void UI::sortMenu()
{
char choice;
cout << endl;
cout << "Print by: " << endl;
cout << "(U) Unordered" << endl
<< "(A) Alphabetic order" << endl
<< "(R) Reverse alphabetic order" << endl
<< "(B) Year of Birth" << endl
<< "(D) Year of Death" << endl
<< "(M) Return to Menu" << endl
<< "(Q) Quit program " << endl;
cout << "Select a letter: ";
cin >> choice;
switch(choice) {
case 'u':
case 'U': print();
break;
case 'a':
case 'A': cout << endl << "--- Printing by alphabetical order --- " << endl;
core.sortAlpabetFront();
print();
break;
case 'r':
case 'R': cout << endl << "--- Printing by reverse alphabetical order --- " << endl;
core.sortAlpabetBack();
print();
break;
case 'b':
case 'B': cout << endl << "--- Printing by year of Birth --- " << endl;
core.sortByBirthYear();
print();
break;
case 'd':
case 'D': cout << endl << "--- Printing by year of Death --- " << endl;
core.sortByDeathYear();
print();
break;
case 'M':
case 'm': return;
break;
case 'q':
case 'Q': exit(1);
break;
default: errorInput();
sortMenu();
break;
}
sortMenu();
}
void ConvertDuration(const char a[]) {
if (a[1] != '.' || a[2] != '0') {
//printf("%c %c\n", a[1], a[2]);
wrong = 1;
}
para[14] = (a[0] - '0');
if ((para[13] / 9 != (para[13] + para[14]) / 9) && ((para[13] + para[14]) % 9 != 0)) {
//printf("13= %d, 14= %d\n",para[13],para[14]);
wrong = 1;
}
if (wrong) {
errorInput();
}
}
void ConvertTime(const char a[], const char b[]) {
int month = (a[5] - '0') * 10 + (a[6] - '0');//month
int day = (a[8] - '0') * 10 + (a[9] - '0');//day
if (!time_set) {
time_set = ConvertDayNumber(month, day);
}
para[13] = (ConvertDayNumber(month, day) - time_set + 13) * 9 + (b[0] - '0') * 10 + (b[1] - '0') - 9;
int btemp = (b[0] - '0') * 10 + (b[1] - '0');
int bbtemp = ConvertDayNumber(month, day) - time_set + 13;
if (btemp < 9 || btemp >= 18 || bbtemp < 0 || bbtemp > 26) {
//printf("btemp=%d\n",btemp);
wrong = 1;
}
if (wrong) errorInput();
}
void UI::searchMenu()
{
cout << endl;
char choice;
cout << "Search by: " << endl;
cout << "(N) Name" << endl
<< "(G) Gender" << endl
<< "(B) Year of Birth" << endl
<< "(D) Year of Death" << endl
<< "(M) Return to Menu" << endl
<< "(Q) Quit program " << endl;
cout << "Select a letter: ";
cin >> choice;
switch(choice) {
case 'n':
case 'N': searchName(); //<- breyta í core.searchName þegar core hefur það fall
break;
case 'g':
case 'G': searchGender();
break;
case 'b':
case 'B': searchBirth();
break;
case 'd':
case 'D': searchDeath();
break;
case 'M':
case 'm': return; //this->menu();
break;
case 'q':
case 'Q': exit(1);
break;
default: errorInput();
searchMenu();
}
searchMenu();
}
T* StreamlineTexture<T>::fastLIC(const Flow2D& flow, const SimpleTexture<float>& inputTexture,
const size_t textureScaling, const size_t sampling,
const int maxKernelSize, const tgt::vec2& thresholds,
const bool useAdaptiveKernelSize)
{
const tgt::ivec2 inputTexSize(inputTexture.getDimensions().xy());
if (flow.dimensions_ != inputTexSize)
return 0;
StreamlineTexture<T> outputTexture(inputTexSize * static_cast<int>(textureScaling));
const tgt::ivec2& outputTexSize = outputTexture.getDimensions().xy();
const int delta = static_cast<int>(sampling);
const float stepSize = (0.5f / textureScaling);
const float length = static_cast<float>(tgt::max(flow.dimensions_)) * 1.10f;
size_t numStreamlines = 0;
for (int y = 0; y < outputTexSize.y; y += delta) {
for (int x = 0; x < outputTexSize.x; x += delta) {
tgt::ivec2 ir0(x, y);
if (outputTexture[ir0].counter_ > 0)
continue;
// get the coordinates of the pixel in the input texture which corresponds
// to this position in the output texture and calculate its position within
// the flow.
//
tgt::ivec2 r0Input(ir0 / static_cast<int>(textureScaling));
tgt::ivec2 errorInput(0, 0);
tgt::vec2 r0 = flow.slicePosToFlowPos(r0Input, inputTexSize, &errorInput);
const tgt::vec2 v = flow.lookupFlow(r0);
if (v == tgt::vec2::zero)
continue;
// start streamline computation
//
int indexR0 = 0;
std::deque<tgt::vec2> streamlineD =
FlowMath::computeStreamlineRungeKutta(flow, r0, length, stepSize, &indexR0, thresholds);
if (streamlineD.size() <= 1)
continue;
// also determine the round-off error which occurs if the flow positions was
// converted back directly to the coordinates of the output textures.
//
tgt::ivec2 errorOutput(0, 0);
flow.slicePosToFlowPos(ir0, outputTexSize, &errorOutput);
++numStreamlines;
std::vector<tgt::vec2> streamline = FlowMath::dequeToVector(streamlineD);
// copy the streamline for second coordinate conversion
//
std::vector<tgt::vec2> streamlineCopy(streamline);
// convert the streamline into dimensions of the input texture
//
std::vector<tgt::ivec2> streamlineInput =
flow.flowPosToSlicePos(streamline, inputTexSize, errorInput);
// also convert the streamline into dimensions of the output texture
//
std::vector<tgt::ivec2> streamlineOutput =
flow.flowPosToSlicePos(streamlineCopy, outputTexSize, errorOutput);
// calculate initial intensity for the starting pixel
//
int L = maxKernelSize;
if (useAdaptiveKernelSize == true)
L = static_cast<int>(tgt::round(maxKernelSize * (tgt::length(v) / thresholds.y)));
const float k = 1.0f / (((2 * L) + 1));
float intensity0 = k * fastLICIntensity(inputTexture, indexR0, L, streamlineInput);
// determine the affected pixel in the output texture and add the
// initial intensity
//
tgt::ivec2& outputTexCoord = streamlineOutput[indexR0];
outputTexture[outputTexCoord].elem_ += T(intensity0);
++(outputTexture[outputTexCoord].counter_);
// trace streamline in forward direction and update intensity
//
float intensity = intensity0;
int left = indexR0 + L + 1;
int right = indexR0 - L;
const int numPoints = static_cast<int>(streamlineInput.size());
for (int i = (indexR0 + 1); i < numPoints; ++i, ++left, ++right) {
int l = (left >= numPoints) ? (numPoints - 1) : left;
int r = (right <= 0) ? 0 : right;
intensity += (inputTexture[streamlineInput[l]] - inputTexture[streamlineInput[r]]) * k;
outputTexCoord = streamlineOutput[i];
outputTexture[outputTexCoord].elem_ += T(intensity);
++(outputTexture[outputTexCoord].counter_);
} // for (i
// trace streamline in backward direction and update intensity
//
intensity = intensity0;
left = indexR0 - L - 1;
right = indexR0 + L;
for (int i = (indexR0 - 1); i >= 0; --i, --left, --right) {
int l = (left <= 0) ? 0 : left;
int r = (right >= numPoints) ? (numPoints - 1) : right;
intensity += (inputTexture[streamlineInput[l]] - inputTexture[streamlineInput[r]]) * k;
outputTexCoord = streamlineOutput[i];
outputTexture[outputTexCoord].elem_ += T(intensity);
++(outputTexture[outputTexCoord].counter_);
} // for (i
} // for (x
} // for (y
size_t unhitPixels = 0;
const size_t numPixels = outputTexture.getNumElements();
for (size_t i = 0; i < numPixels; ++i) {
if (outputTexture[i].counter_ > 1)
outputTexture[i].elem_ /= static_cast<unsigned char>(outputTexture[i].counter_);
else
if (outputTexture[i].counter_ <= 0)
++unhitPixels;
}
std::cout << "# streamlines = " << numStreamlines << ", # unhit pixels = " << unhitPixels
<< " (" << static_cast<float>(100 * unhitPixels) / static_cast<float>(numPixels) << " %)\n";
T* result = new T[numPixels];
memcpy(result, outputTexture.getData(), sizeof(T) * numPixels);
return result;
}
int coreInput(FILE *stream) {
int isPrint = 0;//whether command is print
int i;
int type = -1;
char t[20];
char *require[13];
char temp[256];
wrong = 0;
for (i = 0; i < 15; i++) {
para[i] = 0;
}
for (i = 0; i < 15; i++) {
require[i] = "";
}
fscanf(stream, "%s", t);
switch (t[3]) {
case 'M'://addMeeting
type = 1;
break;
case 'P':
if (t[0] == 'a') {//addPresentation
type = 2;
} else {//endProgram
int temp2;
for (temp2 = 0; temp2 < 12; temp2++) {
Send(temp2, "E00");
}
return 0;
}
break;
case 'C'://addConference
type = 3;
break;
case 'D'://addDevice
type = 0;
break;
case 'B'://addBatch
break;
case 'n'://PrintSchd
isPrint = 1;
type = -2;
break;
}
i = 0;
fgets(temp, 256 - 1, stream);
int length = strlen(temp);
if (temp[strlen(temp) - 1] != '\n') {
temp[strlen(temp)] = '\0';
} else
temp[length - 1] = '\0';
require[i++] = strtok(temp, " ;-�C");
while (require[i++] = strtok(NULL, " ;\n\0"));
if (type == -1) {//addBatch
int stop = 0;
FILE *f = fopen(require[0], "r");
if (f != NULL) {
while (!stop) {
for (i = 0; i < 256; i++) {
temp[i] = '\0';
}
fgets(temp, 256 - 1, f);
if (temp[strlen(temp) - 1] != '\n') {
temp[strlen(temp)] = '\0';
} else
temp[strlen(temp) - 1] = '\0';
if (strlen(temp) == 0) {
stop = 1;
} else {
FILE *f2 = fopen("inputModuleTemp.bat", "w");
fseek(f2, 0, SEEK_SET);
fwrite(temp, strlen(temp), 1, f2);
fclose(f2);
FILE *f3 = fopen("inputModuleTemp.bat", "r");
coreInput(f3);
}
}
} else printf("You might entered an empty line of command.\n");
} else if (!isPrint) {//add: equipment, date, time, duration, tenant, equipment, equipment
ConvertTime(require[1], require[2]);
if (wrong)goto wrongEnd;
ConvertDuration(require[3]);
if (wrong)goto wrongEnd;
ConvertTenant(require[4]);
ConvertEquipment(require[0]);
int ttemp;
for (ttemp = 5; ttemp < 13; ttemp++) {
if (require[ttemp] && strcmp(require[ttemp], "") != 0)
ConvertEquipment(require[ttemp]);
}
AddRecord(para[0], para[1], para[2], para[3], para[4], para[5], para[6], para[7], para[8], para[9], para[10], para[11], para[12], para[13], para[14], type);
} else {//print
if (strcmp(require[0], "fcfs") == 0) {
SchdFcfs(head);
PrintSchd(head, 1);
} else if (strcmp(require[0], "prio") == 0) {
SchdPrio();
PrintSchd(head, 2);
} else if (strcmp(require[0], "opti") == 0) {
SchdOpti();
} else {
errorInput();
goto wrongEnd;
}
}
if (isPrint)
return 2;
else
return 1;
wrongEnd: {
return 1;
}
}
