/*
Get input from the keyboard until the symbol ‘@’ is encountered.
Convert the char data input from the keyboard to an integer be
Sure to account for the sign of the number. If no sign is used
always assume the number is positive.
*/
void main() {
reset(1, 0, 0, 0); // Reset globals
getdata(); // Get data
while (c[0] != '@') { // Check for stop symbol '@'
if (c[0] == '+' || c[0] == '-') { // Determine sign
getdata(); // Get most significant byte
} else { // Default sign is '+'
c[1] = c[0]; // Make room for the sign
c[0] = '+';
cnt++;
}
while(data) { // Loop while there is data to process
if (c[cnt-1] == '\n') { // Process data now
data = 0;
tenth = 1;
cnt = cnt - 2;
while (!flag && cnt != 0) { // Compute a number
opd(c[0], tenth, c[cnt]);
cnt--;
tenth *= 10;
}
if (!flag) // Good number entered
printf("Operand is %d\n", opdv);
}
else
getdata(); // Get next byte of data
}
reset(1, 0, 0, 0); // Reset globals
getdata(); // Get data
}
}
int AlignCD(char segm, int val) //выравнять данные или код
{
unsigned int a;
a = (segm == DS ? outptrdata : outptr) % val;
if (a == 0)
{
val = 0;
}
else
{
val -= a;
}
a = 0;
while (val != 0)
{
segm == DS ? opd(aligner) : op(0x90);
val--;
a++;
}
return a;
}
void OpticalVortex::GetOpticalPathLengthDiff(double image_height,
double angle,
Mat_<double>* output) const {
ZernikeWavefrontError(image_height, angle, output);
Mat_<double>& opd = *output;
const size_t kSize = opd.rows;
const double kHalfSize = kSize / 2.0;
const double kHalfSize2 = kHalfSize * kHalfSize;
const double kPrimaryR2 = 1;
const double kNumCycles = vortex_params_.num_cycles();
const double k2Pi = 2 * M_PI;
for (size_t i = 0; i < kSize; i++) {
double y = i - kHalfSize;
for (size_t j = 0; j < kSize; j++) {
double x = j - kHalfSize;
double r2 = (x*x + y*y) / kHalfSize2;
if (r2 < kPrimaryR2) {
double phase = atan2(y, x) / k2Pi;
if (phase < 0) phase += 1;
opd(i, j) += phase * kNumCycles;
}
}
}
}
void Axicon::GetOpticalPathLengthDiff(double image_height,
double angle,
Mat_<double>* output) const {
ZernikeWavefrontError(image_height, angle, output);
Mat_<double>& opd = *output;
const size_t kSize = opd.rows;
const double kHalfSize = kSize / 2.0;
const double kHalfSize2 = kHalfSize * kHalfSize;
const double kPrimaryR2 = 1;
const double kNumCycles = axicon_params_.num_cycles();
for (size_t i = 0; i < kSize; i++) {
double y = i - kHalfSize;
for (size_t j = 0; j < kSize; j++) {
double x = j - kHalfSize;
double r2 = (x*x + y*y) / kHalfSize2;
opd(i, j) += (r2 < kPrimaryR2) ? sqrt(r2) * kNumCycles : 0;
}
}
}