#include "inc.h" #define GUID_FORMAT_W L"{%08lx-%04x-%04x-%02x%02x-%02x%02x%02x%02x%02x%02x}" DEFINE_GUID(GUID_NULL, 0L, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0); CMD_ENTRY g_rgIfCmdTable[] = { {TOKEN_STATS, PrintStats}, {TOKEN_INFO, PrintInfo}, {TOKEN_NAME, PrintName}, {TOKEN_GUID, PrintGuid}, }; int __cdecl ScanHexFormat( IN const WCHAR* pwszBuffer, IN ULONG ulCharCount, IN const WCHAR* pwszFormat, ... ) /*++ Routine Description: Scans a source Buffer and places values from that buffer into the parameters as specified by Format. Arguments: pwszBuffer Source buffer which is to be scanned. ulCharCount Maximum length in characters for which Buffer is searched. This implies that Buffer need not be UNICODE_NULL terminated. Format Format string which defines both the acceptable string form as contained in pwszBuffer Return Value: Returns the number of parameters filled if the end of the Buffer is reached, else -1 on an error. --*/ { va_list ArgList; int iFormatItems; va_start(ArgList, pwszFormat); // // Count of number of parameters filled // iFormatItems = 0; while(TRUE) { switch (*pwszFormat) { case UNICODE_NULL: { // // end of string // return (*pwszBuffer && ulCharCount) ? -1 : iFormatItems; } case L'%': { // // Format specifier // pwszFormat++; if (*pwszFormat != L'%') { ULONG ulNumber; int iWidth; int iLong; PVOID pvPointer; // // So it isnt a %% // iLong = 0; iWidth = 0; while(TRUE) { if((*pwszFormat >= L'0') && (*pwszFormat <= L'9')) { iWidth = iWidth * 10 + *pwszFormat - '0'; } else { if(*pwszFormat == L'l') { iLong++; } else { if((*pwszFormat == L'X') || (*pwszFormat == L'x')) { break; } } } // // Move to the next specifier // pwszFormat++; } pwszFormat++; for(ulNumber = 0; iWidth--; pwszBuffer++, ulCharCount--) { if(!ulCharCount) { return -1; } ulNumber *= 16; if((*pwszBuffer >= L'0') && (*pwszBuffer <= L'9')) { ulNumber += (*pwszBuffer - L'0'); } else { if((*pwszBuffer >= L'a') && (*pwszBuffer <= L'f')) { ulNumber += (*pwszBuffer - L'a' + 10); } else { if((*pwszBuffer >= L'A') && (*pwszBuffer <= L'F')) { ulNumber += (*pwszBuffer - L'A' + 10); } else { return -1; } } } } pvPointer = va_arg(ArgList, PVOID); if(iLong) { *(PULONG)pvPointer = ulNumber; } else { *(PUSHORT)pvPointer = (USHORT)ulNumber; } iFormatItems++; break; } // // NO BREAK // } default: { if (!ulCharCount || (*pwszBuffer != *pwszFormat)) { return -1; } pwszBuffer++; ulCharCount--; pwszFormat++; break; } } } } DWORD ConvertGuidToString( IN GUID *pGuid, OUT PWCHAR pwszBuffer ) /*++ Routine Description: Constructs the standard string version of a GUID, in the form: "{xxxxxxxx-xxxx-xxxx-xxxx-xxxxxxxxxxxx}". Arguments: pGuid Contains the GUID to translate. pwszBuffer Space for storing the string. Must be >= 39 * sizeof(WCHAR) Return Value: --*/ { return swprintf(pwszBuffer, GUID_FORMAT_W, pGuid->Data1, pGuid->Data2, pGuid->Data3, pGuid->Data4[0], pGuid->Data4[1], pGuid->Data4[2], pGuid->Data4[3], pGuid->Data4[4], pGuid->Data4[5], pGuid->Data4[6], pGuid->Data4[7]); } DWORD ConvertStringToGuid( IN PWCHAR pwszGuid, IN ULONG ulStringLen, OUT GUID *pGuid ) /*++ Routine Description: Retrieves a the binary format of a textual GUID presented in the standard string version of a GUID: "{xxxxxxxx-xxxx-xxxx-xxxx-xxxxxxxxxxxx}". Arguments: GuidString - Place from which to retrieve the textual form of the GUID. Guid - Place in which to put the binary form of the GUID. Return Value: Returns STATUS_SUCCESS if the buffer contained a valid GUID, else STATUS_INVALID_PARAMETER if the string was invalid. --*/ { USHORT Data4[8]; int Count; if (ScanHexFormat(pwszGuid, ulStringLen/sizeof(WCHAR), GUID_FORMAT_W, &pGuid->Data1, &pGuid->Data2, &pGuid->Data3, &Data4[0], &Data4[1], &Data4[2], &Data4[3], &Data4[4], &Data4[5], &Data4[6], &Data4[7]) == -1) { return ERROR_INVALID_PARAMETER; } for(Count = 0; Count < sizeof(Data4)/sizeof(Data4[0]); Count++) { pGuid->Data4[Count] = (UCHAR)Data4[Count]; } return NO_ERROR; } VOID HandleInterface( LONG lNumArgs, PWCHAR rgpwszArgs[] ) { LONG lIndex; if(lNumArgs < 2) { DisplayMessage(HMSG_IF_USAGE); return; } lIndex = ParseCommand(g_rgIfCmdTable, sizeof(g_rgIfCmdTable)/sizeof(CMD_ENTRY), rgpwszArgs[1]); if(lIndex is -1) { DisplayMessage(HMSG_IF_USAGE); return; } g_rgIfCmdTable[lIndex].pfnHandler(lNumArgs - 1, &rgpwszArgs[1]); return; } VOID PrintStats( LONG lNumArgs, PWCHAR rgpwszArgs[] ) { DWORD dwResult, i, j; PMIB_IFTABLE pTable; dwResult = AllocateAndGetIfTableFromStack(&pTable, TRUE, GetProcessHeap(), HEAP_NO_SERIALIZE, FALSE); if(dwResult isnot NO_ERROR) { PWCHAR pwszEntry; pwszEntry = MakeString(STR_IFTABLE); if(pwszEntry) { DisplayMessage(EMSG_RETRIEVAL_ERROR1, dwResult, pwszEntry); FreeString(pwszEntry); } else { DisplayMessage(EMSG_RETRIEVAL_ERROR2, dwResult); } return; } if(pTable->dwNumEntries is 0) { PWCHAR pwszEntryType; pwszEntryType = MakeString(TOKEN_INTERFACE); if(pwszEntryType) { DisplayMessage(EMSG_NO_ENTRIES1, pwszEntryType); FreeString(pwszEntryType); } else { DisplayMessage(EMSG_NO_ENTRIES2); } HeapFree(GetProcessHeap(), HEAP_NO_SERIALIZE, pTable); return; } for(i = 0; i < pTable->dwNumEntries; i++) { PWCHAR pwszIfType, pwszAdmin, pwszOper; WCHAR rgwcDescr[MAXLEN_IFDESCR + 1]; WCHAR rgwcPhysAddr[3*MAXLEN_PHYSADDR + 8]; switch(pTable->table[i].dwType) { case IF_TYPE_OTHER: { pwszIfType = MakeString(STR_OTHER); break; } case IF_TYPE_ETHERNET_CSMACD: { pwszIfType = MakeString(STR_ETHERNET); break; } case IF_TYPE_ISO88025_TOKENRING: { pwszIfType = MakeString(STR_TOKENRING); break; } case IF_TYPE_FDDI: { pwszIfType = MakeString(STR_FDDI); break; } case IF_TYPE_PPP: { pwszIfType = MakeString(STR_PPP); break; } case IF_TYPE_SOFTWARE_LOOPBACK: { pwszIfType = MakeString(STR_LOOPBACK); break; } case IF_TYPE_SLIP: { pwszIfType = MakeString(STR_SLIP); break; } } switch(pTable->table[i].dwAdminStatus) { case IF_ADMIN_STATUS_UP: { pwszAdmin = MakeString(STR_UP); break; } case IF_ADMIN_STATUS_DOWN: { pwszAdmin = MakeString(STR_DOWN); break; } case IF_ADMIN_STATUS_TESTING: { pwszAdmin = MakeString(STR_TESTING); break; } } switch(pTable->table[i].dwOperStatus) { case IF_OPER_STATUS_NON_OPERATIONAL: { pwszOper = MakeString(STR_NON_OPERATIONAL); break; } case IF_OPER_STATUS_UNREACHABLE: { pwszOper = MakeString(STR_UNREACHABLE); break; } case IF_OPER_STATUS_DISCONNECTED: { pwszOper = MakeString(STR_DISCONNECTED); break; } case IF_OPER_STATUS_CONNECTING: { pwszOper = MakeString(STR_CONNECTING); break; } case IF_OPER_STATUS_CONNECTED: { pwszOper = MakeString(STR_CONNECTED); break; } case IF_OPER_STATUS_OPERATIONAL: { pwszOper = MakeString(STR_OPERATIONAL); break; } } MultiByteToWideChar(CP_ACP, 0, pTable->table[i].bDescr, -1, rgwcDescr, MAXLEN_IFDESCR); rgwcDescr[MAXLEN_IFDESCR] = UNICODE_NULL; PhysAddrToUnicode(rgwcPhysAddr, pTable->table[i].bPhysAddr, pTable->table[i].dwPhysAddrLen); DisplayMessage(MSG_IF_INFO, pTable->table[i].wszName, pTable->table[i].dwIndex, pwszIfType, pTable->table[i].dwMtu, pTable->table[i].dwSpeed, rgwcPhysAddr, pwszAdmin, pwszOper, pTable->table[i].dwLastChange, pTable->table[i].dwInOctets, pTable->table[i].dwInUcastPkts, pTable->table[i].dwInNUcastPkts, pTable->table[i].dwInDiscards, pTable->table[i].dwInErrors, pTable->table[i].dwInUnknownProtos, pTable->table[i].dwOutOctets, pTable->table[i].dwOutUcastPkts, pTable->table[i].dwOutNUcastPkts, pTable->table[i].dwOutDiscards, pTable->table[i].dwOutErrors, pTable->table[i].dwOutQLen, rgwcDescr); FreeString(pwszIfType); FreeString(pwszAdmin); FreeString(pwszOper); } } VOID PrintInfo( LONG lNumArgs, PWCHAR rgpwszArgs[] ) { DWORD dwResult, i, dwCount; PIP_INTERFACE_NAME_INFO pTable; dwResult = NhpAllocateAndGetInterfaceInfoFromStack(&pTable, &dwCount, TRUE, GetProcessHeap(), HEAP_NO_SERIALIZE); if(dwResult isnot NO_ERROR) { PWCHAR pwszEntry; pwszEntry = MakeString(STR_IFTABLE); if(pwszEntry) { DisplayMessage(EMSG_RETRIEVAL_ERROR1, dwResult, pwszEntry); FreeString(pwszEntry); } else { DisplayMessage(EMSG_RETRIEVAL_ERROR2, dwResult); } return; } if(dwCount is 0) { PWCHAR pwszEntryType; pwszEntryType = MakeString(TOKEN_INTERFACE); if(pwszEntryType) { DisplayMessage(EMSG_NO_ENTRIES1, pwszEntryType); FreeString(pwszEntryType); } else { DisplayMessage(EMSG_NO_ENTRIES2); } HeapFree(GetProcessHeap(), HEAP_NO_SERIALIZE, pTable); return; } for(i = 0; i < dwCount; i++) { WCHAR pwszDeviceGuid[40], pwszIfGuid[40]; WCHAR pwszName[300]; GUID *pGuid; DWORD dwSize; ConvertGuidToString(&(pTable[i].DeviceGuid), pwszDeviceGuid); ConvertGuidToString(&(pTable[i].InterfaceGuid), pwszIfGuid); if(IsEqualGUID(&(pTable[i].InterfaceGuid), &(GUID_NULL))) { pGuid = &(pTable[i].DeviceGuid); } else { pGuid = &(pTable[i].InterfaceGuid); } dwSize = sizeof(pwszName); dwResult = NhGetInterfaceNameFromGuid(pGuid, pwszName, &dwSize, FALSE, TRUE); ASSERT(dwResult == NO_ERROR); wprintf(L"%d %s %s %s\n", pTable[i].Index, pwszDeviceGuid, pwszIfGuid, pwszName); } } VOID PrintName( LONG lNumArgs, PWCHAR rgpwszArgs[] ) { ULONG ulSize; GUID Guid; WCHAR rgwcIfName[MAX_INTERFACE_NAME_LEN + 2]; // // The command line at this point should read: // NAME {Guid} // if(lNumArgs != 2) { DisplayMessage(HMSG_IF_NAME_USAGE); return; } if(ConvertStringToGuid(rgpwszArgs[1], wcslen(rgpwszArgs[1]) * sizeof(WCHAR), &Guid) isnot NO_ERROR) { DisplayMessage(HMSG_IF_NAME_USAGE); return; } ulSize = sizeof(rgwcIfName); if(NhGetInterfaceNameFromGuid(&Guid, rgwcIfName, &ulSize, FALSE, TRUE) isnot NO_ERROR) { DisplayMessage(EMSG_NO_SUCH_IF); return; } wprintf(L"%s\n", rgwcIfName); } VOID PrintGuid( LONG lNumArgs, PWCHAR rgpwszArgs[] ) { GUID Guid; WCHAR rgwcString[40]; // // The command line at this point should read: // GUID "Name" // if(lNumArgs != 2) { DisplayMessage(HMSG_IF_GUID_USAGE); return; } if(NhGetGuidFromInterfaceName(rgpwszArgs[1], &Guid, FALSE, TRUE) isnot NO_ERROR) { DisplayMessage(EMSG_NO_SUCH_IF); return; } ConvertGuidToString(&Guid, rgwcString); wprintf(L"%s\n", rgwcString); }