractiveIndex::_shader.setUniform1f("scale", scale);
RefractiveIndex::_shader.setUniform1i("tex0", 0);
switch (draw_style) {
case VERTS:
RefractiveIndex::_mesh_vbo.drawVertices();
break;
case WIRE:
RefractiveIndex::_mesh_vbo.drawWireframe();
break;
case FACE:
RefractiveIndex::_mesh_vbo.drawFaces();
break;
} }
RefractiveIndex::_shader.end(); // display results of the synthesis
_RUN_DONE = true;
image2.unbind();
RefractiveIndex::cam.end();
break; break;
@@ -376,3 +557,408 @@ void StrobeAnalysis::save_cb(Timer& timer)
saveImageAnalysis(file_name); saveImageAnalysis(file_name);
} }
void StrobeAnalysis::setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh){
int x=0;
int y=0;
//get rid of all previous vectors and colours
mesh.clear();
mesh.setMode(meshMode);
ofColor meshColour=ofColor(255,255,255);
//the average z position of the matrix - used later to centre the mesh on the z axis when drawing
float zPlaneAverage=0;
for(int i=0;i<sPixels.size();i++){
zPlaneAverage+=sPixels[i];
}
if (sPixels.size()!=0) {
zPlaneAverage/=sPixels.size();
//cout<<zPlaneAverage<<" zPlaneAverage "<<endl;
}
else{
cout<<"DEPTH FLOAT ARRAY IS EMPTY";
}
if(chooseColour==1){
for(int i=0;i<sPixels.size();i++){
mesh.addColor( currentSecondImage.getColor(x, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y+1));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
mesh.addColor( currentSecondImage.getColor(x, y));
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
mesh.addColor( currentSecondImage.getColor(x+1, y) );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==2){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor = currentSecondImage.getColor(x, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==3){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*(y+1),- sPixels[ (currentSecondImage.getWidth()*(y+1))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*(y+1),- sPixels[(currentSecondImage.getWidth()*(y+1))+x+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*x,_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
mesh.addColor( currentSecondImageColor);
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+1),_mesh_size_multiplier*y,- sPixels[(currentSecondImage.getWidth()*(y))+x +1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==4){
for(int i=0;i<sPixels.size();i++){
ofColor currentSecondImageColor;
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
int randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*((y+randomJitter)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x+randomJitter),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
mesh.addColor( currentSecondImageColor.getBrightness());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x+randomJitter)+1),_mesh_size_multiplier*(y+randomJitter),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) +1 ]));
ofSeedRandom();
currentSecondImageColor.r = ofRandom(0,255);
currentSecondImageColor.g = ofRandom(0,255);
currentSecondImageColor.b = ofRandom(0,255);
randomJitter = ofRandom(0,5);
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
if(chooseColour==5){
for(int i=0;i<sPixels.size();i++){
int randomJitter2 = 0;
int randomJitter = 0;
ofColor currentSecondImageColor;
ofColor currentSecondImageBW;
currentSecondImageColor = currentSecondImage.getColor(x, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*((y)+1),- sPixels[ (currentSecondImage.getWidth()*(y+randomJitter+1))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor(currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1 ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y+1);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*((y)+1),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)+1))+(x+randomJitter)+1] ));
currentSecondImageColor = currentSecondImage.getColor(x, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp());
mesh.addVertex(ofVec3f(_mesh_size_multiplier*(x),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter) ] ));
currentSecondImageColor = currentSecondImage.getColor(x+1, y);
currentSecondImageBW.r = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.g = currentSecondImageColor.getBrightness()+randomJitter2;
currentSecondImageBW.b = currentSecondImageColor.getBrightness()+randomJitter2;
mesh.addColor( currentSecondImageBW.clamp() );
mesh.addVertex(ofVec3f(_mesh_size_multiplier*((x)+1),_mesh_size_multiplier*(y),- sPixels[(currentSecondImage.getWidth()*((y+randomJitter)))+(x+randomJitter)+1 ]));
x=x+vertexSubsampling;
if(x>=currentSecondImage.getWidth()-1){
x=0;
y=y+vertexSubsampling;
//something is going badly wrong with my maths for me to need this HELP TODO fix this - why am I running over the end of the vector?
if(y>=currentSecondImage.getHeight()-1){
break;
}
}
}
}
}
vector<float> StrobeAnalysis::_returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImag){
ofPixels imagePixels1 = image1.getPixelsRef();
//ofPixels imagePixels2 = image2.getPixelsRef();
ofPixels backgroundPixels = backgroundImag.getPixelsRef();
vector<float> differences;
ofPixels difference;
//this unsigned char should be unnecessary - I would have thought - can't you just address the pixel locations in ofPixels directly?
unsigned char * thesePixels = new unsigned char[imagePixels1.getWidth()*imagePixels1.getHeight()*3];
for(int i=0;i<imagePixels1.size();i++){
thesePixels[i]=0;
}
int x=0;
int y=0;
int chooseComparison=1;
//comparison here to find out how close each color is to pure RED / GREEN / BLUE
if(chooseComparison==1){
//for each pixel...
float _maxPossibleDistanceToCentre=ofDist(0,0,imagePixels1.getWidth()/2, imagePixels1.getHeight()/2);
for(int i=0;i<imagePixels1.size();i+=3){
ofColor imageColor1 = imagePixels1.getColor(x, y);
//ofColor colourImage2 = imagePixels2.getColor(x, y);
float _distanceToCentre=ofDist(imagePixels1.getWidth()/2, imagePixels1.getHeight()/2, x, y);
float _presumedBrightness=ofMap(sqrt(_maxPossibleDistanceToCentre)-sqrt(_distanceToCentre), 0, sqrt(_maxPossibleDistanceToCentre), 0, 255);
//int thisDiff=abs(imageColor1.getHue());
//int thisDiff=abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getBrightness()-_presumedBrightness);
int thisDiff=-abs(imageColor1.getBrightness());
//int thisDiff=abs(imageColor1.getLightness());
//int thisDiff=-abs(imageColor1.r);
//cout<<thisDiff<< " thisDiff "<<endl;
//red hue: 0
//green hue: 120
//blue hue: 240
differences.push_back(multiplier * thisDiff);
thesePixels[i]=thisDiff;
thesePixels[i+1]=thisDiff;
thesePixels[i+2]=thisDiff;
x++;
if(x>=imagePixels1.getWidth()){
x=0;
y++;
}
}
}
//difference.setFromPixels(thesePixels,imagePixels1.getWidth(),imagePixels1.getHeight(), 3);
return differences;
}
+36 -6
View File
@@ -41,14 +41,44 @@ protected:
float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max; float c, _frame_cnt, _frame_cnt_max, _anim_cnt_max;
bool _show_image, _image_shown; bool _show_image, _image_shown;
ofImage image1; ofImage image1;
ofImage image2; ofImage image2;
ofImage image3;
ofImage image4;
ofImage image5;
ofImage image6;
ofxCvColorImage cvColorImage1;
ofxCvColorImage cvColorImage2;
ofxCvColorImage cvColorImage3;
ofxCvColorImage cvColorImage4;
ofxCvColorImage cvColorImage5;
ofxCvColorImage cvColorImage6;
ofxCvGrayscaleImage cvGrayDiff1;
ofxCvGrayscaleImage cvGrayDiff2;
ofxCvGrayscaleImage cvGrayImage1;
ofxCvGrayscaleImage cvGrayImage2;
ofxCvGrayscaleImage cvGrayImage3;
ofxCvGrayscaleImage cvGrayImage4;
ofxCvContourFinder cvContourFinder1;
//mesh making function
void setMeshFromPixels(vector<float> sPixels, ofImage currentFirstImage, ofImage currentSecondImage, ofMesh & mesh);
//depth map function
vector<float> _returnDepthsAtEachPixel(ofImage &image1, ofImage &image2, ofImage &backgroundImage);
int vertexSubsampling;
int chooseColour;
ofPrimitiveMode meshMode;
ofBlendMode blendMode;
float multiplier;
bool _gotFirstImage;
ofImage _background;
int algo;
int scale;
int draw_style;
float line_width;
float point_size;
}; };