Citra-emu/hwtests
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Remove trailing spaces everywhere.

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This commit is contained in:
Emmanuel Gil Peyrot 2015-03-13 14:24:53 +01:00
parent 0a9445f137
commit 979410ba82
10 changed files with 124 additions and 124 deletions
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4
README.md
View File

@ -1,9 +1,9 @@
# citra-hwtests
# citra-hwtests
[![Travis CI Build Status](https://travis-ci.org/citra-emu/hwtests.svg)](https://travis-ci.org/citra-emu/hwtests)
The beginnings of a homebrew test suite for Citra.
Use send-exec.py to run the tests over the network, without any permanent copying.
Use send-exec.py to run the tests over the network, without any permanent copying.
Press A to run, press START to close.
### Thanks to

4
send-exec.py
View File

@ -8,11 +8,11 @@
import socket
import sys
import time
TCP_IP = '192.168.xx.xx'
TCP_PORT = 9000
MESSAGE = open("hwtests.3dsx", "rb").read();
s = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
s.connect((TCP_IP, TCP_PORT))
s.send(MESSAGE)

2
source/main.cpp
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@ -52,6 +52,6 @@ int main(int argc, char** argv)
gfxExit();
DeinitOutput();
return 0;
}

4
source/tests/cpu/integer.cpp
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@ -43,7 +43,7 @@ static bool Add() {
"ORRVS %[out], %[out], #4\n"
"ORRNE %[out], %[out], #8" : [out] "+r"(badflags), [Rm] "+r"(rm) : [Rn] "r"(rn));
if (badflags != 0)
return false;
return false;
// TODO: ADC, ADCS, ADDW variants.
@ -208,7 +208,7 @@ static bool Usada8() {
asm volatile ("USADA8 %[out], %[Rm], %[Rn], %[Ra]" : [out] "=r"(output) : [Rm] "r"(rm), [Rn] "r"(rn), [Ra] "r"(ra));
SoftAssert(output == 41);
// Absolute value subtraction with accumulator add: abs(0 - 1) + 9
// Absolute value subtraction with accumulator add: abs(0 - 1) + 9
rm = 0;
rn = 1;
ra = 9;

54
source/tests/fs/fs_sdmc.cpp
View File

@ -14,11 +14,11 @@ static bool TestFileCreateDelete(FS_archive sdmcArchive)
Handle fileHandle, fileHandle2;
const static FS_path filePath = FS_makePath(PATH_CHAR, "/test_file_create_delete.txt");
const static FS_path filePath2 = FS_makePath(PATH_CHAR, "/test_file_create_2.txt");
// Create file with OpenFile (not interested in opening the handle)
SoftAssert(FSUSER_OpenFile(NULL, &fileHandle, sdmcArchive, filePath, FS_OPEN_CREATE | FS_OPEN_WRITE, 0) == 0);
FSFILE_Close(fileHandle);
// Make sure the new file exists
SoftAssert(FSUSER_OpenFile(NULL, &fileHandle, sdmcArchive, filePath, FS_OPEN_READ, 0) == 0);
FSFILE_Close(fileHandle);
@ -28,17 +28,17 @@ static bool TestFileCreateDelete(FS_archive sdmcArchive)
// Should fail to make sure the file no longer exists
SoftAssert(FSUSER_OpenFile(NULL, &fileHandle, sdmcArchive, filePath, FS_OPEN_READ, 0) != 0);
FSFILE_Close(fileHandle);
// Create file with CreateFile
SoftAssert(FSUSER_CreateFile(NULL, sdmcArchive, filePath2, 0) == 0);
SCOPE_EXIT({
FSFILE_Close(fileHandle2);
FSUSER_DeleteFile(NULL, sdmcArchive, filePath2);
});
// Make sure the new file exists
SoftAssert(FSUSER_OpenFile(NULL, &fileHandle2, sdmcArchive, filePath2, FS_OPEN_READ, 0) == 0);
// Try and create a file over an already-existing file (Should fail)
SoftAssert(FSUSER_CreateFile(NULL, sdmcArchive, filePath2, 0) != 0);
@ -50,25 +50,25 @@ static bool TestFileRename(FS_archive sdmcArchive)
Handle fileHandle;
const static FS_path filePath = FS_makePath(PATH_CHAR, "/test_file_rename.txt");
const static FS_path newFilePath = FS_makePath(PATH_CHAR, "/test_file_rename_new.txt");
// Create file
FSUSER_CreateFile(NULL, sdmcArchive, filePath, 0);
SoftAssert(FSUSER_RenameFile(NULL, sdmcArchive, filePath, sdmcArchive, newFilePath) == 0);
// Should fail to make sure the old file no longer exists
if (FSUSER_OpenFile(NULL, &fileHandle, sdmcArchive, filePath, FS_OPEN_READ, 0) == 0) {
FSUSER_DeleteFile(NULL, sdmcArchive, filePath);
return false;
}
FSFILE_Close(fileHandle);
// Make sure the new file exists
SoftAssert(FSUSER_OpenFile(NULL, &fileHandle, sdmcArchive, newFilePath, FS_OPEN_READ, 0) == 0);
FSFILE_Close(fileHandle);
SoftAssert(FSUSER_DeleteFile(NULL, sdmcArchive, newFilePath) == 0);
return true;
}
@ -78,17 +78,17 @@ static bool TestFileWriteRead(FS_archive sdmcArchive)
u32 bytesWritten;
u32 bytesRead;
u64 fileSize;
const static FS_path filePath = FS_makePath(PATH_CHAR, "/test_file_write_read.txt");
const static char* stringWritten = "A string\n";
// Create file
FSUSER_OpenFile(NULL, &fileHandle, sdmcArchive, filePath, FS_OPEN_CREATE | FS_OPEN_WRITE, 0);
SCOPE_EXIT({ // Close and delete file no matter what happens
FSFILE_Close(fileHandle);
FSUSER_DeleteFile(NULL, sdmcArchive, filePath);
});
// Write to file
SoftAssert(FSFILE_Write(fileHandle, &bytesWritten, 0, stringWritten, strlen(stringWritten)+1, FS_WRITE_FLUSH) == 0);
// Verify string size
@ -98,13 +98,13 @@ static bool TestFileWriteRead(FS_archive sdmcArchive)
SoftAssert(FSFILE_GetSize(fileHandle, &fileSize) == 0);
// Verify file size
SoftAssert(fileSize == bytesWritten);
std::unique_ptr<char> stringRead(new char[fileSize]);
// Read from file
SoftAssert(FSFILE_Read(fileHandle, &bytesRead, 0, stringRead.get(), fileSize) == 0);
// Verify string contents
SoftAssert(strcmp(stringRead.get(), stringWritten) == 0);
return true;
}
@ -112,20 +112,20 @@ static bool TestDirCreateDelete(FS_archive sdmcArchive)
{
Handle dirHandle;
const static FS_path dirPath = FS_makePath(PATH_CHAR, "/test_dir_create_delete");
// Create directory
SoftAssert(FSUSER_CreateDirectory(NULL, sdmcArchive, dirPath) == 0);
// Make sure the new dir exists
SoftAssert(FSUSER_OpenDirectory(NULL, &dirHandle, sdmcArchive, dirPath) == 0);
FSDIR_Close(dirHandle);
SoftAssert(FSUSER_DeleteDirectory(NULL, sdmcArchive, dirPath) == 0);
// Should fail to make sure the dir no longer exists
SoftAssert(FSUSER_OpenDirectory(NULL, &dirHandle, sdmcArchive, dirPath) != 0);
FSDIR_Close(dirHandle);
return true;
}
@ -134,25 +134,25 @@ static bool TestDirRename(FS_archive sdmcArchive)
Handle dirHandle;
const static FS_path dirPath = FS_makePath(PATH_CHAR, "/test_dir_rename");
const static FS_path newDirPath = FS_makePath(PATH_CHAR, "/test_dir_rename_new");
// Create dir
FSUSER_CreateDirectory(NULL, sdmcArchive, dirPath);
SoftAssert(FSUSER_RenameDirectory(NULL, sdmcArchive, dirPath, sdmcArchive, newDirPath) == 0);
// Should fail to make sure the old dir no longer exists
if (FSUSER_OpenDirectory(NULL, &dirHandle, sdmcArchive, dirPath) == 0) {
FSUSER_DeleteDirectory(NULL, sdmcArchive, dirPath);
return false;
}
FSDIR_Close(dirHandle);
// Make sure the new dir exists
SoftAssert(FSUSER_OpenDirectory(NULL, &dirHandle, sdmcArchive, newDirPath) == 0);
FSDIR_Close(dirHandle);
SoftAssert(FSUSER_DeleteDirectory(NULL, sdmcArchive, newDirPath) == 0);
return true;
}

4
source/tests/fs/fs_sdmc.h
View File

@ -2,8 +2,8 @@
namespace FS {
namespace SDMC {
void TestAll();
}
}

142
source/tests/gpu/displaytransfer.cpp
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@ -5,10 +5,10 @@
#include "common/string_funcs.h"
#include "tests/test.h"
#include "tests/gpu/displaytransfer.h"
namespace GPU {
namespace DisplayTransfer {
enum PixelFormat {
IN_RGBA8 = 0 << 8,
IN_RGB8 = 1 << 8,
@ -20,7 +20,7 @@ enum PixelFormat {
OUT_RGB565 = 2 << 12,
OUT_RGB5A1 = 3 << 12,
OUT_RGBA4 = 4 << 12,
};
};
enum Flags {
LINEAR_TO_TILED = 1 << 1,
@ -36,7 +36,7 @@ union Dimensions {
u16 width;
} dims;
u32 raw;
Dimensions(u16 height, u16 width) {
dims.height = height;
dims.width = width;
@ -58,37 +58,37 @@ static void DisplayTransferAndWait(u32* input, u32* output, Dimensions input_dim
static bool RGBA4_To_RGB5A1(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xF000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA4 | OUT_RGB5A1);
TestEquals(*output, (u32)0xF800);
// Test Green Input
*input = 0x0F00; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA4 | OUT_RGB5A1);
TestEquals(*output, (u32)0x07C0);
// Test Blue Input
*input = 0x00F0; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA4 | OUT_RGB5A1);
TestEquals(*output, (u32)0x003E);
// Test 15 Alpha Input
*input = 0x000F; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA4 | OUT_RGB5A1);
TestEquals(*output, (u32)0x0001);
// Test 8 Alpha Input
*input = 0x0008; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA4 | OUT_RGB5A1);
TestEquals(*output, (u32)0x0001);
// Test 7 Alpha Input
*input = 0x0007; //Input
*output = 0; //Output
@ -100,7 +100,7 @@ static bool RGBA4_To_RGB5A1(u32* input, u32* output) {
static bool RGBA8_To_RGBA8(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
//Test Red Input
*input = 0xFF000000; //Input
*output = 0; //Output
@ -130,7 +130,7 @@ static bool RGBA8_To_RGBA8(u32* input, u32* output) {
static bool RGBA8_To_RGB8(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
//Test Red Input
*input = 0xFF000000; //Input
*output = 0; //Output
@ -160,7 +160,7 @@ static bool RGBA8_To_RGB8(u32* input, u32* output) {
static bool RGBA8_To_RGB565(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
//Test Red Input
*input = 0xFF000000; //Input
*output = 0; //Output
@ -190,49 +190,49 @@ static bool RGBA8_To_RGB565(u32* input, u32* output) {
static bool RGBA8_To_RGB5A1(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xFF000000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGB5A1);
TestEquals(*output, (u32)0xF800);
// Test Green Input
*input = 0x00FF0000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x07C0);
// Test Blue Input
*input = 0x0000FF00; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x003E);
// Test 255 Alpha Input
*input = 0x000000FF; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x0001);
// Test 100 Alpha Input
*input = 0x00000064; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x0000);
// Test 127 Alpha Input
*input = 0x0000007F; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x0000);
// Test 128 Alpha Input
*input = 0x00000080; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x0001);
// Test 254 Alpha Input
*input = 0x000000FE; //Input
*output = 0; //Output
@ -240,53 +240,53 @@ static bool RGBA8_To_RGB5A1(u32* input, u32* output) {
TestEquals(*output, (u32)0x0001);
return true;
}
static bool RGBA8_To_RGBA4(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xFF000000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA4);
TestEquals(*output, (u32)0xF000);
// Test Green Input
*input = 0x00FF0000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA4);
TestEquals(*output, (u32)0x0F00);
// Test Blue Input
*input = 0x0000FF00; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA4);
TestEquals(*output, (u32)0x00F0);
// Test 255 Alpha Input
*input = 0x000000FF; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA4);
TestEquals(*output, (u32)0x000F);
// Test 100 Alpha Input
*input = 0x00000064; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA4);
TestEquals(*output, (u32)0x0006);
// Test 127 Alpha Input
*input = 0x0000007F; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA4);
TestEquals(*output, (u32)0x0007);
// Test 128 Alpha Input
*input = 0x00000080; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA4);
TestEquals(*output, (u32)0x0008);
// Test 254 Alpha Input
*input = 0x000000FE; //Input
*output = 0; //Output
@ -298,7 +298,7 @@ static bool RGBA8_To_RGBA4(u32* input, u32* output) {
static bool RGB8_To_RGB8(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
//Test Red Input
*input = 0xFF0000; //Input
*output = 0; //Output
@ -322,7 +322,7 @@ static bool RGB8_To_RGB8(u32* input, u32* output) {
static bool RGB8_To_RGB565(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
//Test Red Input
*input = 0xFF0000; //Input
*output = 0; //Output
@ -349,25 +349,25 @@ static bool RGB8_To_RGB565(u32* input, u32* output) {
static bool RGB8_To_RGB5A1(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xFF0000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGB5A1);
TestEquals(*output, (u32)0xF801);
// Test Green Input
*input = 0x00FF00; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x07C1);
// Test Blue Input
*input = 0x0000FF; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGB5A1);
TestEquals(*output, (u32)0x003F);
*input = 0x000000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGB5A1);
@ -378,25 +378,25 @@ static bool RGB8_To_RGB5A1(u32* input, u32* output) {
static bool RGB8_To_RGBA4(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xFF0000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGBA4);
TestEquals(*output, (u32)0xF00F);
// Test Green Input
*input = 0x00FF00; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGBA4);
TestEquals(*output, (u32)0x0F0F);
// Test Blue Input
*input = 0x0000FF; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGBA4);
TestEquals(*output, (u32)0x00FF);
*input = 0x000000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB8 | OUT_RGBA4);
@ -407,25 +407,25 @@ static bool RGB8_To_RGBA4(u32* input, u32* output) {
static bool RGB5A1_To_RGB5A1(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xF800; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGB5A1);
TestEquals(*output, (u32)0xF800);
// Test Green Input
*input = 0x07C0; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGB5A1);
TestEquals(*output, (u32)0x07C0);
// Test Blue Input
*input = 0x003E; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGB5A1);
TestEquals(*output, (u32)0x003E);
// Test Alpha Input
*input = 0x0001; //Input
*output = 0; //Output
@ -437,25 +437,25 @@ static bool RGB5A1_To_RGB5A1(u32* input, u32* output) {
static bool RGB5A1_To_RGB565(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xF800; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGB565);
TestEquals(*output, (u32)0xF800);
// Test Green Input
*input = 0x07C0; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGB565);
TestEquals(*output, (u32)0x07E0);
// Test Blue Input
*input = 0x003E; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGB565);
TestEquals(*output, (u32)0x001F);
// Test Alpha Input
*input = 0x0001; //Input
*output = 0; //Output
@ -467,25 +467,25 @@ static bool RGB5A1_To_RGB565(u32* input, u32* output) {
static bool RGB5A1_To_RGBA4(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
// Test Red Input
*input = 0xF800; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGBA4);
TestEquals(*output, (u32)0xF000);
// Test Green Input
*input = 0x07C0; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGBA4);
TestEquals(*output, (u32)0x0F00);
// Test Blue Input
*input = 0x003E; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGB5A1 | OUT_RGBA4);
TestEquals(*output, (u32)0x00F0);
// Test Alpha Input
*input = 0x0001; //Input
*output = 0; //Output
@ -497,37 +497,37 @@ static bool RGB5A1_To_RGBA4(u32* input, u32* output) {
static bool RGBA8_To_RGBA8_Scaled_Blending(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
*input = 0xFF000000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA8 | HORIZONTAL_DOWNSCALE);
TestEquals(*output, (u32)0x7F000000);
// It doesn't average the pixels when the bit 24 isn't enabled
*input = 0xFF000000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA8);
TestEquals(*output, (u32)0xFF000000);
*input = 0xFFFF0000; //Input
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA8 | HORIZONTAL_DOWNSCALE);
TestEquals(*output, (u32)0x7F7F0000);
*input = 0xFFFF0000; //Input
input[1] = 0xFF000000;
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA8 | HORIZONTAL_DOWNSCALE);
input[1] = 0;
TestEquals(*output, (u32)0xFF7F0000);
*input = 0xFFFF0000; //Input
input[1] = 0xFF0000FF;
*output = 0; //Output
DisplayTransferAndWait(input, output, Dimensions(0x80, 0x80), Dimensions(0x80, 0x80), IN_RGBA8 | OUT_RGBA8 | HORIZONTAL_DOWNSCALE);
input[1] = 0;
TestEquals(*output, (u32)0xFF7F007F);
*input = 0xFFFF0000; //Input
input[1] = 0x00FF0000; //Input
input[2] = 0xFF000000;
@ -538,7 +538,7 @@ static bool RGBA8_To_RGBA8_Scaled_Blending(u32* input, u32* output) {
TestEquals(*output, (u32)0x7FFF0000);
TestEquals(output[0x40], (u32)0x7F000000);
output[0x40] = 0;
// Double downscale downscales the input in both directions (horizontal and vertical)
*input = 0xFFFF0000; //Input
input[1] = 0xFF0000FF;
@ -558,7 +558,7 @@ static bool RGBA8_To_RGB8_Different_Sizes(u32*, u32*) {
});
memset(input, 0, 0x200 * 0x190 * 4);
memset(output, 0, 0xF0 * 0x190 * 4);
//Test Red Input
*input = 0xFF000000; //Input
input[0x200 * 0x190 - 1] = 0x0000FF00;
@ -569,7 +569,7 @@ static bool RGBA8_To_RGB8_Different_Sizes(u32*, u32*) {
// Test that it doesn't do any sort of stretching.
TestEquals(output[0xF0 * 0x190 - 1], (u32)0);
TestEquals(output[0x1193F], (u32)0x00FF0000u); // Why here?
//Test Green Input
*input = 0x00FF0000; //Input
*output = 0; //Output
@ -593,7 +593,7 @@ static bool RGBA8_To_RGB8_Different_Sizes(u32*, u32*) {
static bool Test_ZCurve(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
input[1] = 0xABCDE;
input[2] = 0xDEF00;
input[13] = 0xAAAAAA;
@ -607,10 +607,10 @@ static bool Test_ZCurve(u32* input, u32* output) {
TestEquals(output[0 * 0x80 + 1], (u32)0xABCDEu);
TestEquals(output[1 * 0x80 + 0], (u32)0xDEF00u);
TestEquals(output[2 * 0x80 + 3], (u32)0xAAAAAA);
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
input[0 * 0x80 + 1] = 0xABCDE;
input[1 * 0x80 + 0] = 0xDEF00;
input[2 * 0x80 + 3] = 0xAAAAAA;
@ -625,7 +625,7 @@ static bool Test_ZCurve(u32* input, u32* output) {
static bool Test_Flags_Bit_16(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
input[1] = 0xABCDE;
input[2] = 0xDEF00;
input[13] = 0xAAAAAA;
@ -646,7 +646,7 @@ static bool Test_Flags_Bit_16(u32* input, u32* output) {
static bool Test_Raw_Copy(u32* input, u32* output) {
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
input[1] = 0xABCDE;
input[2] = 0xDEF00;
input[13] = 0xAAAAAA;
@ -656,10 +656,10 @@ static bool Test_Raw_Copy(u32* input, u32* output) {
TestEquals(output[1], (u32)0xABCDEu);
TestEquals(output[2], (u32)0xDEF00u);
TestEquals(output[13], (u32)0xAAAAAA);
memset(output, 0, 0x4000 * 4);
memset(input, 0, 0x4000 * 4);
input[1] = 0xABCDE;
input[2] = 0xDEF00;
input[13] = 0xAAAAAA;
@ -674,10 +674,10 @@ static bool Test_Raw_Copy(u32* input, u32* output) {
void TestAll() {
const std::string tag = "DisplayTransfer";
u32* input = (u32*)linearAlloc(0x4000 * 4);
u32* output = (u32*)linearAlloc(0x4000 * 4);
// RGBA8 -> X tests
Test(tag, "RGBA8_To_RGBA8", RGBA8_To_RGBA8(input, output), true);
Test(tag, "RGBA8_To_RGB8", RGBA8_To_RGB8(input, output), true);
@ -701,7 +701,7 @@ void TestAll() {
Test(tag, "Test_ZCurve", Test_ZCurve(input, output), true);
Test(tag, "Test_Raw_Copy", Test_Raw_Copy(input, output), true);
Test(tag, "Test_Flags_Bit_16", Test_Flags_Bit_16(input, output), true);
linearFree(input);
linearFree(output);
}

4
source/tests/gpu/gpu.cpp
View File

@ -4,11 +4,11 @@
#include "tests/gpu/memoryfills.h"
namespace GPU {
void TestAll() {
// Initialize GPU
GPU_Init(nullptr);
DisplayTransfer::TestAll();
MemoryFills::TestAll();
}

18
source/tests/gpu/memoryfills.cpp
View File

@ -5,7 +5,7 @@
#include "common/string_funcs.h"
#include "tests/test.h"
#include "tests/gpu/memoryfills.h"
namespace GPU {
namespace MemoryFills {
@ -33,7 +33,7 @@ static bool Fill32Bits(u8* buffer) {
TestEquals(buffer[48], 0x00u);
TestEquals(buffer[49], 0x00u);
TestEquals(buffer[49], 0x00u);
FillAndWait(buffer, 0x0000FFFF, 48, 0x201, false);
TestEquals(buffer[0], 0xFFu);
TestEquals(buffer[1], 0xFFu);
@ -43,7 +43,7 @@ static bool Fill32Bits(u8* buffer) {
TestEquals(buffer[5], 0xFFu);
TestEquals(buffer[6], 0x00u);
TestEquals(buffer[7], 0x00u);
return true;
}
@ -60,30 +60,30 @@ static bool Fill24Bits(u8* buffer) {
TestEquals(buffer[48], 0x00u);
TestEquals(buffer[49], 0x00u);
TestEquals(buffer[49], 0x00u);
FillAndWait(buffer, 0xFFFFFFFF, 48, 0x101);
TestEquals(buffer[0], 0xFFu);
TestEquals(buffer[1], 0xFFu);
TestEquals(buffer[2], 0xFFu);
TestEquals(buffer[3], 0xFFu);
FillAndWait(buffer, 0x00FFFF00, 48, 0x101);
TestEquals(buffer[0], 0x00u);
TestEquals(buffer[1], 0xFFu);
TestEquals(buffer[2], 0xFFu);
TestEquals(buffer[3], 0x00u);
return true;
}
void TestAll() {
const std::string tag = "MemoryFills";
u8* buffer = (u8*)vramAlloc(0x400);
Test(tag, "Fill24Bits", Fill24Bits(buffer), true);
Test(tag, "Fill32Bits", Fill32Bits(buffer), true);
vramFree(buffer);
}

12
source/tests/kernel/waitsynch.cpp
View File

@ -481,7 +481,7 @@ bool Test_WaitSynchN_17() {
res = svcWaitSynchronizationN(&output, mutexes, 1, 0, ONE_SECOND / 2);
SoftAssert(output == -1);
SoftAssert(res == ERR_TIMEOUT);
// Make sure we do get mutex 1
res = svcWaitSynchronizationN(&output, mutexes, 2, 0, U64_MAX);
SoftAssert(output == 1);
@ -557,7 +557,7 @@ bool Test_WaitSynchN_18() {
}
// WaitSynchN wait_all=true; unlocked mutex0, unlocked mutex1; Make sure both mutexes are locked and
// it does not wait
// it does not wait
void thread6_handler(void*) {
s32 output = 0;
@ -656,7 +656,7 @@ void thread8_handler(void*) {
}
// WaitSynchN wait_all=true; signaled event0, unlocked mutex0; Make sure mutex0 locks and it does
// not wait
// not wait
bool Test_WaitSynchN_21() {
s32 output = 0;
@ -923,10 +923,10 @@ void thread12_handler(void*)
{
svcWaitSynchronization(mutexes[0], U64_MAX);
svcSignalEvent(events[0]);
svcSleepThread(ONE_SECOND/2);
svcReleaseMutex(mutexes[0]);
svcWaitSynchronization(events[1], U64_MAX);
svcExitThread();
}
@ -1129,7 +1129,7 @@ void TestAll() {
svcCloseHandle(events[1]);
svcCloseHandle(events[2]);
svcCloseHandle(events[3]);
svcCloseHandle(mutexes[0]);
svcCloseHandle(mutexes[1]);