CodeCow/Notepad3
1
0
Fork 0
mirror of https://github.com/rizonesoft/Notepad3.git synced 2026-06-14 21:09:05 +08:00
Code Issues Actions 1 Packages Projects Releases Wiki Activity
73d98a95ae
Notepad3/src/Helpers.c

2285 lines
66 KiB
C
Raw Blame History

// encoding: UTF-8
/******************************************************************************
* *
* *
* Notepad3 *
* *
* Helpers.c *
* General helper functions *
* Based on code from Notepad2, (c) Florian Balmer 1996-2011 *
* Parts taken from SciTE, (c) Neil Hodgson *
* MinimizeToTray, (c) 2000 Matthew Ellis *
* *
* (c) Rizonesoft 2008-2023 *
* https://rizonesoft.com *
* *
* *
*******************************************************************************/
#include <shlobj.h>
#include <shellapi.h>
#include <ctype.h>
#include <wchar.h>
#include "Helpers.h"
#include "PathLib.h"
#include "Edit.h"
#include "Encoding.h"
#include "MuiLanguage.h"
#include "Notepad3.h"
#include "Dialogs.h"
#include "Config/Config.h"
#include "DarkMode/DarkMode.h"
#include "Version.h"
#pragma warning(push)
#pragma warning(disable : 4201) // union/struct w/o name
#include "tinyexpr/tinyexpr.h"
//#include "tinyexprcpp/tinyexpr_cif.h"
#pragma warning(pop)
#include "Scintilla.h"
//=============================================================================
#if (defined(_DEBUG) || defined(DEBUG)) && !defined(NDEBUG)
void DbgLog(const wchar_t *fmt, ...)
{
static wchar_t buf[2048] = { 0 };
va_list va;
va_start(va, fmt);
wvnsprintfW(buf, COUNTOF(buf), fmt, va);
va_end(va);
OutputDebugStringW(buf);
}
#endif
//=============================================================================
//
// Cut of substrings defined by pattern
//
CHAR* StrCutIA(CHAR* s,const CHAR* pattern)
{
CHAR* p = NULL;
do {
p = StrStrIA(s,pattern);
if (p) {
CHAR* q = p + StringCchLenA(pattern,0);
while (*p != '\0') {
*p++ = *q++;
}
}
} while (p);
return s;
}
WCHAR* StrCutIW(WCHAR* s,const WCHAR* pattern)
{
WCHAR* p = NULL;
do {
p = StrStrIW(s,pattern);
if (p) {
WCHAR* q = p + StringCchLenW(pattern,0);
while (*p != L'\0') {
*p++ = *q++;
}
}
} while (p);
return s;
}
//=============================================================================
//=============================================================================
//
// StrDelChrA()
//
bool StrDelChrA(LPSTR pszSource, LPCSTR pCharsToRemove)
{
if (!pszSource || !pCharsToRemove) {
return false;
}
LPSTR pch = pszSource;
while (*pch) {
LPSTR prem = pch;
while (StrChrA(pCharsToRemove, *prem)) {
++prem;
}
if (prem > pch) {
MoveMemory(pch, prem, sizeof(CHAR)*(StringCchLenA(prem,0) + 1));
}
++pch;
}
return true;
}
//=============================================================================
//
// StrDelChrW()
//
bool StrDelChrW(LPWSTR pszSource, LPCWSTR pCharsToRemove)
{
if (!pszSource || !pCharsToRemove) {
return false;
}
LPWSTR pch = pszSource;
while (*pch) {
LPWSTR prem = pch;
while (StrChrW(pCharsToRemove, *prem)) {
++prem;
}
if (prem > pch) {
MoveMemory(pch, prem, sizeof(WCHAR)*(StringCchLenW(prem,0) + 1));
}
++pch;
}
return true;
}
//=============================================================================
//
// Find next token in string
//
CHAR* StrNextTokA(CHAR* strg, const CHAR* tokens)
{
CHAR* n = NULL;
const CHAR* t = tokens;
while (t && *t) {
CHAR* const f = StrChrA(strg, *t);
if (!n || (f && (f < n))) {
n = f;
}
++t;
}
return n;
}
WCHAR* StrNextTokW(WCHAR* strg, const WCHAR* tokens)
{
WCHAR* n = NULL;
const WCHAR* t = tokens;
while (t && *t) {
WCHAR* const f = StrChrW(strg, *t);
if (!n || (f && (f < n))) {
n = f;
}
++t;
}
return n;
}
//=============================================================================
//
// GetWinVersionString()
//
#if 0
static OSVERSIONINFOEX s_OSversion = { 0 };
static void _GetTrueWindowsVersion()
{
if (s_OSversion.dwOSVersionInfoSize != 0) {
return;
}
// clear
ZeroMemory(&s_OSversion, sizeof(OSVERSIONINFOEX));
s_OSversion.dwOSVersionInfoSize = sizeof(OSVERSIONINFOEX);
// Function pointer to driver function
void (WINAPI *pRtlGetVersion)(PRTL_OSVERSIONINFOW lpVersionInformation) = NULL;
// load the System-DLL
HINSTANCE const hNTdllDll = LoadLibrary(L"ntdll.dll");
if (hNTdllDll) {
// get the function pointer to RtlGetVersion
pRtlGetVersion = (void (WINAPI*)(PRTL_OSVERSIONINFOW)) GetProcAddress(hNTdllDll, "RtlGetVersion");
if (pRtlGetVersion != NULL) {
pRtlGetVersion((PRTL_OSVERSIONINFOW)& s_OSversion);
}
FreeLibrary(hNTdllDll);
} // if (hNTdllDll != NULL)
#pragma warning ( push )
#pragma warning ( disable: 4996 )
// if function failed, use fallback to old version
if (pRtlGetVersion == NULL) {
GetVersionEx((OSVERSIONINFO*)& s_OSversion);
}
#pragma warning ( pop )
}
// ----------------------------------------------------------------------------
#endif
void GetWinVersionString(LPWSTR szVersionStr, size_t cchVersionStr)
{
StringCchCopy(szVersionStr, cchVersionStr, L"OS Version: Windows ");
DWORD const build = GetWindowsBuildNumber(NULL, NULL);
if (IsWindows10OrGreater()) {
StringCchCat(szVersionStr, cchVersionStr, IsWindowsServer() ? ((build >= 17134) ? L"Server 2019 " : L"Server 2016 ") :
((build >= 22000) ? L"11 " : L"10 "));
} else if (IsWindows8Point1OrGreater()) {
StringCchCat(szVersionStr, cchVersionStr, IsWindowsServer() ? L"Server 2012 R2 " : L"8.1");
} else if (IsWindows8OrGreater()) {
StringCchCat(szVersionStr, cchVersionStr, IsWindowsServer() ? L"Server 2012 " : L"8");
} else if (IsWindows7SP1OrGreater()) {
StringCchCat(szVersionStr, cchVersionStr, IsWindowsServer() ? L"Server 2008 R2 " : L"7 (SP1)");
} else if (IsWindows7OrGreater()) {
StringCchCat(szVersionStr, cchVersionStr, IsWindowsServer() ? L"Server 2008 " : L"7");
} else {
StringCchCat(szVersionStr, cchVersionStr, IsWindowsServer() ? L"Unkown Server " : L"?");
}
if (IsWindows10OrGreater()) {
WCHAR win10ver[80] = { L'\0' };
StringCchPrintf(win10ver, COUNTOF(win10ver), L" Version %s (Build %lu)", _Win10BuildToReleaseId(build), GetWindowsBuildNumber(NULL, NULL));
StringCchCat(szVersionStr, cchVersionStr, win10ver);
}
}
//=============================================================================
//
// SetClipboardTextW()
//
bool SetClipboardText(HWND hwnd, LPCWSTR pszTextW, size_t cchTextW)
{
bool ok = false;
HANDLE const hData = GlobalAlloc(GMEM_MOVEABLE | GMEM_ZEROINIT, (cchTextW + 1) * sizeof(WCHAR));
if (hData) {
WCHAR* const pszNew = GlobalLock(hData);
if (pszNew) {
StringCchCopy(pszNew, cchTextW + 1, pszTextW);
GlobalUnlock(hData);
if (OpenClipboard(hwnd)) {
EmptyClipboard();
ok = (SetClipboardData(CF_UNICODETEXT, hData) != NULL); // move ownership
CloseClipboard();
}
}
if (!ok) {
GlobalFree(hData);
}
}
return ok;
}
//=============================================================================
//
// PrivateSetCurrentProcessExplicitAppUserModelID()
//
HRESULT PrivateSetCurrentProcessExplicitAppUserModelID(PCWSTR AppID)
{
if (StrIsEmpty(AppID)) {
return(S_OK);
}
if (StringCchCompareXI(AppID, L"(default)") == 0) {
return(S_OK);
}
return SetCurrentProcessExplicitAppUserModelID(AppID);
}
//=============================================================================
//
// IsProcessElevated()
//
// PURPOSE: The function gets the elevation information of the current
// process. It dictates whether the process is elevated or not. Token
// elevation is only available on Windows Vista and newer operating
// systems, thus IsProcessElevated throws a C++ exception if it is called
// on systems prior to Windows Vista. It is not appropriate to use this
// function to determine whether a process is run as administartor.
//
// RETURN VALUE: Returns TRUE if the process is elevated. Returns FALSE if
// it is not.
//
// NOTE: TOKEN_INFORMATION_CLASS provides TokenElevationType to check the
// elevation type (TokenElevationTypeDefault / TokenElevationTypeLimited /
// TokenElevationTypeFull) of the process. It is different from
// TokenElevation in that, when UAC is turned off, elevation type always
// returns TokenElevationTypeDefault even though the process is elevated
// (Integrity Level == High). In other words, it is not safe to say if the
// process is elevated based on elevation type. Instead, we should use
// TokenElevation.
//
bool IsProcessElevated()
{
// When the process is run on operating systems prior to Windows
// Vista, GetTokenInformation returns FALSE with the
// ERROR_INVALID_PARAMETER error code because TokenElevation is
// not supported on those operating systems.
if (!IsWindowsVistaOrGreater()) {
return false;
}
bool bIsElevated = false;
HANDLE hToken = NULL;
Globals.dwLastError = ERROR_SUCCESS;
const WCHAR* pLastErrMsg = L"";
do {
if (OpenProcessToken(GetCurrentProcess(), TOKEN_QUERY, &hToken)) {
TOKEN_ELEVATION elevationToken;
DWORD expectedRetVal = sizeof(TOKEN_ELEVATION);
DWORD dwReturnLength = 0;
if (GetTokenInformation(hToken, TokenElevation, &elevationToken, expectedRetVal, &dwReturnLength)) {
if (dwReturnLength == expectedRetVal) {
bIsElevated = elevationToken.TokenIsElevated;
}
}
} else {
Globals.dwLastError = GetLastError();
pLastErrMsg = L"IsProcessElevated()";
break;
}
} while (false); // Centralized cleanup for all allocated resources.
if (hToken) {
CloseHandle(hToken);
hToken = NULL;
}
if (Globals.dwLastError != ERROR_SUCCESS) {
MsgBoxLastError(pLastErrMsg, Globals.dwLastError);
}
return bIsElevated;
}
#if 0
//=============================================================================
//
// IsUserAdmin()
//
// Routine Description: This routine returns TRUE if the caller's
// process is a member of the Administrators local group. Caller is NOT
// expected to be impersonating anyone and is expected to be able to
// open its own process and process token.
// Arguments: None.
// Return Value:
// true - Caller has Administrators local group.
// false - Caller does not have Administrators local group. --
//
bool IsUserAdmin()
{
PSID pAdminGroup;
SID_IDENTIFIER_AUTHORITY NtAuthority = SECURITY_NT_AUTHORITY;
BOOL bIsAdmin = AllocateAndInitializeSid(&NtAuthority, 2,
SECURITY_BUILTIN_DOMAIN_RID, DOMAIN_ALIAS_RID_ADMINS, 0, 0, 0, 0, 0, 0, &pAdminGroup);
if (bIsAdmin) {
if (!CheckTokenMembership(NULL, pAdminGroup, &bIsAdmin)) {
bIsAdmin = false;
}
FreeSid(pAdminGroup);
}
return bIsAdmin;
}
#endif
//=============================================================================
//
// IsUserInAdminGroup()
//
// PURPOSE: The function checks whether the primary access token of the
// process belongs to user account that is a member of the local
// Administrators group, even if it currently is not elevated.
//
// RETURN VALUE: Returns TRUE if the primary access token of the process
// belongs to user account that is a member of the local Administrators
// group. Returns FALSE if the token does not.
//
//
//
bool IsUserInAdminGroup()
{
BOOL fInAdminGroup = FALSE;
HANDLE hToken = NULL;
HANDLE hTokenToCheck = NULL;
Globals.dwLastError = ERROR_SUCCESS;
const WCHAR* pLastErrMsg = L"";
do {
// Open the primary access token of the process for query and duplicate.
if (!OpenProcessToken(GetCurrentProcess(), TOKEN_QUERY | TOKEN_DUPLICATE, &hToken)) {
Globals.dwLastError = GetLastError();
pLastErrMsg = L"OpenProcessToken()";
break;
}
DWORD cbSize = 0;
// Determine token type: limited, elevated, or default.
TOKEN_ELEVATION_TYPE elevType;
if (!GetTokenInformation(hToken, TokenElevationType, &elevType, sizeof(elevType), &cbSize)) {
Globals.dwLastError = GetLastError();
pLastErrMsg = L"GetTokenInformation()";
break;
}
// If limited, get the linked elevated token for further check.
if (TokenElevationTypeLimited == elevType) {
if (!GetTokenInformation(hToken, TokenLinkedToken, &hTokenToCheck, sizeof(hTokenToCheck), &cbSize)) {
Globals.dwLastError = GetLastError();
pLastErrMsg = L"GetTokenInformation()";
break;
}
}
// CheckTokenMembership requires an impersonation token. If we just got a
// linked token, it already is an impersonation token. If we did not get
// a linked token, duplicate the original into an impersonation token for
// CheckTokenMembership.
if (!hTokenToCheck) {
if (!DuplicateToken(hToken, SecurityIdentification, &hTokenToCheck)) {
Globals.dwLastError = GetLastError();
pLastErrMsg = L"DuplicateToken()";
break;
}
}
// Create the SID corresponding to the Administrators group.
BYTE adminSID[SECURITY_MAX_SID_SIZE];
cbSize = sizeof(adminSID);
if (!CreateWellKnownSid(WinBuiltinAdministratorsSid, NULL, &adminSID, &cbSize)) {
Globals.dwLastError = GetLastError();
pLastErrMsg = L"CreateWellKnownSid()";
break;
}
// Check if the token to be checked contains admin SID.
// http://msdn.microsoft.com/en-us/library/aa379596(VS.85).aspx:
// To determine whether a SID is enabled in a token, that is, whether it
// has the SE_GROUP_ENABLED attribute, call CheckTokenMembership.
if (!CheckTokenMembership(hTokenToCheck, &adminSID, &fInAdminGroup)) {
Globals.dwLastError = GetLastError();
pLastErrMsg = L"CheckTokenMembership()";
break;
}
} while (false); // Centralized cleanup for all allocated resources.
if (hToken) {
CloseHandle(hToken);
hToken = NULL;
}
if (hTokenToCheck) {
CloseHandle(hTokenToCheck);
hTokenToCheck = NULL;
}
if (Globals.dwLastError != ERROR_SUCCESS) {
MsgBoxLastError(pLastErrMsg, Globals.dwLastError);
}
return fInAdminGroup;
}
//=============================================================================
//
// IsRunAsAdmin()
//
// PURPOSE: The function checks whether the current process is run as
// administrator. In other words, it dictates whether the primary access
// token of the process belongs to user account that is a member of the
// local Administrators group and it is elevated.
//
// RETURN VALUE: Returns TRUE if the primary access token of the process
// belongs to user account that is a member of the local Administrators
// group and it is elevated. Returns FALSE if the token does not.
//
bool IsRunAsAdmin()
{
BOOL fIsRunAsAdmin = FALSE;
PSID pAdministratorsGroup = NULL;
Globals.dwLastError = ERROR_SUCCESS;
do {
//const WCHAR* pLastErrMsg = L"";
// Allocate and initialize a SID of the administrators group.
SID_IDENTIFIER_AUTHORITY NtAuthority = SECURITY_NT_AUTHORITY;
if (!AllocateAndInitializeSid(
&NtAuthority,
2,
SECURITY_BUILTIN_DOMAIN_RID,
DOMAIN_ALIAS_RID_ADMINS,
0, 0, 0, 0, 0, 0,
&pAdministratorsGroup)) {
Globals.dwLastError = GetLastError();
//pLastErrMsg = L"AllocateAndInitializeSid()";
break;
}
// Determine whether the SID of administrators group is enabled in
// the primary access token of the process.
if (!CheckTokenMembership(NULL, pAdministratorsGroup, &fIsRunAsAdmin)) {
Globals.dwLastError = GetLastError();
//pLastErrMsg = L"CheckTokenMembership()";
break;
}
} while (false); // Centralized cleanup for all allocated resources.
// Centralized cleanup for all allocated resources.
if (pAdministratorsGroup) {
FreeSid(pAdministratorsGroup);
pAdministratorsGroup = NULL;
}
return (bool)fIsRunAsAdmin;
}
//=============================================================================
void BackgroundWorker_Init(BackgroundWorker* worker, HWND hwnd, HPATHL hFilePath)
{
worker->hwnd = hwnd;
worker->eventCancel = CreateEvent(NULL, TRUE, FALSE, NULL);
worker->workerThread = NULL;
worker->hFilePath = hFilePath;
}
void BackgroundWorker_Start(BackgroundWorker* worker, _beginthreadex_proc_type routine, LPVOID property)
{
//~worker->workerThread = CreateThread(NULL, 0, routine, property, 0, NULL); // MD(d) dll
worker->workerThread = (HANDLE)_beginthreadex(NULL, 0, routine, property, 0, NULL); // MT(d) static
}
void BackgroundWorker_End(unsigned int retcode)
{
_endthreadex(retcode);
}
static void _BackgroundWorker_Stop(BackgroundWorker* worker) {
SetEvent(worker->eventCancel);
HANDLE const workerThread = worker->workerThread;
if (workerThread) {
worker->workerThread = NULL;
while (WaitForSingleObject(workerThread, 0) != WAIT_OBJECT_0) {
MSG msg;
if (PeekMessage(&msg, NULL, 0, 0, PM_REMOVE)) {
TranslateMessage(&msg);
DispatchMessage(&msg);
}
}
CloseHandle(workerThread);
}
}
void BackgroundWorker_Cancel(BackgroundWorker* worker) {
_BackgroundWorker_Stop(worker);
ResetEvent(worker->eventCancel);
}
void BackgroundWorker_Destroy(BackgroundWorker* worker) {
_BackgroundWorker_Stop(worker);
CloseHandle(worker->eventCancel);
}
//=============================================================================
//
// BitmapMergeAlpha()
// Merge alpha channel into color channel
//
bool BitmapMergeAlpha(HBITMAP hbmp,COLORREF crDest)
{
BITMAP bmp;
if (GetObject(hbmp,sizeof(BITMAP),&bmp)) {
if (bmp.bmBitsPixel == 32) {
RGBQUAD *prgba = bmp.bmBits;
if (prgba) {
for (int y = 0; y < bmp.bmHeight; y++) {
for (int x = 0; x < bmp.bmWidth; x++) {
BYTE alpha = prgba[x].rgbReserved;
prgba[x].rgbRed = ((prgba[x].rgbRed * alpha) + (GetRValue(crDest) * (255 - alpha))) >> 8;
prgba[x].rgbGreen = ((prgba[x].rgbGreen * alpha) + (GetGValue(crDest) * (255 - alpha))) >> 8;
prgba[x].rgbBlue = ((prgba[x].rgbBlue * alpha) + (GetBValue(crDest) * (255 - alpha))) >> 8;
prgba[x].rgbReserved = 0xFF;
}
prgba = (RGBQUAD*)((LPBYTE)prgba + bmp.bmWidthBytes);
}
return true;
}
}
}
return false;
}
//=============================================================================
//
// BitmapAlphaBlend()
// Perform alpha blending to color channel only
//
bool BitmapAlphaBlend(HBITMAP hbmp,COLORREF crDest,BYTE alpha)
{
BITMAP bmp;
if (GetObject(hbmp,sizeof(BITMAP),&bmp)) {
if (bmp.bmBitsPixel == 32) {
RGBQUAD *prgba = bmp.bmBits;
if (prgba) {
for (int y = 0; y < bmp.bmHeight; y++) {
for (int x = 0; x < bmp.bmWidth; x++) {
prgba[x].rgbRed = ((prgba[x].rgbRed * alpha) + (GetRValue(crDest) * (255 - alpha))) >> 8;
prgba[x].rgbGreen = ((prgba[x].rgbGreen * alpha) + (GetGValue(crDest) * (255 - alpha))) >> 8;
prgba[x].rgbBlue = ((prgba[x].rgbBlue * alpha) + (GetBValue(crDest) * (255 - alpha))) >> 8;
}
prgba = (RGBQUAD*)((LPBYTE)prgba + bmp.bmWidthBytes);
}
return true;
}
}
}
return false;
}
//=============================================================================
//
// BitmapGrayScale()
// Gray scale color channel only
//
bool BitmapGrayScale(HBITMAP hbmp)
{
BITMAP bmp;
if (GetObject(hbmp,sizeof(BITMAP),&bmp)) {
if (bmp.bmBitsPixel == 32) {
RGBQUAD *prgba = bmp.bmBits;
if (prgba) {
for (int y = 0; y < bmp.bmHeight; y++) {
for (int x = 0; x < bmp.bmWidth; x++) {
prgba[x].rgbRed = prgba[x].rgbGreen = prgba[x].rgbBlue =
(((BYTE)((prgba[x].rgbRed * 38 + prgba[x].rgbGreen * 75 + prgba[x].rgbBlue * 15) >> 7) * 0x80) + (0xD0 * (255 - 0x80))) >> 8;
}
prgba = (RGBQUAD*)((LPBYTE)prgba + bmp.bmWidthBytes);
}
return true;
}
}
}
return false;
}
//=============================================================================
//
// VerifyContrast()
// Check if two colors can be distinguished
//
bool VerifyContrast(COLORREF cr1,COLORREF cr2)
{
BYTE r1 = GetRValue(cr1);
BYTE g1 = GetGValue(cr1);
BYTE b1 = GetBValue(cr1);
BYTE r2 = GetRValue(cr2);
BYTE g2 = GetGValue(cr2);
BYTE b2 = GetBValue(cr2);
return (((abs((3*r1 + 5*g1 + 1*b1) - (3*r2 + 6*g2 + 1*b2))) >= 400) ||
((abs(r1-r2) + abs(b1-b2) + abs(g1-g2)) >= 400));
}
//=============================================================================
//
// IsFontAvailable()
// Test if a certain font is installed on the system
//
static int CALLBACK EnumFontFamExProcFound(CONST LOGFONT *plf, CONST TEXTMETRIC *ptm, DWORD FontType, LPARAM lParam) {
UNREFERENCED_PARAMETER(plf);
UNREFERENCED_PARAMETER(ptm);
UNREFERENCED_PARAMETER(FontType);
*((bool*)lParam) = true;
return 0; // stop further enumerating
}
bool IsFontAvailable(LPCWSTR lpszFontName) {
bool fFound = FALSE;
LOGFONT lf = { 0 };
StringCchCopy(lf.lfFaceName, LF_FACESIZE, lpszFontName);
lf.lfCharSet = DEFAULT_CHARSET;
HDC hDC = GetDC(NULL);
EnumFontFamiliesEx(hDC, &lf, EnumFontFamExProcFound, (LPARAM)&fFound, 0);
ReleaseDC(NULL, hDC);
return fFound;
}
//=============================================================================
//
// IsCmdEnabled()
//
bool IsCmdEnabled(HWND hwnd, UINT uId)
{
HMENU const hmenu = GetMenu(hwnd);
SendMessage(hwnd, WM_INITMENU,(WPARAM)hmenu, 0);
UINT const ustate = GetMenuState(hmenu, uId, MF_BYCOMMAND);
return ((ustate == 0xFFFFFFFF) ? true : (!(ustate & (MF_GRAYED | MF_DISABLED))));
}
//=============================================================================
//
// ReadFileXL()
//
bool ReadFileXL(HANDLE hFile, char* const lpBuffer, const size_t nNumberOfBytesToRead, size_t* const lpNumberOfBytesRead)
{
DWORD dwRead = 0;
size_t bytesRead = 0ULL;
size_t bytesLeft = nNumberOfBytesToRead;
bool bReadOk = false;
do {
DWORD const chunk_size = (bytesLeft < (size_t)DWORD_MAX) ? (DWORD)bytesLeft : DWORD_MAX - 1UL;
bReadOk = ReadFile(hFile, &lpBuffer[bytesRead], chunk_size, &dwRead, NULL);
bytesRead += (size_t)dwRead;
bytesLeft -= (size_t)dwRead;
} while (bReadOk && ((dwRead != 0) && (bytesLeft > 0)));
*lpNumberOfBytesRead = bytesRead;
return (bytesRead == nNumberOfBytesToRead);
}
//=============================================================================
//
// WriteFileXL()
//
bool WriteFileXL(HANDLE hFile, const char* const lpBuffer, const size_t nNumberOfBytesToWrite, size_t* const lpNumberOfBytesWritten)
{
DWORD dwWritten = 0;
size_t bytesWritten = 0ULL;
size_t bytesLeft = nNumberOfBytesToWrite;
bool bWriteOk = false;
do {
DWORD const chunk_size = (bytesLeft < (size_t)DWORD_MAX) ? (DWORD)bytesLeft : DWORD_MAX - 1UL;
bWriteOk = WriteFile(hFile, &lpBuffer[bytesWritten], chunk_size, &dwWritten, NULL);
bytesWritten += (size_t)dwWritten;
bytesLeft -= (size_t)dwWritten;
} while (bWriteOk && ((dwWritten != 0) && (bytesLeft > 0)));
FlushFileBuffers(hFile);
*lpNumberOfBytesWritten = bytesWritten;
return (bytesWritten == nNumberOfBytesToWrite);
}
//=============================================================================
//
// StrLTrimI()
//
bool StrLTrimI(LPWSTR pszSource,LPCWSTR pszTrimChars)
{
if (!pszSource || !*pszSource) {
return false;
}
LPWSTR psz = pszSource;
while (StrChrI(pszTrimChars, *psz)) {
++psz;
}
MoveMemory(pszSource, psz, sizeof(WCHAR)*(StringCchLenW(psz,0) + 1));
return (psz != pszSource);
}
//=============================================================================
//
// StrRTrimI()
//
bool StrRTrimI(LPWSTR pszSource, LPCWSTR pszTrimChars)
{
if (!pszSource || !*pszSource) {
return false;
}
size_t const length = StringCchLenW(pszSource, 0);
size_t len = length;
while ((len > 0) && StrChrI(pszTrimChars, pszSource[--len])) {
pszSource[len] = L'\0';
}
return (length != len);
}
#if 0
//=============================================================================
//
// TrimStringA()
//
bool TrimStringA(LPSTR lpString)
{
if (!lpString || !*lpString) {
return false;
}
// Trim left
LPSTR psz = lpString;
while (*psz == ' ') {
psz = CharNextA(psz);
}
MoveMemory(lpString, psz, sizeof(CHAR)*(StringCchLenA(psz,0) + 1));
// Trim right
psz = StrEndA(lpString,0);
while (*(psz = CharPrevA(lpString, psz)) == ' ') {
*psz = '\0';
}
return true;
}
//=============================================================================
//
// TrimStringW()
//
bool TrimStringW(LPWSTR lpString)
{
if (!lpString || !*lpString) {
return false;
}
// Trim left
LPWSTR psz = lpString;
while (*psz == L' ') {
psz = CharNextW(psz);
}
MoveMemory(lpString,psz,sizeof(WCHAR)*(StringCchLenA(psz,0) + 1));
// Trim right
psz = StrEndW(lpString,0);
while (*(psz = CharPrevW(lpString, psz)) == L' ') {
*psz = L'\0';
}
return true;
}
#endif
//=============================================================================
//
// ExtractFirstArgument()
// Adapted from https://creativeandcritical.net/str-replace-c#repl_wcs
//
LPWSTR StrReplaceAll(LPCWSTR str, LPCWSTR from, LPCWSTR to)
{
if (!str || !to || StrIsEmpty(from)) {
return NULL;
}
/* Adjust each of the below values to suit your needs. */
/* Increment positions cache size initially by this number. */
size_t cache_sz_inc = 64;
/* Thereafter, each time capacity needs to be increased,
* multiply the increment by this factor. */
const size_t cache_sz_inc_factor = 2;
/* But never increment capacity by more than this number. */
const size_t cache_sz_inc_max = 1048576;
LPWSTR ret = NULL;
LPWSTR pret;
LPCWSTR pstr2;
LPCWSTR pstr = str;
size_t i, count = 0;
ptrdiff_t *pos_cache_tmp = NULL;
size_t cache_sz = 0;
size_t cpylen, orglen, retlen, tolen = 0, fromlen = wcslen(from);
ptrdiff_t* pos_cache = AllocMem(cache_sz_inc, HEAP_ZERO_MEMORY); // init for ReAllocGrowMem()
/* Find all matches and cache their positions. */
while ((pstr2 = wcsstr(pstr, from)) != NULL) {
count++;
/* Increase the cache size when necessary. */
if (cache_sz < count) {
cache_sz += cache_sz_inc;
pos_cache_tmp = ReAllocGrowMem(pos_cache, cache_sz, HEAP_ZERO_MEMORY);
if (pos_cache_tmp == NULL) {
goto end_repl_wcs;
} else
pos_cache = pos_cache_tmp;
cache_sz_inc *= cache_sz_inc_factor;
if (cache_sz_inc > cache_sz_inc_max) {
cache_sz_inc = cache_sz_inc_max;
}
}
pos_cache[count - 1] = pstr2 - str;
pstr = pstr2 + fromlen;
}
orglen = pstr - str + wcslen(pstr);
/* Allocate memory for the post-replacement string. */
if (count > 0) {
tolen = wcslen(to);
retlen = orglen + (tolen - fromlen) * count;
} else
retlen = orglen;
const size_t retsize = (retlen + 1) * sizeof(WCHAR);
ret = AllocMem(retsize, HEAP_ZERO_MEMORY);
if (ret == NULL) {
goto end_repl_wcs;
}
if (count == 0) {
/* If no matches, then just duplicate the string. */
wcscpy_s(ret, retsize, str);
} else {
/* Otherwise, duplicate the string whilst performing
* the replacements using the position cache. */
pret = ret;
wmemcpy(pret, str, pos_cache[0]);
pret += pos_cache[0];
for (i = 0; i < count; i++) {
wmemcpy(pret, to, tolen);
pret += tolen;
pstr = str + pos_cache[i] + fromlen;
cpylen = (i == count - 1 ? orglen : pos_cache[i + 1]) - pos_cache[i] - fromlen;
wmemcpy(pret, pstr, cpylen);
pret += cpylen;
}
ret[retlen] = L'\0';
}
end_repl_wcs:
/* Free the cache and return the post-replacement string,
* which will be NULL in the event of an error. */
FreeMem(pos_cache);
return ret;
}
//=============================================================================
//
// ExtractFirstArgument()
//
bool ExtractFirstArgument(LPCWSTR lpArgs, LPWSTR lpArg1, LPWSTR lpArg2, int len)
{
StringCchCopy(lpArg1, len, lpArgs);
if (StrIsEmpty(lpArg1)) {
return false;
}
if (lpArg2) {
*lpArg2 = L'\0';
}
TrimSpcW(lpArg1);
bool bQuoted = false;
if (*lpArg1 == L'\"') {
*lpArg1 = L' ';
TrimSpcW(lpArg1);
bQuoted = true;
}
LPWSTR psz;
if (bQuoted) {
psz = StrChr(lpArg1, L'\"');
// skip esc'd quotes
while (psz && (psz[-1] == L'\\')) {
psz = StrChr(psz + 1, L'\"');
}
} else {
psz = StrChr(lpArg1, L' ');
}
if (psz) {
*psz = L'\0';
if (lpArg2) {
StringCchCopy(lpArg2, len, psz + 1);
}
}
TrimSpcW(lpArg1);
UnSlashCharW(lpArg1, L'"');
if (lpArg2) {
TrimSpcW(lpArg2);
}
return true;
}
//=============================================================================
//
// PrepareFilterStr()
//
void PrepareFilterStr(LPWSTR lpFilter)
{
LPWSTR psz = StrEnd(lpFilter,0);
while (psz != lpFilter) {
if (*(psz = CharPrev(lpFilter, psz)) == L'|') {
*psz = L'\0';
}
}
}
//=============================================================================
//
// StrTab2Space() - in place conversion
//
void StrTab2Space(LPWSTR lpsz)
{
WCHAR *c = StrChr(lpsz, L'\t');
while (c) {
*c = L' ';
c = StrChr(lpsz, L'\t'); // next
}
}
//=============================================================================
//
// PathFixBackslashes() - in place conversion
//
void PathFixBackslashes(LPWSTR lpsz)
{
WCHAR *c = StrChr(lpsz, L'/');
while (c) {
if ((*CharPrev(lpsz,c) == L':') && (*CharNext(c) == L'/')) {
c += 2;
} else {
*c = L'\\';
}
c = StrChr(c, L'/'); // next
}
}
//=============================================================================
//
// SplitFilePathLineNum()
//
bool SplitFilePathLineNum(LPWSTR lpszPath, int* lineNum)
{
LPWSTR const lpszSplit = StrRChr(lpszPath, NULL, L':');
bool res = false;
if (lpszSplit) {
char chLnNumber[128];
char const defchar = (char)0x24;
WideCharToMultiByte(CP_ACP, (WC_COMPOSITECHECK | WC_DISCARDNS), &lpszSplit[1], -1, chLnNumber, COUNTOF(chLnNumber), &defchar, NULL);
te_int_t iExprError = true;
int const ln = (int)te_interp(chLnNumber, &iExprError);
if (!iExprError) {
res = true;
lpszSplit[0] = L'\0'; // split
if (lineNum) {
*lineNum = ln;
}
}
}
return res;
}
//=============================================================================
//
// FormatNumberStr()
//
size_t FormatNumberStr(LPWSTR lpNumberStr, size_t cch, int fixedWidth)
{
static WCHAR szSep[SMALL_BUFFER] = { L'\0' };
static WCHAR szGrp[SMALL_BUFFER] = { L'\0' };
static int iPlace[4] = {-1,-1,-1,-1};
if (StrIsEmpty(lpNumberStr)) {
return 0;
}
StrTrim(lpNumberStr, L" \t");
if (szSep[0] == L'\0') {
if (!GetLocaleInfoEx(LOCALE_NAME_USER_DEFAULT, LOCALE_STHOUSAND, szSep, COUNTOF(szSep))) {
szSep[0] = L'\'';
}
}
if (szGrp[0] == L'\0') {
if (!GetLocaleInfoEx(LOCALE_NAME_USER_DEFAULT, LOCALE_SGROUPING, szGrp, COUNTOF(szGrp))) {
szGrp[0] = L'0';
}
if (szGrp[0] == L'\0') {
szGrp[0] = L'0';
}
swscanf_s(szGrp, L"%i;%i;%i;%i", &iPlace[0], &iPlace[1], &iPlace[2], &iPlace[3]);
}
if (iPlace[0] <= 0) {
return StringCchLen(lpNumberStr,0);
}
if ((int)StringCchLen(lpNumberStr,0) > iPlace[0]) {
WCHAR* ch = StrEnd(lpNumberStr,0);
int iCnt = 0;
int i = 0;
while ((ch = CharPrev(lpNumberStr, ch)) != lpNumberStr) {
if (((++iCnt) % iPlace[i]) == 0) {
MoveMemory(ch + 1, ch, sizeof(WCHAR)*(StringCchLen(ch,0) + 1));
*ch = szSep[0];
i = (i < 3) ? (i + 1) : 3;
if (iPlace[i] == 0) {
--i;
} else if (iPlace[i] < 0) {
break;
}
iCnt = 0;
}
}
}
if (fixedWidth > 0) {
static WCHAR szCrop[256] = { L'\0' };
StringCchPrintf(szCrop, COUNTOF(szCrop), L"%*s", fixedWidth, lpNumberStr);
StringCchCopy(lpNumberStr, cch, szCrop);
}
return StringCchLen(lpNumberStr,0);
}
//=============================================================================
//
// SetDlgItemIntEx()
//
bool SetDlgItemIntEx(HWND hwnd,int nIdItem,UINT uValue)
{
WCHAR szBuf[64] = { L'\0' };
StringCchPrintf(szBuf,COUNTOF(szBuf),L"%u",uValue);
FormatNumberStr(szBuf, COUNTOF(szBuf), 0);
return(SetDlgItemText(hwnd,nIdItem,szBuf));
}
//=============================================================================
//
// CodePageFromCharSet()
//
UINT CodePageFromCharSet(const UINT uCharSet)
{
if (ANSI_CHARSET == uCharSet) {
CPINFOEX cpinfo = { 0 };
if (GetCPInfoEx(CP_THREAD_ACP, 0, &cpinfo)) {
return cpinfo.CodePage;
}
} else {
CHARSETINFO ci;
ZeroMemory(&ci, sizeof(CHARSETINFO));
if (TranslateCharsetInfo((DWORD*)(UINT_PTR)uCharSet, &ci, TCI_SRCCHARSET)) {
return(ci.ciACP);
}
}
return GetACP(); // fallback: systems locale ANSI CP
}
#if 0
//=============================================================================
//
// CharSetFromCodePage()
//
UINT CharSetFromCodePage(const UINT uCodePage)
{
CHARSETINFO ci;
if (TranslateCharsetInfo((DWORD*)(UINT_PTR)uCodePage, &ci, TCI_SRCCODEPAGE)) {
return(ci.ciCharset); // corresponds to SCI: SC_CHARSET_XXX
}
return(ANSI_CHARSET);
}
#endif
/**
* Convert C style \0oo into their indicated characters.
* This is used to get control characters into the regular expresion engine
* w/o interfering with group referencing ('\0').
*/
ptrdiff_t UnSlashLowOctalA(LPSTR s)
{
LPSTR sStart = s;
LPSTR o = s;
while (*s) {
if ((s[0] == '\\') && (s[1] == '\\')) { // esc seq
*o = *s;
++o;
++s;
*o = *s;
} else if ((s[0] == '\\') && (s[1] == '0') && IsOctalDigitA(s[2]) && IsOctalDigitA(s[3])) {
*o = (CHAR)(8 * (s[2] - '0') + (s[3] - '0'));
s += 3;
} else {
*o = *s;
}
++o;
if (*s) {
++s;
}
}
*o = '\0';
return (ptrdiff_t)(o - sStart);
}
ptrdiff_t UnSlashLowOctalW(LPWSTR s)
{
LPWSTR sStart = s;
LPWSTR o = s;
while (*s) {
if ((s[0] == L'\\') && (s[1] == L'\\')) { // esc seq
*o = *s;
++o;
++s;
*o = *s;
} else if ((s[0] == L'\\') && (s[1] == L'0') && IsOctalDigitW(s[2]) && IsOctalDigitW(s[3])) {
*o = (WCHAR)(8 * (s[2] - L'0') + (s[3] - L'0'));
s += 3;
} else {
*o = *s;
}
++o;
if (*s) {
++s;
}
}
*o = L'\0';
return (ptrdiff_t)(o - sStart);
}
/** ******************************************************************************
*
* UnSlash functions
* Mostly taken from SciTE, (c) Neil Hodgson, http://www.scintilla.org
*
* Convert C style \a, \b, \f, \n, \r, \t, \v, \xhh, \uhhhh and \\ into their indicated characters.
*/
size_t UnSlashA(LPSTR pchInOut, UINT cpEdit)
{
LPSTR s = pchInOut;
LPSTR o = pchInOut;
LPCSTR const sStart = pchInOut;
while (*s) {
if (*s == '\\') {
++s;
if (*s == 'a') {
*o = '\a';
} else if (*s == 'b') {
*o = '\b';
} else if (*s == 'e') {
*o = '\x1B';
} else if (*s == 'f') {
*o = '\f';
} else if (*s == 'n') {
*o = '\n';
} else if (*s == 'r') {
*o = '\r';
} else if (*s == 't') {
*o = '\t';
} else if (*s == 'v') {
*o = '\v';
} else if (*s == '"') {
*o = '"';
} else if (*s == '\\') {
*o = '\\';
} else if (*s == 'x' || *s == 'u') {
bool bShort = (*s == 'x');
char ch[8];
char* pch = ch;
WCHAR val[2] = L"";
int hex;
val[0] = 0;
hex = GetHexDigitA(*(s + 1));
if (hex >= 0) {
++s;
val[0] = (WCHAR)hex;
hex = GetHexDigitA(*(s + 1));
if (hex >= 0) {
++s;
val[0] *= 16;
val[0] += (WCHAR)hex;
if (!bShort) {
hex = GetHexDigitA(*(s + 1));
if (hex >= 0) {
++s;
val[0] *= 16;
val[0] += (WCHAR)hex;
hex = GetHexDigitA(*(s + 1));
if (hex >= 0) {
++s;
val[0] *= 16;
val[0] += (WCHAR)hex;
}
}
}
}
if (val[0]) {
val[1] = 0;
WideCharToMultiByte(cpEdit, 0, val, -1, ch, (int)COUNTOF(ch), NULL, NULL);
*o = *pch++;
while (*pch) {
*++o = *pch++;
}
} else {
--o;
}
} else {
--o;
}
} else {
//~*o = '\\'; *++o = *s; // revert
*o = *s; // swallow single '\'
}
} else {
*o = *s;
}
++o;
if (*s) {
++s;
}
}
*o = '\0';
return (size_t)((ptrdiff_t)(o - sStart));
}
size_t UnSlashW(LPWSTR pchInOut, UINT cpEdit)
{
LPWSTR s = pchInOut;
LPWSTR o = pchInOut;
LPCWSTR const sStart = pchInOut;
while (*s) {
if (*s == L'\\') {
++s;
if (*s == L'a') {
*o = L'\a';
} else if (*s == L'b') {
*o = L'\b';
} else if (*s == L'e') {
*o = L'\x1B';
} else if (*s == L'f') {
*o = L'\f';
} else if (*s == L'n') {
*o = L'\n';
} else if (*s == L'r') {
*o = L'\r';
} else if (*s == L't') {
*o = L'\t';
} else if (*s == L'v') {
*o = L'\v';
} else if (*s == L'"') {
*o = L'"';
} else if (*s == L'\\') {
*o = L'\\';
} else if (*s == L'x' || *s == L'u') {
bool bShort = (*s == L'x');
char ch[8];
char* pch = ch;
WCHAR val[2] = { L'\0' };
int hex;
val[0] = L'\0';
hex = GetHexDigitW(*(s + 1));
if (hex >= 0) {
++s;
val[0] = (WCHAR)hex;
hex = GetHexDigitW(*(s + 1));
if (hex >= 0) {
++s;
val[0] *= 16;
val[0] += (WCHAR)hex;
if (!bShort) {
hex = GetHexDigitW(*(s + 1));
if (hex >= 0) {
++s;
val[0] *= 16;
val[0] += (WCHAR)hex;
hex = GetHexDigitW(*(s + 1));
if (hex >= 0) {
++s;
val[0] *= 16;
val[0] += (WCHAR)hex;
}
}
}
}
if (val[0]) {
val[1] = L'\0';
WideCharToMultiByte(cpEdit, 0, val, -1, ch, (int)COUNTOF(ch), NULL, NULL);
*o = *pch++;
while (*pch) {
*++o = (WCHAR)*pch++;
}
} else {
--o;
}
} else {
--o;
}
} else {
//~*o = L'\\'; *++o = *s; // revert
*o = *s; // swallow single L'\'
}
} else {
*o = *s;
}
++o;
if (*s) {
++s;
}
}
*o = L'\0';
return (size_t)((ptrdiff_t)(o - sStart));
}
//=============================================================================
size_t SlashCtrlW(LPWSTR pchOutput, size_t cchOutLen, LPCWSTR pchInput)
{
if (!pchOutput || cchOutLen < 2 || !pchInput) {
return 0;
}
size_t i = 0;
size_t k = 0;
size_t const maxcnt = cchOutLen - 2;
while ((pchInput[k] != L'\0') && (i < maxcnt)) {
switch (pchInput[k]) {
//~case L'\\':
//~ pchOutput[i++] = L'\\';
//~ pchOutput[i++] = L'\\';
//~ break;
case L'\n':
pchOutput[i++] = L'\\';
pchOutput[i++] = L'n';
break;
case L'\r':
pchOutput[i++] = L'\\';
pchOutput[i++] = L'r';
break;
case L'\t':
pchOutput[i++] = L'\\';
pchOutput[i++] = L't';
break;
case L'\f':
pchOutput[i++] = L'\\';
pchOutput[i++] = L'f';
break;
case L'\v':
pchOutput[i++] = L'\\';
pchOutput[i++] = L'v';
break;
case L'\a':
pchOutput[i++] = L'\\';
pchOutput[i++] = L'a';
break;
case L'\b':
pchOutput[i++] = L'\\';
pchOutput[i++] = L'b';
break;
case L'\x1B':
pchOutput[i++] = L'\\';
pchOutput[i++] = L'e';
break;
default:
pchOutput[i++] = pchInput[k];
break;
}
++k;
}
pchOutput[i] = pchInput[k];
// ensure string end
if (pchInput[k] != L'\0') {
pchOutput[++i] = L'\0';
}
return i;
}
size_t UnSlashCtrlW(LPWSTR pchInOut)
{
LPWSTR s = pchInOut;
LPWSTR o = pchInOut;
LPCWSTR const sStart = pchInOut;
while (*s) {
if (*s == L'\\') {
++s;
//~if (*s == L'\\') {
//~ *o = L'\\';
//~} else
if (*s == L'n') {
*o = L'\n';
} else if (*s == L'r') {
*o = L'\r';
} else if (*s == L't') {
*o = L'\t';
} else if (*s == L'f') {
*o = L'\f';
} else if (*s == L'v') {
*o = L'\v';
} else if (*s == L'a') {
*o = L'\a';
} else if (*s == L'b') {
*o = L'\b';
} else if (*s == L'e') {
*o = L'\x1B';
} else {
*o = *s; // swallow single L'\'
}
} else {
*o = *s;
}
++o;
if (*s) {
++s;
}
}
*o = L'\0';
return (size_t)((ptrdiff_t)(o - sStart));
}
//=============================================================================
size_t UnSlashCharW(LPWSTR pchInOut, WCHAR wch)
{
LPCWSTR const sStart = pchInOut;
LPWSTR s = pchInOut;
LPWSTR o = pchInOut;
while (*s) {
if (*s == L'\\') {
++s;
if (*s == wch) {
*o++ = wch;
} else {
*o++ = L'\\'; // restore
*o++ = *s;
}
} else {
*o++ = *s;
}
if (*s) {
++s;
}
}
*o = L'\0';
return (size_t)((ptrdiff_t)(o - sStart));
}
/**
* check, if we have regex sub-group referencing
*/
static int _CheckRegExReplTargetA(LPSTR pszInput)
{
while (*pszInput) {
if (*pszInput == '$') {
++pszInput;
if (((*pszInput >= '0') && (*pszInput <= '9')) || (*pszInput == '+') || (*pszInput == '{')) {
return SCI_REPLACETARGETRE;
}
} else if (*pszInput == '\\') {
++pszInput;
if ((*pszInput >= '0') && (*pszInput <= '9')) {
return SCI_REPLACETARGETRE;
}
} else {
++pszInput;
}
}
return SciCall_GetChangeHistory() ? SCI_REPLACETARGETMINIMAL : SCI_REPLACETARGET;
}
static int _CheckRegExReplTargetW(LPWSTR pszInput)
{
while (*pszInput) {
if (*pszInput == L'$') {
++pszInput;
if (((*pszInput >= L'0') && (*pszInput <= L'9')) || (*pszInput == L'+') || (*pszInput == L'{')) {
return SCI_REPLACETARGETRE;
}
} else if (*pszInput == L'\\') {
++pszInput;
if ((*pszInput >= L'0') && (*pszInput <= L'9')) {
return SCI_REPLACETARGETRE;
}
} else {
++pszInput;
}
}
return SciCall_GetChangeHistory() ? SCI_REPLACETARGETMINIMAL : SCI_REPLACETARGET;
}
void TransformBackslashesA(LPSTR pszInput, bool bRegEx, UINT cpEdit, int* iReplaceMsg)
{
if (iReplaceMsg) {
if (bRegEx) {
UnSlashLowOctalA(pszInput);
*iReplaceMsg = _CheckRegExReplTargetA(pszInput);
} else {
*iReplaceMsg = SciCall_GetChangeHistory() ? SCI_REPLACETARGETMINIMAL : SCI_REPLACETARGET;
}
}
// regex handles backslashes itself
bool const bStdReplace = (iReplaceMsg && (SCI_REPLACETARGETRE != *iReplaceMsg));
if (!bRegEx || bStdReplace) {
UnSlashA(pszInput, cpEdit);
}
}
void TransformBackslashesW(LPWSTR pszInput, bool bRegEx, UINT cpEdit, int* iReplaceMsg)
{
if (iReplaceMsg) {
if (bRegEx) {
UnSlashLowOctalW(pszInput);
*iReplaceMsg = _CheckRegExReplTargetW(pszInput);
} else {
*iReplaceMsg = SciCall_GetChangeHistory() ? SCI_REPLACETARGETMINIMAL : SCI_REPLACETARGET;
}
}
// regex handles backslashes itself
bool const bStdReplace = (iReplaceMsg && (SCI_REPLACETARGETRE != *iReplaceMsg));
if (!bRegEx || bStdReplace) {
UnSlashW(pszInput, cpEdit);
}
}
#if 0
void TransformMetaChars(char* pszInput, size_t cch, bool bRegEx, int iEOLMode)
{
if (!bRegEx) {
return;
}
char* const buffer = AllocMem((cch << 1) * sizeof(char), HEAP_ZERO_MEMORY);
if (buffer) {
char* s = pszInput;
char* o = buffer;
while (*s) {
if ((s[0] != '\\') && (s[1] == '$')) {
*o++ = *s++;
switch (iEOLMode) {
case SC_EOL_LF:
*o++ = '\n';
break;
case SC_EOL_CR:
*o++ = '\r';
break;
case SC_EOL_CRLF:
default:
*o++ = '\r';
*o++ = '\n';
break;
}
++s; // skip $
}
else {
*o++ = *s;
}
if (*s) {
++s;
}
}
*o = '\0';
StringCchCopyA(pszInput, cch, buffer);
FreeMem(buffer);
}
}
#endif
//=============================================================================
//
// Hex2Char() - zero('\0') terminated strings
// by Zufuliu
//
int Hex2Char(char* ch, int cnt)
{
int cch = 0;
WCHAR* const wch = AllocMem(cnt * sizeof(WCHAR), HEAP_ZERO_MEMORY);
if (wch) {
int ci = 0;
char* p = ch;
while (*p) {
if (*p == '\\') {
p++;
if ((*p == 'x' || *p == 'u') ||
(*p == 'X' || *p == 'U')) {
p++;
ci = 0;
int ucc = 0;
while (*p && (ucc++ < MAX_ESCAPE_HEX_DIGIT)) {
if (*p >= '0' && *p <= '9') {
ci = ci * 16 + (*p++ - '0');
} else if (*p >= 'a' && *p <= 'f') {
ci = ci * 16 + (*p++ - 'a') + 10;
} else if (*p >= 'A' && *p <= 'F') {
ci = ci * 16 + (*p++ - 'A') + 10;
} else {
break;
}
}
} else {
ci = *p++;
}
} else {
ci = *p++;
}
wch[cch++] = (WCHAR)ci;
if (ci == 0) {
break;
}
}
wch[cch] = L'\0';
cch = WideCharToMultiByte(Encoding_SciCP, 0, wch, -1, ch, cnt, NULL, NULL) - 1; // '\0'
FreeMem(wch);
}
return cch;
}
#ifdef WC2MB_EX
TODO: how to avoid Code-Point truncation/splitting
//=============================================================================
//
// WideCharToMultiByteEx()
//
ptrdiff_t WideCharToMultiByteEx(
UINT CodePage, DWORD dwFlags, LPCWCH lpWideCharStr, ptrdiff_t cchWideChar,
LPSTR lpMultiByteStr, ptrdiff_t cbMultiByte, LPCCH lpDefaultChar, LPBOOL lpUsedDefaultChar)
{
LPCWCH inPtr = lpWideCharStr;
ptrdiff_t inBufCnt = cchWideChar;
LPSTR outPtr = (cbMultiByte == 0LL) ? NULL : lpMultiByteStr;
ptrdiff_t outBufSiz = cbMultiByte;
ptrdiff_t bytesConv = 0LL;
static ptrdiff_t const maxBufSize = (INT_MAX - 1);
BOOL bIsDefCharUse = FALSE;
while ((inBufCnt > 0LL) || (inBufCnt == -1LL)) {
int const cnt = (inBufCnt > maxBufSize) ? (int)maxBufSize : ((inBufCnt > 0LL) ? (int)inBufCnt : -1);
int const siz = (outBufSiz > (ptrdiff_t)INT_MAX) ? INT_MAX : (int)outBufSiz;
int const bytes = WideCharToMultiByte(CodePage, dwFlags, inPtr, cnt, outPtr, siz, lpDefaultChar, lpUsedDefaultChar);
if (bytes <= 0) {
break;
}
if (lpUsedDefaultChar && *lpUsedDefaultChar) {
bIsDefCharUse = TRUE;
}
int const usedWChr = (inBufCnt > maxBufSize) ? (outPtr ? MultiByteToWideChar(CodePage, dwFlags, outPtr, bytes, NULL, 0) : 0) : (int)inBufCnt;
bytesConv += (ptrdiff_t)bytes;
if (outPtr) {
outPtr += (ptrdiff_t)bytes;
outBufSiz -= (ptrdiff_t)bytes;
}
if (inBufCnt > 0LL) {
inBufCnt -= (ptrdiff_t)usedWChr;
}
inPtr += (ptrdiff_t)usedWChr;
}
if (lpUsedDefaultChar) {
*lpUsedDefaultChar = bIsDefCharUse;
}
return bytesConv;
}
#endif
#ifdef MB2WC_EX
TODO: how to avoid Code-Point truncation/splitting
//=============================================================================
//
// MultiByteToWideCharEx()
//
ptrdiff_t MultiByteToWideCharEx(
UINT CodePage, DWORD dwFlags, LPCCH lpMultiByteStr, ptrdiff_t cbMultiByte,
LPWSTR lpWideCharStr, ptrdiff_t cchWideChar)
{
static CHAR const strgEnd = '\0'; // stop reading
LPCCH inPtr = lpMultiByteStr ? lpMultiByteStr : &strgEnd;
ptrdiff_t inBufSiz = (cbMultiByte >= 0LL) ? cbMultiByte : -1LL;
LPWSTR outPtr = (cchWideChar == 0LL) ? NULL : lpWideCharStr;
ptrdiff_t outBufCnt = cchWideChar;
ptrdiff_t wcharConv = 0LL;
static ptrdiff_t const maxBufSize = (INT_MAX - 1);
while ((inBufSiz > 0LL) || (inPtr && (*inPtr != '\0'))) {
int const siz = (inBufSiz > maxBufSize) ? (int)maxBufSize : ((inBufSiz > 0LL) ? (int)inBufSiz : -1);
int const cnt = (outBufCnt > (ptrdiff_t)INT_MAX) ? INT_MAX : (int)outBufCnt;
int const wchars = MultiByteToWideChar(CodePage, dwFlags, inPtr, siz, outPtr, cnt);
if (wchars <= 0) {
break;
}
int const usedMBC = (inBufSiz > maxBufSize) ? (outPtr ? WideCharToMultiByte(CodePage, dwFlags, outPtr, wchars, NULL, 0, NULL, NULL) : 0) : (int)inBufSiz;
wcharConv += (ptrdiff_t)wchars;
if (outPtr) {
outPtr += (ptrdiff_t)wchars;
outBufCnt -= (ptrdiff_t)wchars;
}
if (inBufSiz > 0LL) {
inBufSiz -= (ptrdiff_t)usedMBC;
if (inBufSiz <= 0LL) {
inPtr = &strgEnd;
}
} else {
inPtr += (ptrdiff_t)usedMBC;
}
}
return wcharConv;
}
#endif
//=============================================================================
//
// UrlEscapeEx()
//
#if (NTDDI_VERSION < NTDDI_WIN8)
// Convert a byte into Hexadecimal Unicode character
__inline int toHEX(BYTE val, WCHAR* pOutChr)
{
StringCchPrintfW(pOutChr, 4, L"%%%0.2X", val);
return 3; // num of wchars ('%FF')
}
LPCTSTR const lpszUnreservedChars = L"-_.~"; // or IsAlphaNumeric()
LPCTSTR const lpszReservedChars = L"!#$%&'()*+,/:;=?@[]";
LPCTSTR const lpszUnsafeChars = L" \"\\<>{|}^`";
#endif
// ----------------------------------------------------------------------------
void UrlEscapeEx(LPCWSTR lpURL, LPWSTR lpEscaped, DWORD* pcchEscaped, bool bEscReserved)
{
#if (NTDDI_VERSION >= NTDDI_WIN8)
UNREFERENCED_PARAMETER(bEscReserved);
UrlEscape(lpURL, lpEscaped, pcchEscaped, (URL_ESCAPE_SEGMENT_ONLY | URL_ESCAPE_URI_COMPONENT));
#else
//UrlEscape(lpURL, lpEscaped, pcchEscaped, (URL_ESCAPE_SEGMENT_ONLY | URL_ESCAPE_PERCENT | URL_ESCAPE_AS_UTF8));
DWORD posIn = 0;
DWORD posOut = 0;
while (lpURL[posIn] && (posOut < *pcchEscaped)) {
if (IsAlphaNumericW(lpURL[posIn]) || StrChrW(lpszUnreservedChars, lpURL[posIn])) {
lpEscaped[posOut++] = lpURL[posIn++];
} else if (StrChrW(lpszReservedChars, lpURL[posIn])) {
if (posOut < (*pcchEscaped - 3)) {
if (bEscReserved) {
posOut += toHEX(toascii(lpURL[posIn++]), &lpEscaped[posOut]);
} else {
lpEscaped[posOut++] = lpURL[posIn++];
}
}
} else if (StrChrW(lpszUnsafeChars, lpURL[posIn])) {
if (posOut < (*pcchEscaped - 3)) {
posOut += toHEX(toascii(lpURL[posIn++]), &lpEscaped[posOut]);
}
}
// Encode unprintable characters 0x00-0x1F, and 0x7F
else if ((lpURL[posIn] <= 0x1F) || (lpURL[posIn] == 0x7F)) {
if (posOut < (*pcchEscaped - 3)) {
posOut += toHEX((BYTE)lpURL[posIn++], &lpEscaped[posOut]);
}
}
// Now encode all other unsafe characters
else {
CHAR mb[4] = { '\0', '\0', '\0', '\0' };
int const n = WideCharToMultiByte(Encoding_SciCP, 0, &lpURL[posIn++], 1, mb, 4, 0, 0);
if (posOut < (*pcchEscaped - (n*3))) {
for (int i = 0; i < n; ++i) {
posOut += toHEX((BYTE)mb[i], &lpEscaped[posOut]);
}
}
}
}
lpEscaped[posOut] = L'\0';
*pcchEscaped = posOut;
#endif
}
//=============================================================================
//
// UrlUnescapeEx()
//
void UrlUnescapeEx(LPWSTR lpURL, LPWSTR lpUnescaped, DWORD* pcchUnescaped)
{
#if (NTDDI_VERSION >= NTDDI_WIN8)
UrlUnescape(lpURL, lpUnescaped, pcchUnescaped, URL_UNESCAPE_AS_UTF8);
#else
char * const outBuffer = AllocMem((size_t)*pcchUnescaped + 1, HEAP_ZERO_MEMORY);
if (!outBuffer) {
return;
}
DWORD const outLen = *pcchUnescaped;
DWORD posIn = 0;
WCHAR buf[5] = { L'\0' };
DWORD lastEsc = (DWORD)StringCchLenW(lpURL,0) - 2;
unsigned int code;
DWORD posOut = 0;
while ((posIn < lastEsc) && (posOut < outLen)) {
bool bOk = false;
// URL encoded
if (lpURL[posIn] == L'%') {
buf[0] = lpURL[posIn + 1];
buf[1] = lpURL[posIn + 2];
buf[2] = L'\0';
if (swscanf_s(buf, L"%x", &code) == 1) {
outBuffer[posOut++] = (char)code;
posIn += 3;
bOk = true;
}
}
// HTML encoded
else if ((lpURL[posIn] == L'&') && (lpURL[posIn + 1] == L'#')) {
int n = 0;
while (IsDigitW(lpURL[posIn + 2 + n]) && (n < 4)) {
buf[n] = lpURL[posIn + 2 + n];
++n;
}
buf[n] = L'\0';
if (swscanf_s(buf, L"%ui", &code) == 1) {
if (code <= 0xFF) {
outBuffer[posOut++] = (char)code;
posIn += (2 + n);
if (lpURL[posIn] == L';') {
++posIn;
}
bOk = true;
}
}
}
if (!bOk) {
posOut += WideCharToMultiByte(Encoding_SciCP, 0, &lpURL[posIn++], 1,
&outBuffer[posOut], (int)(outLen - posOut), NULL, NULL);
}
}
// copy rest
while ((lpURL[posIn] != L'\0') && (posOut < outLen)) {
posOut += WideCharToMultiByte(Encoding_SciCP, 0, &lpURL[posIn++], 1,
&outBuffer[posOut], (int)(outLen - posOut), NULL, NULL);
}
outBuffer[posOut] = '\0';
DWORD const iOut = MultiByteToWideChar(Encoding_SciCP, 0, outBuffer, -1, lpUnescaped, (int)*pcchUnescaped);
FreeMem(outBuffer);
*pcchUnescaped = ((iOut > 0) ? (iOut - 1) : 0);
#endif
}
//=============================================================================
//
// ReadStrgsFromCSV()
//
//
int ReadStrgsFromCSV(LPCWSTR wchCSVStrg, prefix_t sMatrix[], int iCount, int iLen, LPCWSTR sDefault)
{
static WCHAR wchTmpBuff[MIDSZ_BUFFER];
StringCchCopyW(wchTmpBuff, COUNTOF(wchTmpBuff), wchCSVStrg);
TrimSpcW(wchTmpBuff);
// fill default
for (int i = 0; i < iCount; ++i) {
if (sDefault && *sDefault) {
StringCchCopyW(sMatrix[i], (size_t)iLen, sDefault);
} else {
sMatrix[i][0] = L'\0';
}
}
// insert values
int n = 0;
WCHAR* p = wchTmpBuff;
while (p && *p) {
WCHAR* q = StrStrW(p, L",");
if (q > p) {
*q = L'\0';
}
if (n < iCount) {
if (*p != L',') {
StringCchCopyW(sMatrix[n], (size_t)iLen, p);
} else {
sMatrix[n][0] = L'\0';
}
}
p = (q > p) ? (q + 1) : (p + 1);
++n;
}
return n;
}
//=============================================================================
//
// ReadVectorFromString()
//
//
static int _cmpifunc(const void* a, const void* b)
{
return (*(int*)a - *(int*)b);
}
size_t ReadVectorFromString(LPCWSTR wchStrg, int iVector[], size_t iCount, int iMin, int iMax, int iDefault, bool ordered)
{
static WCHAR wchTmpBuff[SMALL_BUFFER];
StringCchCopyW(wchTmpBuff, COUNTOF(wchTmpBuff), wchStrg);
TrimSpcW(wchTmpBuff);
// replace ',' and ';' by space
WCHAR* s = wchTmpBuff;
while (s) {
s = StrChr(wchTmpBuff, L','); // next
if (s && *s) {
*s++ = L' ';
}
}
s = wchTmpBuff;
while (s) {
s = StrChr(wchTmpBuff, L';'); // next
if (s && *s) {
*s++ = L' ';
}
}
// ensure single spaces only
const WCHAR *p = StrStr(wchTmpBuff, L" ");
while (p) {
MoveMemory((WCHAR*)p, (WCHAR*)p + 1, (StringCchLenW(p,0) + 1) * sizeof(WCHAR));
p = StrStr(wchTmpBuff, L" "); // next
}
// separate values
int const len = (int)StringCchLenW(wchTmpBuff, COUNTOF(wchTmpBuff));
for (int i = 0; i < len; ++i) {
if (wchTmpBuff[i] == L' ') {
wchTmpBuff[i] = L'\0';
}
}
wchTmpBuff[len + 1] = L'\0'; // double zero at the end
// fill default
for (size_t i = 0; i < iCount; ++i) {
iVector[i] = iDefault;
}
// insert values
size_t n = 0;
p = wchTmpBuff;
while (*p) {
int iValue;
if (n < iCount) {
//if (swscanf_s(p, L"%i", &iValue) == 1) {
if (StrToIntEx(p, STIF_DEFAULT, &iValue)) {
iVector[n++] = clampi(iValue, iMin, iMax);
}
}
p = StrEnd(p,0) + 1;
}
if (ordered) {
qsort(iVector, n, sizeof(int), _cmpifunc);
}
return n;
}
size_t NormalizeColumnVector(LPSTR chStrg_in, LPWSTR wchStrg_out, size_t iCount)
{
if (chStrg_in) {
MultiByteToWideChar(CP_UTF8, 0, chStrg_in, -1, wchStrg_out, (int)iCount);
}
StrTrim(wchStrg_out, L"\"'");
int* const intVector = (int*)AllocMem(iCount * sizeof(int), HEAP_ZERO_MEMORY);
if (intVector) {
size_t const cnt = ReadVectorFromString(wchStrg_out, intVector, iCount, 0, LONG_LINES_MARKER_LIMIT, 0, true);
WCHAR col[32];
wchStrg_out[0] = L'\0';
for (size_t i = 0; i < cnt; ++i) {
StringCchPrintf(col, COUNTOF(col), ((i == 0) ? L"%i" : L" %i"), intVector[i]);
StringCchCat(wchStrg_out, iCount, col);
}
FreeMem(intVector);
return cnt;
}
return 0;
}
//=============================================================================
//
// StrToFloat()
// Locale indpendant simple character to float conversion
//
bool StrToFloat(WCHAR* wnumber, float* fresult)
{
if (!wnumber || !fresult) {
return false;
}
int i = 0;
for (; IsBlankCharW(wnumber[i]); ++i); // skip spaces
// determine sign
int const sign = (wnumber[i] == L'-') ? -1 : 1;
if (wnumber[i] == L'-' || wnumber[i] == L'+') {
++i;
}
// must be digit now
if (!IsDigitW(wnumber[i])) {
return false;
}
// digits before decimal
float val = 0.0f;
while (IsDigitW(wnumber[i])) {
val = (val * 10) + (wnumber[i] - L'0');
++i;
}
// skip decimal point (or comma) if present
if ((wnumber[i] == L'.') || (wnumber[i] == L',')) {
++i;
}
//digits after decimal
int place = 1;
while (IsDigitW(wnumber[i])) {
val = val * 10 + (wnumber[i] - L'0');
place *= 10;
++i;
}
// the extended part for scientific notations
float exponent = 1.0f;
if (wnumber[i] == L'e' || wnumber[i] == L'E') {
++i;
float fexp = 0.0f;
if (StrToFloat(&(wnumber[i]), &fexp)) {
exponent = powf(10, fexp);
}
}
*fresult = ((sign*val*exponent) / (place));
return true;
}
//=============================================================================
//
// FloatToStr()
//
//
void FloatToStr(float fValue, LPWSTR lpszStrg, int cchSize)
{
if (!lpszStrg) {
return;
};
fValue = Round10th(fValue);
if (HasNonZeroFraction(fValue)) {
StringCchPrintf(lpszStrg, cchSize, L"%.3G", fValue);
} else {
StringCchPrintf(lpszStrg, cchSize, L"%i", f2int(fValue));
}
}
//=============================================================================
//
// CloseNonModalDialogs()
//
void CloseNonModalDialogs()
{
if (IsWindow(Globals.hwndDlgFindReplace)) {
SendMessage(Globals.hwndDlgFindReplace, WM_CLOSE, 0, 0);
}
if (IsWindow(Globals.hwndDlgCustomizeSchemes)) {
SendMessage(Globals.hwndDlgCustomizeSchemes, WM_CLOSE, 0, 0);
}
}
//=============================================================================
//
// CloseApplication()
//
void CloseApplication()
{
CloseNonModalDialogs();
PostMessage(Globals.hwndMain, WM_CLOSE, 0, 0);
}
///////////////////////////////////////////////////////////////////////////////
/// End of Helpers.c ///
Reference in New Issue View Git Blame Copy Permalink