int main()
{
int L1 = 500, L2=500, n;
/*printf("Enter the number of sensor nodes\n");
scanf("%d", &n);
*/
n=600;
FILE *fp2;
fp2=fopen("deployment_201506511.txt", "w");
if(fp2==NULL)
{
perror("Error opening file.");
}
FILE *fp1;
fp1=fopen("name.gp", "w");
char string[10000] = "plot[0:500][0:500] \"";
strcat(string, "deployment_201506511.txt");
strcat(string, "\" every ::1 using 1:2");
fprintf(fp1,"%s", string);
fclose(fp1);
generating_random_numbers(n, fp2);
finding_neighbour_sensor_nodes(n);
//printing_neighbour_list(n);
//Finding primitive root of Finite Field GF(q) where q is large prime
int k=4;
long long int primitive_root_g, q;
bool value = false;
while(value!=true)
{
q = oddrand(1, 10000);
value = isPrime(q, k);
if(value==true)
{
primitive_root_g=finding_primitive_root(q);
}
}
printf("Primitie Root: %lld, Prime Number: %lld\n", primitive_root_g, q);
creation_of_matrixG(primitive_root_g, 600, q);
// printing_matrixG(matrix_G, 600, 100);
matrix_D_generation(100, q);
multiply_matrics_matrix_Dmatrix_G(100, 600, q);
creation_of_matrixK_multiplyAG(100, 600, q);
system("gnuplot -p 'name.gp'");
return 0;
}
int main( int argc, char *argv[] )
{
if(argc==4)
{
printf("Enter the no of sensor nodes\n");
int argument_2,argument_3;
char argument_1[100],string[10000]="plot[0:500][0:500] \"";
memset(argument_1, '\0', sizeof(argument_1));
strcpy(argument_1,argv[1]);
strcat(string, argument_1);
strcat(string, "\" every ::1 using 1:2");
scanf("%d",&n);
FILE *fp1;
fp1=fopen("kalpish", "w");
fprintf(fp1,"%s", string);
fclose(fp1);
//fprintf(fp1,"%s", string);
FILE *fp;
fp=fopen(argument_1, "w");
if(fp==NULL)
{
perror("Error opening file.");
}
argument_2=atoi(argv[2]);
argument_3=atoi(argv[3]);
generating_random_numbers(argument_2,fp,argument_3);
finding_physical_and_key_neighbours(argument_2);
//printing_sensor_nodes(argument_2);
simulating_path_key_establishment(argument_2,argument_3);
finding_network_connectivity(argument_2,argument_3);
}
else
{
printf("invalid number of arguments\n");
exit(0);
}
system("gnuplot -p 'kalpish'");
}
int main()
{
int L1 = 500, L2=500;
FILE *fp2;
fp2=fopen("deployment_201506511.txt", "w");
if(fp2==NULL)
{
perror("Error opening file.");
}
FILE *fp1;
fp1=fopen("name.gp", "w");
char string[10000] = "plot[0:500][0:500] \"";
strcat(string, "deployment_201506511.txt");
strcat(string, "\" every ::1 using 1:2");
fprintf(fp1,"%s", string);
fclose(fp1);
generating_random_numbers(totalnodes, fp2);
finding_neighbour_sensor_nodes(totalnodes);
//printing_neighbour_list(n);
//Finding primitive root of Finite Field GF(q) where q is large prime
int k=10;
long long int primitive_root_g, q;
bool value = false;
while(value!=true)
{
q = oddrand(qmin, qmax);
value = isPrime(q, k);
if(value==true)
{
primitive_root_g=finding_primitive_root(q);
}
}
printf("Primitie Root Genarated : %lld, For Prime Number: %lld\n", primitive_root_g, q);
creation_of_matrixG(primitive_root_g, totalnodes, q);
printing_matrixG(matrix_G, 600, 100);
matrix_D_generation(lambda_value, q);
multiply_matrics_matrix_Dmatrix_G(lambda_value, totalnodes, q);
creation_of_matrixK_multiplyAG(lambda_value, totalnodes, q);
//Writing NEIGHBOUR LIST TO FILE
FILE *fp3;
fp3=fopen("keys.txt", "w");
int i, j;
fprintf(fp3, "Physical Neighout List of Sensor Nodes\n");
for(i=0; i<totalnodes; i++)
{
fprintf(fp3, "NL%d : ", i);
for(j=0; j<sensor_node[i].neighbour_size; j++)
{
fprintf(fp3, "%d ", sensor_node[i].phynbr[j]);
}
fprintf(fp3, "\n");
}
fprintf(fp3, "\n");
fprintf(fp3, "Key Neighbours : Key(i,j) of Sensor Nodes\n");
for(i=0; i<totalnodes; i++)
{
fprintf(fp3, "Key(i,j) %d : ", i);
for(j=0; j<sensor_node[i].neighbour_size; j++)
{
fprintf(fp3, "%lld ", matrix_K[i][sensor_node[i].phynbr[j]]);
}
fprintf(fp3, "\n");
}
fclose(fp3);
system("gnuplot -p 'name.gp'");
return 0;
}
