remove debugging code

diff --git a/src/Radio/radio.cxx b/src/Radio/radio.cxx
index a16dee5e4dde516b741657d73ced1454f5e5ca0a..994f3aee950138b62bed3333efd56dcbd68d8603 100644 (file)
--- a/src/Radio/radio.cxx
+++ b/src/Radio/radio.cxx
@@ -23,6 +23,7 @@
 #endif
 
 #include <math.h>
+#define NDEBUG
 #include <assert.h>
 #include <stdlib.h>
 #include <deque>
@@ -478,7 +479,7 @@ void FGRadioTransmission::clutterLoss(double freq, double distance_m, double itm
                if (horizons[1] == 0.0) {       //      single horizon: same as above, except pass twice using the highest point
                        int num_points_1st = (int)floor( horizons[0] * itm_elev[0]/ distance_m ); 
                        int num_points_2nd = (int)ceil( (distance_m - horizons[0]) * itm_elev[0] / distance_m ); 
-                       cerr << "Diffraction 1 horizon:: points1: " << num_points_1st << " points2: " << num_points_2nd << endl;
+                       //cerr << "Diffraction 1 horizon:: points1: " << num_points_1st << " points2: " << num_points_2nd << endl;
                        int last = 1;
                        /** perform the first pass */
                        int mat = 0;
@@ -575,8 +576,8 @@ void FGRadioTransmission::clutterLoss(double freq, double distance_m, double itm
                        int num_points_1st = (int)floor( horizons[0] * itm_elev[0] / distance_m ); 
                        int num_points_2nd = (int)floor(horizons[1] * itm_elev[0] / distance_m ); 
                        int num_points_3rd = (int)itm_elev[0] - num_points_1st - num_points_2nd; 
-                       cerr << "Double horizon:: horizon1: " << horizons[0] << " horizon2: " << horizons[1] << " distance: " << distance_m << endl;
-                       cerr << "Double horizon:: points1: " << num_points_1st << " points2: " << num_points_2nd << " points3: " << num_points_3rd << endl;
+                       //cerr << "Double horizon:: horizon1: " << horizons[0] << " horizon2: " << horizons[1] << " distance: " << distance_m << endl;
+                       //cerr << "Double horizon:: points1: " << num_points_1st << " points2: " << num_points_2nd << " points3: " << num_points_3rd << endl;
                        int last = 1;
                        /** perform the first pass */
                        int mat = 0;
@@ -635,7 +636,7 @@ void FGRadioTransmission::clutterLoss(double freq, double distance_m, double itm
                                double grad = fabs(itm_elev[last+1] + clutter_height - itm_elev[num_points_1st + num_points_2nd + 2] + clutter_height) / distance_m;
                                // First Fresnel radius
                                double frs_rad = 548 * sqrt( (j * itm_elev[1] * (num_points_2nd - j) * itm_elev[1] / 1000000) / (  num_points_2nd * itm_elev[1] * freq / 1000) );
-                               //cerr << "Double horizon second pass:: fresnel radius: " << frs_rad << " points2: " << num_points_2nd << " j: " << j << endl;
+                               
                                assert(frs_rad > 0);
                                //double earth_h = distance_m * (distance_m - j * itm_elev[1]) / ( 1000000 * 12.75 * 1.33 );    // K=4/3
                                
@@ -680,7 +681,7 @@ void FGRadioTransmission::clutterLoss(double freq, double distance_m, double itm
                                double grad = fabs(itm_elev[last2+1] + clutter_height - itm_elev[(int)itm_elev[0] + 2] + receiver_height) / distance_m;
                                // First Fresnel radius
                                double frs_rad = 548 * sqrt( (j * itm_elev[1] * (num_points_3rd - j) * itm_elev[1] / 1000000) / (  num_points_3rd * itm_elev[1] * freq / 1000) );
-                               //cerr << "Double horizon third pass:: fresnel radius: " << frs_rad << " points3: " << num_points_3rd << " j: " << j << endl;
+                               
                                assert(frs_rad > 0);
                                
                                //double earth_h = distance_m * (distance_m - j * itm_elev[1]) / ( 1000000 * 12.75 * 1.33 );    // K=4/3