#include "consts.h" #include #include "gui/MainWindow.h" #include "hurricanedata/datareader.h" #include #include static float* d_volume = nullptr; void getTemperature(std::vector& temperatureData, int idx = 0) { std::string path = "data/trimmed"; // std::string path = "data"; std::string variable = "T"; DataReader dataReader(path, variable); size_t dataLength = dataReader.fileLength(idx); temperatureData.resize(dataLength); dataReader.loadFile(temperatureData.data(), idx); } void getSpeed(std::vector& speedData, int idx = 0) { std::string path = "data/trimmed"; // std::string path = "data"; std::string varU = "U"; std::string varV = "V"; DataReader dataReaderU(path, varU); DataReader dataReaderV(path, varV); size_t dataLength = dataReaderU.fileLength(idx); speedData.resize(dataLength); std::vector uData(dataLength); std::vector vData(dataLength); dataReaderU.loadFile(uData.data(), idx); dataReaderV.loadFile(vData.data(), idx); for (int i = 0; i < dataLength; i++) { speedData[i] = sqrt(uData[i]*uData[i] + vData[i]*vData[i]); } } int main() { std::vector data; getTemperature(data, 301); // 20121028 // getSpeed(data, 254); // 20121028 std::cout << "DATA size: " << data.size() << std::endl; // TODO: Eventually, we should not need to load the volume like this float* hostVolume = new float[VOLUME_WIDTH * VOLUME_HEIGHT * VOLUME_DEPTH]; for (int i = 0; i < VOLUME_WIDTH * VOLUME_HEIGHT * VOLUME_DEPTH; i++) { hostVolume[i] = data[i + 0*VOLUME_DEPTH*VOLUME_HEIGHT*VOLUME_WIDTH]; // Discard missing values if (data[i + 0*VOLUME_DEPTH*VOLUME_HEIGHT*VOLUME_WIDTH] + epsilon >= infty) hostVolume[i] = -infty; } // Reverse the order of hostVolume - why is it upside down anyway? for (int i = 0; i < VOLUME_WIDTH; i++) { for (int j = 0; j < VOLUME_HEIGHT; j++) { for (int k = 0; k < VOLUME_DEPTH/2; k++) { float temp = hostVolume[i + j*VOLUME_WIDTH + k*VOLUME_WIDTH*VOLUME_HEIGHT]; hostVolume[i + j*VOLUME_WIDTH + k*VOLUME_WIDTH*VOLUME_HEIGHT] = hostVolume[i + j*VOLUME_WIDTH + (VOLUME_DEPTH - 1 - k)*VOLUME_WIDTH*VOLUME_HEIGHT]; hostVolume[i + j*VOLUME_WIDTH + (VOLUME_DEPTH - 1 - k)*VOLUME_WIDTH*VOLUME_HEIGHT] = temp; } } } // Allocate + copy data to GPU size_t volumeSize = sizeof(float) * VOLUME_WIDTH * VOLUME_HEIGHT * VOLUME_DEPTH; cudaMalloc((void**)&d_volume, volumeSize); cudaMemcpy(d_volume, hostVolume, volumeSize, cudaMemcpyHostToDevice); copyConstantsToDevice(); // Create the GUI Window window(INITIAL_WINDOW_WIDTH, INITIAL_WINDOW_HEIGHT); int out = window.init(d_volume); // memory management cudaFree(d_volume); delete[] hostVolume; return out; }