*************************************************/
int i,j,k;
- bool directionalityExist = FALSE;
+ boolean directionalityExist = FALSE;
float * lap1 = NULL;
float * dist_accumulator = NULL;
float * tmp_coords = NULL;
int step;
float val;
double old_stress, new_stress;
- bool converged;
+ boolean converged;
int len;
int num_levels;
float *hierarchy_boundaries;
unpackedLap = unpackMatrix(lap2, n);
cMajEnv=initConstrainedMajorization(lap2, n, ordering, levels, num_levels);
- for (converged=false,iterations=0; iterations<maxi && !converged; iterations++) {
+ for (converged=FALSE,iterations=0; iterations<maxi && !converged; iterations++) {
/* First, construct Laplacian of 1/(d_ij*|p_i-p_j|) */
set_vector_val(n, 0, degrees);
int step;
float val;
double old_stress, new_stress = 0;
- bool converged;
+ boolean converged;
int len;
double nsizeScale = 0;
float maxEdgeLen = 0;
lap1 = N_GNEW(lap_length, float);
- for (converged = false, iterations = 0;
+ for (converged = FALSE, iterations = 0;
iterations < maxi && !converged; iterations++) {
/* First, construct Laplacian of 1/(d_ij*|p_i-p_j|) */
fprintf(stderr, "nsizescale=%f,iterations=%d\n",
nsizeScale, iterations);
iterations = 0;
- converged = false;
+ converged = FALSE;
}
if (opt->noverlap == 1 && nsizeScale > 0.001) {
generateNonoverlapConstraints(cMajEnvHor, nsizeScale, coords,
0,
- nsizeScale < 0.5 ? false : true,
+ nsizeScale < 0.5 ? FALSE : TRUE,
opt);
}
if (cMajEnvHor->m > 0) {
}
if (opt->noverlap == 1 && nsizeScale > 0.001) {
generateNonoverlapConstraints(cMajEnvVrt, nsizeScale, coords,
- 1, false, opt);
+ 1, FALSE, opt);
}
if (cMajEnvVrt->m > 0) {
#ifdef MOSEK