#include "connected_layer.h"
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#include "convolutional_layer.h"
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#include "maxpool_layer.h"
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#include "network.h"
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#include "image.h"
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#include "parser.h"
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#include "data.h"
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#include "matrix.h"
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#include "utils.h"
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#include "mini_blas.h"
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#include <time.h>
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#include <stdlib.h>
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#include <stdio.h>
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#define _GNU_SOURCE
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#include <fenv.h>
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void test_convolve()
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{
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image dog = load_image("dog.jpg",300,400);
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printf("dog channels %d\n", dog.c);
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image kernel = make_random_image(3,3,dog.c);
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image edge = make_image(dog.h, dog.w, 1);
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int i;
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clock_t start = clock(), end;
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for(i = 0; i < 1000; ++i){
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convolve(dog, kernel, 1, 0, edge, 1);
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}
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end = clock();
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printf("Convolutions: %lf seconds\n", (float)(end-start)/CLOCKS_PER_SEC);
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show_image_layers(edge, "Test Convolve");
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}
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void test_convolve_matrix()
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{
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image dog = load_image("dog.jpg",300,400);
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printf("dog channels %d\n", dog.c);
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int size = 11;
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int stride = 4;
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int n = 40;
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float *filters = make_random_image(size, size, dog.c*n).data;
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int mw = ((dog.h-size)/stride+1)*((dog.w-size)/stride+1);
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int mh = (size*size*dog.c);
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float *matrix = calloc(mh*mw, sizeof(float));
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image edge = make_image((dog.h-size)/stride+1, (dog.w-size)/stride+1, n);
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int i;
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clock_t start = clock(), end;
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for(i = 0; i < 1000; ++i){
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im2col_cpu(dog.data, dog.c, dog.h, dog.w, size, stride, matrix);
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gemm(0,0,n,mw,mh,1,filters,mh,matrix,mw,1,edge.data,mw);
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}
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end = clock();
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printf("Convolutions: %lf seconds\n", (float)(end-start)/CLOCKS_PER_SEC);
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show_image_layers(edge, "Test Convolve");
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cvWaitKey(0);
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}
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void test_color()
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{
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image dog = load_image("test_color.png", 300, 400);
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show_image_layers(dog, "Test Color");
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}
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void verify_convolutional_layer()
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{
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srand(0);
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int i;
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int n = 1;
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int stride = 1;
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int size = 3;
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float eps = .00000001;
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image test = make_random_image(5,5, 1);
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convolutional_layer layer = *make_convolutional_layer(1,test.h,test.w,test.c, n, size, stride, RELU);
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image out = get_convolutional_image(layer);
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float **jacobian = calloc(test.h*test.w*test.c, sizeof(float));
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forward_convolutional_layer(layer, test.data);
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image base = copy_image(out);
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for(i = 0; i < test.h*test.w*test.c; ++i){
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test.data[i] += eps;
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forward_convolutional_layer(layer, test.data);
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image partial = copy_image(out);
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subtract_image(partial, base);
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scale_image(partial, 1/eps);
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jacobian[i] = partial.data;
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test.data[i] -= eps;
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}
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float **jacobian2 = calloc(out.h*out.w*out.c, sizeof(float));
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image in_delta = make_image(test.h, test.w, test.c);
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image out_delta = get_convolutional_delta(layer);
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for(i = 0; i < out.h*out.w*out.c; ++i){
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out_delta.data[i] = 1;
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backward_convolutional_layer(layer, in_delta.data);
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image partial = copy_image(in_delta);
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jacobian2[i] = partial.data;
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out_delta.data[i] = 0;
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}
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int j;
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float *j1 = calloc(test.h*test.w*test.c*out.h*out.w*out.c, sizeof(float));
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float *j2 = calloc(test.h*test.w*test.c*out.h*out.w*out.c, sizeof(float));
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for(i = 0; i < test.h*test.w*test.c; ++i){
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for(j =0 ; j < out.h*out.w*out.c; ++j){
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j1[i*out.h*out.w*out.c + j] = jacobian[i][j];
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j2[i*out.h*out.w*out.c + j] = jacobian2[j][i];
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printf("%f %f\n", jacobian[i][j], jacobian2[j][i]);
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}
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}
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image mj1 = float_to_image(test.w*test.h*test.c, out.w*out.h*out.c, 1, j1);
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image mj2 = float_to_image(test.w*test.h*test.c, out.w*out.h*out.c, 1, j2);
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printf("%f %f\n", avg_image_layer(mj1,0), avg_image_layer(mj2,0));
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show_image(mj1, "forward jacobian");
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show_image(mj2, "backward jacobian");
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}
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void test_load()
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{
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image dog = load_image("dog.jpg", 300, 400);
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show_image(dog, "Test Load");
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show_image_layers(dog, "Test Load");
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}
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void test_upsample()
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{
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image dog = load_image("dog.jpg", 300, 400);
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int n = 3;
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image up = make_image(n*dog.h, n*dog.w, dog.c);
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upsample_image(dog, n, up);
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show_image(up, "Test Upsample");
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show_image_layers(up, "Test Upsample");
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}
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void test_rotate()
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{
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int i;
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image dog = load_image("dog.jpg",300,400);
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clock_t start = clock(), end;
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for(i = 0; i < 1001; ++i){
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rotate_image(dog);
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}
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end = clock();
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printf("Rotations: %lf seconds\n", (float)(end-start)/CLOCKS_PER_SEC);
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show_image(dog, "Test Rotate");
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image random = make_random_image(3,3,3);
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show_image(random, "Test Rotate Random");
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rotate_image(random);
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show_image(random, "Test Rotate Random");
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rotate_image(random);
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show_image(random, "Test Rotate Random");
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}
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void test_parser()
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{
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network net = parse_network_cfg("test_parser.cfg");
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float input[1];
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int count = 0;
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float avgerr = 0;
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while(++count < 100000000){
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float v = ((float)rand()/RAND_MAX);
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float truth = v*v;
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input[0] = v;
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forward_network(net, input);
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float *out = get_network_output(net);
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float *delta = get_network_delta(net);
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float err = pow((out[0]-truth),2.);
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avgerr = .99 * avgerr + .01 * err;
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if(count % 1000000 == 0) printf("%f %f :%f AVG %f \n", truth, out[0], err, avgerr);
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delta[0] = truth - out[0];
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backward_network(net, input, &truth);
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update_network(net, .001,0,0);
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}
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}
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void test_data()
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{
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char *labels[] = {"cat","dog"};
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data train = load_data_image_pathfile_random("train_paths.txt", 101,labels, 2, 300, 400);
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free_data(train);
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}
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void train_full()
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{
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network net = parse_network_cfg("cfg/imagenet.cfg");
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srand(2222222);
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int i = 0;
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char *labels[] = {"cat","dog"};
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float lr = .00001;
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float momentum = .9;
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float decay = 0.01;
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while(1){
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i += 1000;
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data train = load_data_image_pathfile_random("images/assira/train.list", 1000, labels, 2, 256, 256);
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//image im = float_to_image(256, 256, 3,train.X.vals[0]);
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//visualize_network(net);
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//cvWaitKey(100);
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//show_image(im, "input");
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//cvWaitKey(100);
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//scale_data_rows(train, 1./255.);
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normalize_data_rows(train);
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clock_t start = clock(), end;
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float loss = train_network_sgd(net, train, 1000, lr, momentum, decay);
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end = clock();
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printf("%d: %f, Time: %lf seconds, LR: %f, Momentum: %f, Decay: %f\n", i, loss, (float)(end-start)/CLOCKS_PER_SEC, lr, momentum, decay);
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free_data(train);
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if(i%10000==0){
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char buff[256];
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sprintf(buff, "cfg/assira_backup_%d.cfg", i);
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save_network(net, buff);
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}
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//lr *= .99;
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}
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}
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void test_visualize()
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{
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network net = parse_network_cfg("cfg/voc_imagenet.cfg");
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srand(2222222);
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visualize_network(net);
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cvWaitKey(0);
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}
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void test_full()
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{
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network net = parse_network_cfg("cfg/backup_1300.cfg");
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srand(2222222);
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int i,j;
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int total = 100;
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char *labels[] = {"cat","dog"};
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FILE *fp = fopen("preds.txt","w");
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for(i = 0; i < total; ++i){
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visualize_network(net);
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cvWaitKey(100);
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data test = load_data_image_pathfile_part("images/assira/test.list", i, total, labels, 2, 256, 256);
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image im = float_to_image(256, 256, 3,test.X.vals[0]);
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show_image(im, "input");
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cvWaitKey(100);
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normalize_data_rows(test);
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for(j = 0; j < test.X.rows; ++j){
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float *x = test.X.vals[j];
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forward_network(net, x);
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int class = get_predicted_class_network(net);
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fprintf(fp, "%d\n", class);
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}
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free_data(test);
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}
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fclose(fp);
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}
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void test_cifar10()
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{
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data test = load_cifar10_data("images/cifar10/test_batch.bin");
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scale_data_rows(test, 1./255);
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network net = parse_network_cfg("cfg/cifar10.cfg");
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int count = 0;
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float lr = .000005;
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float momentum = .99;
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float decay = 0.001;
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decay = 0;
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int batch = 10000;
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while(++count <= 10000){
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char buff[256];
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sprintf(buff, "images/cifar10/data_batch_%d.bin", rand()%5+1);
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data train = load_cifar10_data(buff);
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scale_data_rows(train, 1./255);
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train_network_sgd(net, train, batch, lr, momentum, decay);
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//printf("%5f %5f\n",(double)count*batch/train.X.rows, loss);
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float test_acc = network_accuracy(net, test);
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printf("%5f %5f\n",(double)count*batch/train.X.rows/5, 1-test_acc);
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free_data(train);
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}
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}
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void test_vince()
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{
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network net = parse_network_cfg("cfg/vince.cfg");
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data train = load_categorical_data_csv("images/vince.txt", 144, 2);
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normalize_data_rows(train);
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int count = 0;
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float lr = .00005;
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float momentum = .9;
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float decay = 0.0001;
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decay = 0;
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int batch = 10000;
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while(++count <= 10000){
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float loss = train_network_sgd(net, train, batch, lr, momentum, decay);
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printf("%5f %5f\n",(double)count*batch/train.X.rows, loss);
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}
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}
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void test_nist()
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{
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srand(444444);
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srand(888888);
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network net = parse_network_cfg("cfg/nist_basic.cfg");
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data train = load_categorical_data_csv("mnist/mnist_train.csv", 0, 10);
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data test = load_categorical_data_csv("mnist/mnist_test.csv",0,10);
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normalize_data_rows(train);
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normalize_data_rows(test);
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//randomize_data(train);
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int count = 0;
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float lr = .00005;
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float momentum = .9;
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float decay = 0.0001;
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decay = 0;
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//clock_t start = clock(), end;
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int batch = 10000;
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while(++count <= 10000){
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float loss = train_network_sgd(net, train, batch, lr, momentum, decay);
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printf("%5f %5f\n",(double)count*batch/train.X.rows, loss);
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//printf("%5d Training Loss: %lf, Params: %f %f %f, ",count*1000, loss, lr, momentum, decay);
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//end = clock();
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//printf("Time: %lf seconds\n", (float)(end-start)/CLOCKS_PER_SEC);
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//start=end;
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/*
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if(count%5 == 0){
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float train_acc = network_accuracy(net, train);
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fprintf(stderr, "\nTRAIN: %f\n", train_acc);
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float test_acc = network_accuracy(net, test);
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fprintf(stderr, "TEST: %f\n\n", test_acc);
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printf("%d, %f, %f\n", count, train_acc, test_acc);
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//lr *= .5;
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}
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*/
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}
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}
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void test_ensemble()
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{
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int i;
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srand(888888);
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data d = load_categorical_data_csv("mnist/mnist_train.csv", 0, 10);
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normalize_data_rows(d);
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data test = load_categorical_data_csv("mnist/mnist_test.csv", 0,10);
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normalize_data_rows(test);
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data train = d;
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// data *split = split_data(d, 1, 10);
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// data train = split[0];
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// data test = split[1];
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matrix prediction = make_matrix(test.y.rows, test.y.cols);
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int n = 30;
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for(i = 0; i < n; ++i){
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int count = 0;
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float lr = .0005;
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float momentum = .9;
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float decay = .01;
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network net = parse_network_cfg("nist.cfg");
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while(++count <= 15){
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float acc = train_network_sgd(net, train, train.X.rows, lr, momentum, decay);
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printf("Training Accuracy: %lf Learning Rate: %f Momentum: %f Decay: %f\n", acc, lr, momentum, decay );
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lr /= 2;
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}
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matrix partial = network_predict_data(net, test);
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float acc = matrix_accuracy(test.y, partial);
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printf("Model Accuracy: %lf\n", acc);
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matrix_add_matrix(partial, prediction);
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acc = matrix_accuracy(test.y, prediction);
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printf("Current Ensemble Accuracy: %lf\n", acc);
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free_matrix(partial);
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}
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float acc = matrix_accuracy(test.y, prediction);
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printf("Full Ensemble Accuracy: %lf\n", acc);
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}
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void test_random_classify()
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{
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network net = parse_network_cfg("connected.cfg");
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matrix m = csv_to_matrix("train.csv");
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//matrix ho = hold_out_matrix(&m, 2500);
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float *truth = pop_column(&m, 0);
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//float *ho_truth = pop_column(&ho, 0);
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int i;
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clock_t start = clock(), end;
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int count = 0;
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while(++count <= 300){
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for(i = 0; i < m.rows; ++i){
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int index = rand()%m.rows;
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//image p = float_to_image(1690,1,1,m.vals[index]);
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//normalize_image(p);
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forward_network(net, m.vals[index]);
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float *out = get_network_output(net);
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float *delta = get_network_delta(net);
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//printf("%f\n", out[0]);
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delta[0] = truth[index] - out[0];
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// printf("%f\n", delta[0]);
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//printf("%f %f\n", truth[index], out[0]);
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//backward_network(net, m.vals[index], );
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update_network(net, .00001, 0,0);
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}
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//float test_acc = error_network(net, m, truth);
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//float valid_acc = error_network(net, ho, ho_truth);
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//printf("%f, %f\n", test_acc, valid_acc);
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//fprintf(stderr, "%5d: %f Valid: %f\n",count, test_acc, valid_acc);
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//if(valid_acc > .70) break;
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}
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end = clock();
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FILE *fp = fopen("submission/out.txt", "w");
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matrix test = csv_to_matrix("test.csv");
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truth = pop_column(&test, 0);
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for(i = 0; i < test.rows; ++i){
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forward_network(net, test.vals[i]);
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float *out = get_network_output(net);
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if(fabs(out[0]) < .5) fprintf(fp, "0\n");
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else fprintf(fp, "1\n");
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}
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fclose(fp);
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printf("Neural Net Learning: %lf seconds\n", (float)(end-start)/CLOCKS_PER_SEC);
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}
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void test_split()
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{
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data train = load_categorical_data_csv("mnist/mnist_train.csv", 0, 10);
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data *split = split_data(train, 0, 13);
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printf("%d, %d, %d\n", train.X.rows, split[0].X.rows, split[1].X.rows);
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}
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void test_im2row()
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{
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int h = 20;
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int w = 20;
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int c = 3;
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int stride = 1;
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int size = 11;
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image test = make_random_image(h,w,c);
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int mc = 1;
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int mw = ((h-size)/stride+1)*((w-size)/stride+1);
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int mh = (size*size*c);
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int msize = mc*mw*mh;
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float *matrix = calloc(msize, sizeof(float));
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int i;
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for(i = 0; i < 1000; ++i){
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im2col_cpu(test.data, c, h, w, size, stride, matrix);
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//image render = float_to_image(mh, mw, mc, matrix);
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}
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}
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void flip_network()
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{
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network net = parse_network_cfg("cfg/voc_imagenet_orig.cfg");
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save_network(net, "cfg/voc_imagenet_rev.cfg");
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}
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void train_VOC()
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{
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network net = parse_network_cfg("cfg/voc_start.cfg");
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srand(2222222);
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int i = 20;
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char *labels[] = {"aeroplane","bicycle","bird","boat","bottle","bus","car","cat","chair","cow","diningtable","dog","horse","motorbike","person","pottedplant","sheep","sofa","train","tvmonitor"};
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float lr = .00001;
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float momentum = .9;
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float decay = 0.01;
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while(i++ < 1000 || 1){
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data train = load_data_image_pathfile_random("images/VOC2012/val_paths.txt", 1000, labels, 20, 300, 400);
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image im = float_to_image(300, 400, 3,train.X.vals[0]);
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show_image(im, "input");
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visualize_network(net);
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cvWaitKey(100);
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normalize_data_rows(train);
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clock_t start = clock(), end;
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float loss = train_network_sgd(net, train, 1000, lr, momentum, decay);
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end = clock();
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printf("%d: %f, Time: %lf seconds, LR: %f, Momentum: %f, Decay: %f\n", i, loss, (float)(end-start)/CLOCKS_PER_SEC, lr, momentum, decay);
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free_data(train);
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if(i%10==0){
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char buff[256];
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sprintf(buff, "cfg/voc_clean_ramp_%d.cfg", i);
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save_network(net, buff);
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}
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//lr *= .99;
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}
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}
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int voc_size(int x)
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{
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x = x-1+3;
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x = x-1+3;
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x = x-1+3;
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x = (x-1)*2+1;
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x = x-1+5;
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x = (x-1)*2+1;
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x = (x-1)*4+11;
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return x;
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}
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image features_output_size(network net, IplImage *src, int outh, int outw)
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{
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int h = voc_size(outh);
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int w = voc_size(outw);
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fprintf(stderr, "%d %d\n", h, w);
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IplImage *sized = cvCreateImage(cvSize(w,h), src->depth, src->nChannels);
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cvResize(src, sized, CV_INTER_LINEAR);
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image im = ipl_to_image(sized);
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//normalize_array(im.data, im.h*im.w*im.c);
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translate_image(im, -144);
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resize_network(net, im.h, im.w, im.c);
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forward_network(net, im.data);
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image out = get_network_image(net);
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free_image(im);
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cvReleaseImage(&sized);
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return copy_image(out);
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}
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void features_VOC_image_size(char *image_path, int h, int w)
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{
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int j;
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network net = parse_network_cfg("cfg/voc_imagenet.cfg");
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fprintf(stderr, "%s\n", image_path);
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IplImage* src = 0;
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if( (src = cvLoadImage(image_path,-1)) == 0 ) file_error(image_path);
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image out = features_output_size(net, src, h, w);
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for(j = 0; j < out.c*out.h*out.w; ++j){
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if(j != 0) printf(",");
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printf("%g", out.data[j]);
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}
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printf("\n");
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free_image(out);
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cvReleaseImage(&src);
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}
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void visualize_imagenet_topk(char *filename)
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{
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int i,j,k,l;
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int topk = 10;
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network net = parse_network_cfg("cfg/voc_imagenet.cfg");
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list *plist = get_paths(filename);
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node *n = plist->front;
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int h = voc_size(1), w = voc_size(1);
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int num = get_network_image(net).c;
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image **vizs = calloc(num, sizeof(image*));
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float **score = calloc(num, sizeof(float *));
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for(i = 0; i < num; ++i){
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vizs[i] = calloc(topk, sizeof(image));
|
for(j = 0; j < topk; ++j) vizs[i][j] = make_image(h,w,3);
|
score[i] = calloc(topk, sizeof(float));
|
}
|
|
int count = 0;
|
while(n){
|
++count;
|
char *image_path = (char *)n->val;
|
image im = load_image(image_path, 0, 0);
|
n = n->next;
|
if(im.h < 200 || im.w < 200) continue;
|
printf("Processing %dx%d image\n", im.h, im.w);
|
resize_network(net, im.h, im.w, im.c);
|
//scale_image(im, 1./255);
|
translate_image(im, -144);
|
forward_network(net, im.data);
|
image out = get_network_image(net);
|
|
int dh = (im.h - h)/(out.h-1);
|
int dw = (im.w - w)/(out.w-1);
|
//printf("%d %d\n", dh, dw);
|
for(k = 0; k < out.c; ++k){
|
float topv = 0;
|
int topi = -1;
|
int topj = -1;
|
for(i = 0; i < out.h; ++i){
|
for(j = 0; j < out.w; ++j){
|
float val = get_pixel(out, i, j, k);
|
if(val > topv){
|
topv = val;
|
topi = i;
|
topj = j;
|
}
|
}
|
}
|
if(topv){
|
image sub = get_sub_image(im, dh*topi, dw*topj, h, w);
|
for(l = 0; l < topk; ++l){
|
if(topv > score[k][l]){
|
float swap = score[k][l];
|
score[k][l] = topv;
|
topv = swap;
|
|
image swapi = vizs[k][l];
|
vizs[k][l] = sub;
|
sub = swapi;
|
}
|
}
|
free_image(sub);
|
}
|
}
|
free_image(im);
|
if(count%50 == 0){
|
image grid = grid_images(vizs, num, topk);
|
//show_image(grid, "IMAGENET Visualization");
|
save_image(grid, "IMAGENET Grid Single Nonorm");
|
free_image(grid);
|
}
|
}
|
//cvWaitKey(0);
|
}
|
|
void visualize_imagenet_features(char *filename)
|
{
|
int i,j,k;
|
network net = parse_network_cfg("cfg/voc_imagenet.cfg");
|
list *plist = get_paths(filename);
|
node *n = plist->front;
|
int h = voc_size(1), w = voc_size(1);
|
int num = get_network_image(net).c;
|
image *vizs = calloc(num, sizeof(image));
|
for(i = 0; i < num; ++i) vizs[i] = make_image(h, w, 3);
|
while(n){
|
char *image_path = (char *)n->val;
|
image im = load_image(image_path, 0, 0);
|
printf("Processing %dx%d image\n", im.h, im.w);
|
resize_network(net, im.h, im.w, im.c);
|
forward_network(net, im.data);
|
image out = get_network_image(net);
|
|
int dh = (im.h - h)/h;
|
int dw = (im.w - w)/w;
|
for(i = 0; i < out.h; ++i){
|
for(j = 0; j < out.w; ++j){
|
image sub = get_sub_image(im, dh*i, dw*j, h, w);
|
for(k = 0; k < out.c; ++k){
|
float val = get_pixel(out, i, j, k);
|
//printf("%f, ", val);
|
image sub_c = copy_image(sub);
|
scale_image(sub_c, val);
|
add_into_image(sub_c, vizs[k], 0, 0);
|
free_image(sub_c);
|
}
|
free_image(sub);
|
}
|
}
|
//printf("\n");
|
show_images(vizs, 10, "IMAGENET Visualization");
|
cvWaitKey(1000);
|
n = n->next;
|
}
|
cvWaitKey(0);
|
}
|
|
void visualize_cat()
|
{
|
network net = parse_network_cfg("cfg/voc_imagenet.cfg");
|
image im = load_image("data/cat.png", 0, 0);
|
printf("Processing %dx%d image\n", im.h, im.w);
|
resize_network(net, im.h, im.w, im.c);
|
forward_network(net, im.data);
|
|
image out = get_network_image(net);
|
visualize_network(net);
|
cvWaitKey(1000);
|
cvWaitKey(0);
|
}
|
|
void features_VOC_image(char *image_file, char *image_dir, char *out_dir, int flip)
|
{
|
int interval = 4;
|
int i,j;
|
network net = parse_network_cfg("cfg/voc_imagenet.cfg");
|
char image_path[1024];
|
sprintf(image_path, "%s/%s",image_dir, image_file);
|
char out_path[1024];
|
if (flip)sprintf(out_path, "%s%d/%s_r.txt",out_dir, interval, image_file);
|
else sprintf(out_path, "%s%d/%s.txt",out_dir, interval, image_file);
|
printf("%s\n", image_file);
|
FILE *fp = fopen(out_path, "w");
|
if(fp == 0) file_error(out_path);
|
|
IplImage* src = 0;
|
if( (src = cvLoadImage(image_path,-1)) == 0 ) file_error(image_path);
|
if(flip)cvFlip(src, 0, 1);
|
int w = src->width;
|
int h = src->height;
|
int sbin = 8;
|
double scale = pow(2., 1./interval);
|
int m = (w<h)?w:h;
|
int max_scale = 1+floor((double)log((double)m/(5.*sbin))/log(scale));
|
if(max_scale < interval) error("max_scale must be >= interval");
|
image *ims = calloc(max_scale+interval, sizeof(image));
|
|
for(i = 0; i < interval; ++i){
|
double factor = 1./pow(scale, i);
|
double ih = round(h*factor);
|
double iw = round(w*factor);
|
int ex_h = round(ih/4.) - 2;
|
int ex_w = round(iw/4.) - 2;
|
ims[i] = features_output_size(net, src, ex_h, ex_w);
|
|
ih = round(h*factor);
|
iw = round(w*factor);
|
ex_h = round(ih/8.) - 2;
|
ex_w = round(iw/8.) - 2;
|
ims[i+interval] = features_output_size(net, src, ex_h, ex_w);
|
for(j = i+interval; j < max_scale; j += interval){
|
factor /= 2.;
|
ih = round(h*factor);
|
iw = round(w*factor);
|
ex_h = round(ih/8.) - 2;
|
ex_w = round(iw/8.) - 2;
|
ims[j+interval] = features_output_size(net, src, ex_h, ex_w);
|
}
|
}
|
for(i = 0; i < max_scale+interval; ++i){
|
image out = ims[i];
|
fprintf(fp, "%d, %d, %d\n",out.c, out.h, out.w);
|
for(j = 0; j < out.c*out.h*out.w; ++j){
|
if(j != 0)fprintf(fp, ",");
|
float o = out.data[j];
|
if(o < 0) o = 0;
|
fprintf(fp, "%g", o);
|
}
|
fprintf(fp, "\n");
|
free_image(out);
|
}
|
free(ims);
|
fclose(fp);
|
cvReleaseImage(&src);
|
}
|
|
void test_distribution()
|
{
|
IplImage* img = 0;
|
if( (img = cvLoadImage("im_small.jpg",-1)) == 0 ) file_error("im_small.jpg");
|
network net = parse_network_cfg("cfg/voc_features.cfg");
|
int h = img->height/8-2;
|
int w = img->width/8-2;
|
image out = features_output_size(net, img, h, w);
|
int c = out.c;
|
out.c = 1;
|
show_image(out, "output");
|
out.c = c;
|
image input = ipl_to_image(img);
|
show_image(input, "input");
|
CvScalar s;
|
int i,j;
|
image affects = make_image(input.h, input.w, 1);
|
int count = 0;
|
for(i = 0; i<img->height; i += 1){
|
for(j = 0; j < img->width; j += 1){
|
IplImage *copy = cvCloneImage(img);
|
s=cvGet2D(copy,i,j); // get the (i,j) pixel value
|
printf("%d/%d\n", count++, img->height*img->width);
|
s.val[0]=0;
|
s.val[1]=0;
|
s.val[2]=0;
|
cvSet2D(copy,i,j,s); // set the (i,j) pixel value
|
image mod = features_output_size(net, copy, h, w);
|
image dist = image_distance(out, mod);
|
show_image(affects, "affects");
|
cvWaitKey(1);
|
cvReleaseImage(©);
|
//affects.data[i*affects.w + j] += dist.data[3*dist.w+5];
|
affects.data[i*affects.w + j] += dist.data[1*dist.w+1];
|
free_image(mod);
|
free_image(dist);
|
}
|
}
|
show_image(affects, "Origins");
|
cvWaitKey(0);
|
cvWaitKey(0);
|
}
|
|
|
int main(int argc, char *argv[])
|
{
|
//train_full();
|
//test_distribution();
|
//feenableexcept(FE_DIVBYZERO | FE_INVALID | FE_OVERFLOW);
|
|
//test_blas();
|
//test_visualize();
|
//test_gpu_blas();
|
//test_blas();
|
//test_convolve_matrix();
|
// test_im2row();
|
//test_split();
|
//test_ensemble();
|
//test_nist();
|
//test_cifar10();
|
//test_vince();
|
//test_full();
|
//train_VOC();
|
features_VOC_image(argv[1], argv[2], argv[3], 0);
|
features_VOC_image(argv[1], argv[2], argv[3], 1);
|
//features_VOC_image_size(argv[1], atoi(argv[2]), atoi(argv[3]));
|
//visualize_imagenet_features("data/assira/train.list");
|
//visualize_imagenet_topk("data/VOC2012.list");
|
//visualize_cat();
|
//flip_network();
|
//test_visualize();
|
fprintf(stderr, "Success!\n");
|
//test_random_preprocess();
|
//test_random_classify();
|
//test_parser();
|
//test_backpropagate();
|
//test_ann();
|
//test_convolve();
|
//test_upsample();
|
//test_rotate();
|
//test_load();
|
//test_network();
|
//test_convolutional_layer();
|
//verify_convolutional_layer();
|
//test_color();
|
//cvWaitKey(0);
|
return 0;
|
}
|
