= e ) { std::cerr<<"Memcpy_s Failed.The error code is"<<e<<std::endl; break;...= e ) { std::cerr<<"Memcpy_s Failed.The error code is"<<e<<std::endl; break;...= e ) { std::cerr<<"Memcpy_s Failed.The error code is"<<e<<std::endl; break;...BYTE[m_dwRecvBufferLength]; memset( m_lpRecvBuffer, 0, sizeof(m_lpRecvBuffer)); e = memcpy_s...= e ) { std::cerr<<"Memcpy_s Failed.The error code is"<<e<<std::endl; break;
通过其buffer成员 判断是否被使用 { structBuffer->m_pStructureBuffer = new unsigned char[cLength+end]; memcpy_s...tempStructBuffer->m_cType = cType; tempStructBuffer->m_pStructureBuffer = new unsigned char[cLength+end]; memcpy_s...parray->rgsabound[0].cElements; (*p) = new unsigned char[m_smbiosbuffer.nLength]; memcpy_s...BASE_LOG_OUT(( P2SP_LOG, "ZWcs\n" )); ZWcs( hSection ); return false; } // BASE_LOG_OUT(( P2SP_LOG, "memcpy_s...\n" )); *p = new unsigned char[ssize]; memcpy_s( (*p), ssize, (char*)ba, ssize ); m_smbiosbuffer.nLength
获取第二个数据块的偏移 ULONG ulNextEntryOffset = 0; // 因为_SYSTEM_PROCESS_INFORMATION的第一个元素就是dwNextEntryOffset memcpy_s...下个数据偏移” pchNextAddr = pchCurrentAddr + ulCurrentNextEntryOffset; // 保存下个数据的“下个数据偏移” memcpy_s...= bidle ) { // 获取指向进程名的指针 memcpy_s( &pchNameAddr, sizeof(PCHAR), (PVOID)(pchCurrentAddr+dwnameoffset...pchBeforeAddr, (PVOID) (&dwGoToNextOffset), sizeof(DWORD), &size_nouse )) ; memcpy_s
dwRetLenth ) { continue; } memset(wchBuffer, 0, sizeof(wchBuffer)); memcpy_s...= memcpy_s(lpName, dwBufferSize, (LPWSTR)bstrName, bstrName.ByteLength()) ) { break;...= memcpy_s(lpBuffer, dwBufferLength, (LPWSTR)bstrRoletext, bstrRoletext.ByteLength())) {...= memcpy_s(lpBuffer, dwBufferLength, (LPWSTR)bstrDescription, bstrDescription.ByteLength()) ) {...= memcpy_s(lpBuffer, dwBufferLength, (LPWSTR)bstrValue, bstrValue.ByteLength() ) ) { break
PathGUID;// = {0x23977b55, 0x10e0, 0x4041, {0xb8, 0x62, 0xb1, 0x95, 0x41, 0x96, 0x36, 0x69}}; memcpy_s...MD5Init(&ctx); MD5Update(&ctx, buf, unbufferlenth); MD5Final(&ctx); memcpy_s
dwFreeSize >= dwbytesRead ) { // 空闲空间足够的情况下,将读取的信息拷贝到剩下的空间中 memcpy_s...memset( pTempBuffer, 0, dwNewTotalSize ); // 将原空间数据拷贝过来 memcpy_s...dwTotalSize = dwNewTotalSize; // 将读取的信息保存到新的空间中 memcpy_s
", p); } int _tmain(int argc, _TCHAR* argv[]) { char szBuffer[32]; std::string str = "01234"; memcpy_s
这里使用方式三push ret绝对地址跳转,使用memcpy_s写入要跳转的HookedMessageBox函数地址到挂钩机器码数组中。...DWORD_PTR)HookedMessageBox - (DWORD_PTR)oldAddress - 5; char patch[6] = { 0xE9, 0, 0, 0, 0 }; memcpy_s...bytesRead); void* hookedAddress = HookedMessageBox; char patch[6] = { 0x68, 0, 0, 0, 0, 0xC3 }; memcpy_s...HookedMessageBox; char patch[13] = { 0x49, 0xBC, 0, 0, 0, 0, 0, 0, 0, 0, 0x41, 0x54, 0xC3 }; memcpy_s
DWORD)pRes + pResEntry[i].NameOffset); WCHAR szStr[MAX_PATH] = { 0 }; memcpy_s
初始化之前先 判断树是否为空 若不是,则先清空 114 len = n; 115 maxSize = n; 116 pRoot = new T[maxSize]; 117 memcpy_s...maxSize / 2 : 1); 161 T *temp = new T[maxSize]; 162 if (pRoot) 163 { 164 memcpy_s
ret); return ret; } END: // 将数据传出 *out = ( unsigned char* ) malloc( pTeacher->dataLen ); #ifdef WIN32 memcpy_s
PBYTE子弹硬编码地址 = (PBYTE)(模块地址 + 0x148bb85); //输入a开启无限子弹 if (getchar()==’a’) { //获取旧的硬编码以便还原 memcpy_s... VirtualProtectEx(GetCurrentProcess(), 子弹硬编码地址, 5, PAGE_EXECUTE_READWRITE, &后坐力地址读写权限); memcpy_s
"012345678901234567890123456789"; #ifdef UNSAFE memcpy(buffer, str.c_str(), str.length()); #else memcpy_s
memcpy_s()函数会将每个分段数据(fragment)拷贝到重组缓冲区中的一个偏移量地址,重组缓冲区在堆上进行分配,每个分段的偏移量由fragment_idx 1000得到。
// JMP过渡 if ( (char)0xE9 == *pRmtRoutine ) { DWORD dwOffset = 0; memcpy_s...strFuncName = "ExportFun"; memset( RmtThdRtParam.szFuncName, 0 , MAX_FUNCNAMELENGTH ); memcpy_s
GameAssembly.dll"); PBYTE后坐力地址 = (PBYTE)(模块地址 + 0x148bbe1); //保存5个字节 if (子弹无后座.GetCheck()) { memcpy_s... VirtualProtectEx(GetCurrentProcess(), 后坐力地址, 5, PAGE_EXECUTE_READWRITE, &后坐力地址读写权限); memcpy_s
(lpMemory = (LPTSTR)GlobalLock(hMemory))) { return FALSE; } // 复制数据到内存区域,解除内存锁定 memcpy_s
(lpMemory = (LPTSTR)GlobalLock(hMemory))) { return FALSE; } // 复制数据到内存区域,解除内存锁定 memcpy_s(lpMemory
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