char *TCPClientSocketWindows::getIp(void) const
{
char *str = new char[50];
InetNtop(AF_INET, (void *)&(this->_addr.sin_addr), reinterpret_cast<PWSTR>(str), 49);
// inet_ntop(AF_INET, &(this->_addr.sin_addr), str, 49);
return (str);
}
static PCSTR addrToStr(SFLAddress *address, char *buf, size_t len)
{
return InetNtop(address->type == SFLADDRESSTYPE_IP_V6 ? AF_INET6 : AF_INET,
&address->address,
buf,
len);
}
/**
* Use GetTcpTable
*/
static void dump_tcp4_table(void)
{
MIB_TCPTABLE *pTcpTable;
const MIB_TCPROW *pTcpRow;
DWORD i;
TCHAR szLocalAddrBuffer[16], szRemoteAddrBuffer[16];
pTcpTable = GetTcpTable_a();
if (!pTcpTable) {
return;
}
_tprintf(_T("TCP/IPv4 connections (%lu):\n"), pTcpTable->dwNumEntries);
for (i = 0; i < pTcpTable->dwNumEntries; i++) {
pTcpRow = &pTcpTable->table[i];
_tprintf(_T(" * %s/%u -> %s/%u ("),
InetNtop(AF_INET, &pTcpRow->dwLocalAddr, szLocalAddrBuffer, ARRAYSIZE(szLocalAddrBuffer)),
ntohs((WORD)pTcpRow->dwLocalPort),
InetNtop(AF_INET, &pTcpRow->dwRemoteAddr, szRemoteAddrBuffer, ARRAYSIZE(szRemoteAddrBuffer)),
ntohs((WORD)pTcpRow->dwRemotePort));
switch (pTcpRow->dwState) {
case_print(MIB_TCP_STATE_CLOSED, _T("CLOSED"));
case_print(MIB_TCP_STATE_LISTEN, _T("LISTEN"));
case_print(MIB_TCP_STATE_SYN_SENT, _T("SYN SENT"));
case_print(MIB_TCP_STATE_SYN_RCVD, _T("SYN RECEIVED"));
case_print(MIB_TCP_STATE_ESTAB, _T("ESTABLISHED"));
case_print(MIB_TCP_STATE_FIN_WAIT1, _T("FIN WAIT 1"));
case_print(MIB_TCP_STATE_FIN_WAIT2, _T("FIN WAIT 2"));
case_print(MIB_TCP_STATE_CLOSE_WAIT, _T("CLOSE WAIT"));
case_print(MIB_TCP_STATE_CLOSING, _T("CLOSING"));
case_print(MIB_TCP_STATE_LAST_ACK, _T("LAST ACK"));
case_print(MIB_TCP_STATE_TIME_WAIT, _T("TIME WAIT"));
case_print(MIB_TCP_STATE_DELETE_TCB, _T("DELETE TCB"));
default:
_tprintf(_T("Unknown state %lu"), pTcpRow->dwState);
break;
}
_tprintf(_T(")\n"));
}
HeapFree(GetProcessHeap(), 0, pTcpTable);
}
/**
* Use GetIpAddrTable
*/
static void dump_ipv4addr_table(void)
{
MIB_IPADDRTABLE *pIpAddrTable;
const MIB_IPADDRROW *pIpAddrRow;
DWORD i;
TCHAR szAddrBuffer[16], szMaskBuffer[16], szBCastBuffer[16];
pIpAddrTable = GetIpAddrTable_a();
if (!pIpAddrTable) {
return;
}
_tprintf(_T("IPv4 addresses (%lu):\n"), pIpAddrTable->dwNumEntries);
for (i = 0; i < pIpAddrTable->dwNumEntries; i++) {
pIpAddrRow = &pIpAddrTable->table[i];
_tprintf(_T(" * Iface %lu: %s/%s\n"),
pIpAddrRow->dwIndex,
InetNtop(AF_INET, &pIpAddrRow->dwAddr, szAddrBuffer, ARRAYSIZE(szAddrBuffer)),
InetNtop(AF_INET, &pIpAddrRow->dwMask, szMaskBuffer, ARRAYSIZE(szMaskBuffer)));
_tprintf(_T(" * Broadcast: %s\n"),
InetNtop(AF_INET, &pIpAddrRow->dwBCastAddr, szBCastBuffer, ARRAYSIZE(szBCastBuffer)));
_tprintf(_T(" * Reassembly size: %lu\n"), pIpAddrRow->dwReasmSize);
}
HeapFree(GetProcessHeap(), 0, pIpAddrTable);
}
Void System::NetAddressToString( GChar * outString, const NetAddress * pAddress ) const
{
switch( pAddress->iType ) {
case NETADDRESS_IPv4: {
const NetAddressIPv4 * pAddr = (const NetAddressIPv4*)pAddress;
in_addr ipAddr;
ipAddr.S_un.S_addr = pAddr->Addr.Value;
const GChar * strOut = InetNtop( AF_INET, &ipAddr, outString, 16 );
DebugAssert( strOut != NULL );
*outString++ = ':';
StringFn->FromUInt( outString, (UInt64)( ntohs(pAddr->wPort) ) );
} break;
case NETADDRESS_IPv6: {
DebugAssert( false );
} break;
default: DebugAssert( false ); break;
}
}
/**
* Use GetUdpTable
*/
static void dump_udp4_table(void)
{
MIB_UDPTABLE *pUdpTable;
const MIB_UDPROW *pUdpRow;
DWORD i;
TCHAR szLocalAddrBuffer[16];
pUdpTable = GetUdpTable_a();
if (!pUdpTable) {
return;
}
_tprintf(_T("UDP/IPv4 connections (%lu):\n"), pUdpTable->dwNumEntries);
for (i = 0; i < pUdpTable->dwNumEntries; i++) {
pUdpRow = &pUdpTable->table[i];
_tprintf(_T(" * %s/%u\n"),
InetNtop(AF_INET, &pUdpRow->dwLocalAddr, szLocalAddrBuffer, ARRAYSIZE(szLocalAddrBuffer)),
ntohs((WORD)pUdpRow->dwLocalPort));
}
HeapFree(GetProcessHeap(), 0, pUdpTable);
}
return len;
}
int WinSocket::sendBinary(void *point, int len)
{
WSABUF Databuf;
Databuf.len = len;
Databuf.buf = (CHAR * )point;
if (WSASend(this->sock, &Databuf, 1, &Databuf.len, 0,0,0) == SOCKET_ERROR)
return NULL;
return 0;
}
int WinSocket::recBinaryFrom(void* buffer , int blocksize, std::string &ip)
{
WSABUF Databuf;
DWORD receive;
struct sockaddr_in in;
int len;
std::string WinSocket::getIp()
{
int len = sizeof(this->sin);
char str[32];
char const*s;
struct sockaddr name;
int lens = sizeof(name);
if (getpeername(this->sock, &name, &lens) == SOCKET_ERROR)
return 0;
struct sockaddr_in *in = (struct sockaddr_in*)&name;
if (in == NULL)
return 0;
int ipAddr = in->sin_addr.s_addr;
if ((s = InetNtop( AF_INET, &ipAddr, str, 32)) == NULL)
{
wprintf(L"InetNtop failed with error %u\n", WSAGetLastError());
return 0;
}
std::cout << "lol3" << std::endl;
return s;
}
// Debug function that prints out the linked list returned by getaddrinfo.
// Reference: getaddrinfo function in MSDN
// https://msdn.microsoft.com/en-us/library/windows/desktop/ms738520(v=vs.85).aspx
void printAddrInfo(struct addrinfo *result)
{
// DEBUG
// Print out all addresses returned from getaddrinfo.
struct addrinfo *ptr;
int i = 1;
struct sockaddr_in *sockaddr_ipv4;
struct sockaddr_in6 *sockaddr_ipv6;
LPSOCKADDR sockaddr_ip;
char ipstringbuffer[46];
DWORD ipbufferlength = 46;
INT iRetval;
for (ptr = result; ptr != NULL; ptr = ptr->ai_next) {
printf("getaddrinfo response %d\n", i++);
printf("\tFlags: 0x%x\n", ptr->ai_flags);
printf("\tFamily: ");
switch (ptr->ai_family) {
case AF_UNSPEC:
printf("Unspecified\n");
break;
case AF_INET:
printf("AF_INET (IPv4)\n");
sockaddr_ipv4 = (struct sockaddr_in *) ptr->ai_addr;
InetNtop(AF_INET, &sockaddr_ipv4->sin_addr, ipstringbuffer, ipbufferlength);
printf("\tIPv4 address %s\n", ipstringbuffer);
break;
case AF_INET6:
printf("AF_INET6 (IPv6)\n");
// the InetNtop function is available on Windows Vista and later
sockaddr_ipv6 = (struct sockaddr_in6 *) ptr->ai_addr;
InetNtop(AF_INET6, &sockaddr_ipv6->sin6_addr, ipstringbuffer, ipbufferlength);
printf("\tIPv6 address %s\n", ipstringbuffer);
break;
case AF_NETBIOS:
printf("AF_NETBIOS (NetBIOS)\n");
break;
default:
printf("Other %ld\n", ptr->ai_family);
break;
}
printf("\tSocket type: ");
switch (ptr->ai_socktype) {
case 0:
printf("Unspecified\n");
break;
case SOCK_STREAM:
printf("SOCK_STREAM (stream)\n");
break;
case SOCK_DGRAM:
printf("SOCK_DGRAM (datagram) \n");
break;
case SOCK_RAW:
printf("SOCK_RAW (raw) \n");
break;
case SOCK_RDM:
printf("SOCK_RDM (reliable message datagram)\n");
break;
case SOCK_SEQPACKET:
printf("SOCK_SEQPACKET (pseudo-stream packet)\n");
break;
default:
printf("Other %ld\n", ptr->ai_socktype);
break;
}
printf("\tProtocol: ");
switch (ptr->ai_protocol) {
case 0:
printf("Unspecified\n");
break;
case IPPROTO_TCP:
printf("IPPROTO_TCP (TCP)\n");
break;
case IPPROTO_UDP:
printf("IPPROTO_UDP (UDP) \n");
break;
default:
printf("Other %ld\n", ptr->ai_protocol);
break;
}
printf("\tLength of this sockaddr: %d\n", ptr->ai_addrlen);
printf("\tCanonical name: %s\n", ptr->ai_canonname);
}
}
/*
Cliente
Aplicacao simples de cliente tcp que se conecta num
IP e PORTA passados por parametro, envia um comando ao
servidor e escreve na saida padrao o retorno
*/
int main(int argc, char **argv) {
// Declaracao de variaveis
int sockfd;
char buf[MAXDATASIZE + 1], error[MAXDATASIZE + 1];
char server[MAXDATASIZE + 1], server_reply[MAXDATASIZE + 1];
struct sockaddr_in servaddr;
// Checa a presenca do parametro de IP e Porta
// caso ausente, fecha o programa
if (argc != 3) {
strcpy(error,"uso: ");
strcat(error,argv[0]);
strcat(error," <IPaddress> <Port>");
perror(error);
exit(1);
}
// Cria um socket
sockfd = Socket(AF_INET, SOCK_STREAM, 0);
// Limpa o que estiver no ponteiro do socket que representa o servidor
// Seta o socket do servidor como IPv4 e seta a porta de conexao para a porta da aplicacao.
bzero(&servaddr, sizeof(servaddr));
servaddr.sin_family = AF_INET;
servaddr.sin_port = htons(atoi(argv[2]));
// Converte o IP recebido na entrada para a forma binária da struct
InetPton(AF_INET, argv[1], servaddr);
// Conecta o socket local com o socket servidor
Connect(sockfd, servaddr);
// Escrever IP e porta do servidor na saida padrao
printf("Server: IP %s - Port %d\n", argv[1], atoi(argv[2]));
// Coletar informacoes sobre o socket com o servidor
servaddr = Getsockname(sockfd, servaddr);
// Converter informacao do IP de binario para string
// armazenar o resultado no buffer
InetNtop(AF_INET, server, servaddr);
// Escrever IP e porta do cliente no socket na saida padrao
printf("Client: IP %s - Port %d\n", server, ntohs(servaddr.sin_port));
// lê uma cadeia de caracteres do teclado
printf("Digite um comando:\n");
fgets(buf, MAXDATASIZE, stdin);
// Imprime a linha de comando digitada pelo usuario
printf("Linha de comando digitada: %s", buf);
// envia os dados lidos ao servidor
Write(sockfd , buf);
// le os dados enviados pelo servidor
Read(sockfd, server_reply);
// Imprime a linha de comando devolvida pelo servidor
printf("Linha de comando recebida: %s\n", server_reply);
exit(0);
}
/**
* Use GetIpForwardTable
*/
static void dump_ipv4fwd_table(void)
{
MIB_IPFORWARDTABLE *pIpForwardTable;
const MIB_IPFORWARDROW *pIpForwardRow;
DWORD i;
TCHAR szDestBuffer[16], szMaskBuffer[16], szNextHopBuffer[16];
pIpForwardTable = GetIpForwardTable_a();
if (!pIpForwardTable) {
return;
}
_tprintf(_T("IPv4 routes (%lu):\n"), pIpForwardTable->dwNumEntries);
for (i = 0; i < pIpForwardTable->dwNumEntries; i++) {
pIpForwardRow = &pIpForwardTable->table[i];
_tprintf(_T(" * Iface %lu: %s/%s\n"),
pIpForwardRow->dwForwardIfIndex,
InetNtop(AF_INET, &pIpForwardRow->dwForwardDest, szDestBuffer, ARRAYSIZE(szDestBuffer)),
InetNtop(AF_INET, &pIpForwardRow->dwForwardMask, szMaskBuffer, ARRAYSIZE(szMaskBuffer)));
_tprintf(_T(" * Next Hop: %s\n"),
InetNtop(AF_INET, &pIpForwardRow->dwForwardNextHop, szNextHopBuffer, ARRAYSIZE(szNextHopBuffer)));
_tprintf(_T(" * Type: "));
/* Old MinGW headers do not define MIB_IPROUTE_* */
#ifdef MIB_IPROUTE_TYPE_OTHER
switch (pIpForwardRow->dwForwardType) {
case_print(MIB_IPROUTE_TYPE_OTHER, _T("Other"));
case_print(MIB_IPROUTE_TYPE_INVALID, _T("Invalid"));
case_print(MIB_IPROUTE_TYPE_DIRECT, _T("Direct"));
case_print(MIB_IPROUTE_TYPE_INDIRECT, _T("Indirect"));
default:
_tprintf(_T("Unknown (%lu)"), pIpForwardRow->dwForwardType);
break;
}
#else
_tprintf(_T("%lu"), pIpForwardRow->dwForwardType);
#endif
_tprintf(_T("\n"));
_tprintf(_T(" * Proto: "));
/* Old MinGW headers do not define MIB_IPPROTO_* */
#ifdef MIB_IPPROTO_OTHER
switch (pIpForwardRow->dwForwardProto) {
case_print(MIB_IPPROTO_OTHER, _T("Other"));
case_print(MIB_IPPROTO_LOCAL, _T("Local"));
case_print(MIB_IPPROTO_NETMGMT, _T("Static (Network Management)"));
case_print(MIB_IPPROTO_ICMP, _T("ICMP redirect"));
case_print(MIB_IPPROTO_EGP, _T("Exterior Gateway Protocol (EGP)"));
case_print(MIB_IPPROTO_GGP, _T("Gateway-to-Gateway Protocol (GGP)"));
case_print(MIB_IPPROTO_HELLO, _T("Hello Protocol"));
case_print(MIB_IPPROTO_RIP, _T("Routing Information Protocol (RIP)"));
case_print(MIB_IPPROTO_IS_IS, _T("Intermediate System-to-Intermediate System (IS-IS)"));
case_print(MIB_IPPROTO_ES_IS, _T("End System-to-Intermediate System (ES-IS)"));
case_print(MIB_IPPROTO_CISCO, _T("Cisco Interior Gateway Routing Protocol (IGRP)"));
case_print(MIB_IPPROTO_BBN, _T("BBN Internet Gateway Protocol (IGP) using SPF"));
case_print(MIB_IPPROTO_OSPF, _T("Open Shortest Path First (OSPF)"));
case_print(MIB_IPPROTO_BGP, _T("Border Gateway Protocol (BGP)"));
case_print(MIB_IPPROTO_NT_AUTOSTATIC, _T("special Windows auto static route"));
case_print(MIB_IPPROTO_NT_STATIC, _T("special Windows static route"));
case_print(MIB_IPPROTO_NT_STATIC_NON_DOD, _T("special Windows static route not based on Internet standards"));
default:
_tprintf(_T("Unknown (%lu)"), pIpForwardRow->dwForwardProto);
break;
}
#else
_tprintf(_T("%lu"), pIpForwardRow->dwForwardProto);
#endif
_tprintf(_T("\n"));
_tprintf(_T(" * Age: %lu\n"), pIpForwardRow->dwForwardAge);
_tprintf(_T(" * Metric1: %lu\n"), pIpForwardRow->dwForwardMetric1);
}
HeapFree(GetProcessHeap(), 0, pIpForwardTable);
}
DWORD WINAPI handle_http(LPVOID targ) {
#else
void *handle_http(void *targ) {
#endif
int connsd,i,tid,itmp,len=0;
char *method=NULL, *uri=NULL, *version=NULL, *query=NULL;
char *bp=NULL, *res=NULL;
char buf[MAXLINE];
char header[HTTP_HEADER_SIZE];
thread_data_p tdata;
struct common_data *common;
socklen_t alen;
struct sockaddr_storage addr;
struct sockaddr_in *s4;
struct sockaddr_in6 *s6;
char ipstr[INET6_ADDRSTRLEN];
int port;
#ifdef USE_OPENSSL
SSL* ssl=NULL;
#else
void* ssl=NULL;
#endif
#if _MSC_VER
#else
struct timespec tim, tim2;
tim.tv_sec = 0;
tim.tv_nsec = 1000;
#endif
tdata=(thread_data_p) targ;
tid=tdata->thread_id;
common=tdata->common;
while(1) {
// infinite loop for threadpool, just once for non-threadpool
if ((tdata->realthread)!=2) {
// once-run thread
connsd=tdata->conn;
} else {
// threadpool thread
#ifdef MULTI_THREAD
#if THREADPOOL
pthread_mutex_lock(&(common->mutex));
while ((common->count==0) && (common->shutdown==0)) {
itmp=pthread_cond_wait(&(common->cond),&(common->mutex)); // wait
if (itmp) {
errprint(COND_WAIT_FAIL_ERR,NULL);
exit(ERR_EX_UNAVAILABLE);
}
}
if (common->shutdown) {
pthread_mutex_unlock(&(common->mutex)); // ?
warnprint(SHUTDOWN_THREAD_WARN,NULL);
tdata->inuse=0;
pthread_exit((void*) tid);
return NULL;
}
#endif
#endif
connsd=common->queue[common->head].conn;
#ifdef USE_OPENSSL
ssl=common->queue[common->head].ssl;
if (SSL_accept(ssl)==-1) {
SSL_free(ssl);
ssl=NULL;
//fprintf(stderr,"ssl accept error\n");
//ERR_print_errors_fp(stderr);
}
//ShowCerts(ssl);
#endif
common->head+=1;
common->head=(common->head == common->queue_size) ? 0 : common->head;
common->count-=1;
#ifdef MULTI_THREAD
#if THREADPOOL
pthread_mutex_unlock(&(common->mutex));
#endif
#endif
}
// who is calling?
alen = sizeof addr;
getpeername(connsd, (struct sockaddr*)&addr, &alen);
if (addr.ss_family == AF_INET) {
s4 = (struct sockaddr_in *)&addr;
port = ntohs(s4->sin_port);
#if _MSC_VER
InetNtop(AF_INET, &s4->sin_addr, ipstr, sizeof ipstr);
} else { // AF_INET6
s6 = (struct sockaddr_in6 *)&addr;
port = ntohs(s6->sin6_port);
InetNtop(AF_INET6, &s6->sin6_addr, ipstr, sizeof ipstr);
}
#else
inet_ntop(AF_INET, &s4->sin_addr, ipstr, sizeof ipstr);
} else { // AF_INET6
int __cdecl main( void )
{
//-----------------------------------------
// Declare and initialize variables
DWORD dwRetval;
int i = 1;
struct addrinfo *result = NULL;
struct addrinfo *ptr = NULL;
struct sockaddr_in *sockaddr_ipv4;
struct sockaddr_in6 *sockaddr_ipv6;
char ipstringbuffer[46];
DWORD ipbufferlength = 46;
//--------------------------------
// Initialiser la biblioteque Winsock
wsStartup();
//--------------------------------
// Le nom du host dont on veut savoir l'adresse IP
char *host = "";
//--------------------------------
// Appeller getaddrinfo(). Si l'appel reussi,
// la variable result contiendra la liste des
// structures addrinfo avec toutes les adresses du host
dwRetval = getaddrinfo(host, NULL, NULL, &result);
if ( dwRetval != 0 ) {
printf("Erreur %d avec getaddrinfo.\n", dwRetval);
WSACleanup();
return 1;
}
printf("getaddrinfo a reussi!\n");
// Extraire chaque address et afficher son détail
for(ptr = result; ptr != NULL; ptr = ptr->ai_next) {
printf("Adresse # %d\n", i++);
printf("\tFlags: 0x%x\n", ptr->ai_flags);
printf("\tFamille: ");
switch (ptr->ai_family) {
case AF_UNSPEC:
printf("Non spécifiée\n");
break;
case AF_INET:
printf("AF_INET (IPv4)\n");
sockaddr_ipv4 = (struct sockaddr_in *) ptr->ai_addr;
printf("\tAdresse IPv4: %s\n",
inet_ntoa(sockaddr_ipv4->sin_addr) );
break;
case AF_INET6:
printf("AF_INET6 (IPv6)\n");
// the InetNtop function is available on Windows Vista and later
sockaddr_ipv6 = (struct sockaddr_in6 *) ptr->ai_addr;
printf("\tAdresse IPv6: %s\n",
InetNtop(AF_INET6, &sockaddr_ipv6->sin6_addr, ipstringbuffer, 46) );
break;
case AF_NETBIOS:
printf("AF_NETBIOS (NetBIOS)\n");
break;
default:
printf("Autre type %ld\n", ptr->ai_family);
break;
}
printf("\tTaille de cette adresse: %d octets\n", ptr->ai_addrlen);
printf("\tNom canonique: %s\n", ptr->ai_canonname);
}
freeaddrinfo(result);
WSACleanup();
printf("Appuyer une touche pour finir2...\n");
getchar();
return 0;
}
void ConfigureDomainName(const CipUint interface_index) {
CipDword dwSize = 0;
int i = 0;
// Set the flags to pass to GetAdaptersAddresses
CipUdint flags = GAA_FLAG_INCLUDE_PREFIX;
CipDword dwRetVal = 0;
// default to unspecified address family (both)
CipUdint family = AF_UNSPEC;
LPVOID lpMsgBuf = NULL;
PIP_ADAPTER_ADDRESSES pAddresses = NULL;
PIP_ADAPTER_ADDRESSES pCurrAddresses = NULL;
IP_ADAPTER_DNS_SERVER_ADDRESS *pDnServer = NULL;
CipUdint outBufLen = 0;
CipUdint tries = 0;
family = AF_INET;
// Allocate a 15 KB buffer to start with.
outBufLen = WORKING_BUFFER_SIZE;
do {
pAddresses = (IP_ADAPTER_ADDRESSES *)CipCalloc(1,outBufLen);
if (pAddresses == NULL) {
printf
("Memory allocation failed for IP_ADAPTER_ADDRESSES struct\n");
exit(1);
}
dwRetVal =
GetAdaptersAddresses(family, flags, NULL, pAddresses, &outBufLen);
if (dwRetVal == ERROR_BUFFER_OVERFLOW) {
CipFree(pAddresses);
pAddresses = NULL;
}
else {
break;
}
tries++;
} while ( (dwRetVal == ERROR_BUFFER_OVERFLOW) && (tries < MAX_TRIES) );
if (dwRetVal == NO_ERROR) {
// If successful, output some information from the data we received
pCurrAddresses = pAddresses;
while (pCurrAddresses) {
if (interface_index == pCurrAddresses->IfIndex) {
pDnServer = pCurrAddresses->FirstDnsServerAddress;
if (pDnServer) {
for (i = 0; pDnServer != NULL; i++) {
pDnServer = pDnServer->Next;
}
}
char pStringBuf[INET_ADDRSTRLEN];
if (i != 0) {
if (NULL != interface_configuration_.domain_name.string) {
/* if the string is already set to a value we have to free the resources
* before we can set the new value in order to avoid memory leaks.
*/
CipFree(interface_configuration_.domain_name.string);
}
interface_configuration_.domain_name.length = strlen(
pCurrAddresses->DnsSuffix);
if (interface_configuration_.domain_name.length) {
interface_configuration_.domain_name.string = (CipByte *)CipCalloc(
interface_configuration_.domain_name.length + 1,
sizeof(CipUsint) );
strcpy(interface_configuration_.domain_name.string,
pCurrAddresses->DnsSuffix);
}
else {
interface_configuration_.domain_name.string = NULL;
}
InetNtop(AF_INET,
pCurrAddresses->FirstDnsServerAddress->Address.lpSockaddr->sa_data + 2,
interface_configuration_.name_server,
sizeof(interface_configuration_.name_server) );
InetNtop(AF_INET,
pCurrAddresses->FirstDnsServerAddress->Next->Address.lpSockaddr->sa_data + 2,
interface_configuration_.name_server_2,
sizeof(interface_configuration_.name_server_2) );
}
else{ interface_configuration_.domain_name.length = 0;}
}
pCurrAddresses = pCurrAddresses->Next;
}
}
else {
OPENER_TRACE_INFO("Call to GetAdaptersAddresses failed with error: %d\n",
dwRetVal);
if (dwRetVal == ERROR_NO_DATA) {
OPENER_TRACE_INFO(
"\tNo addresses were found for the requested parameters\n");
}
else {
if (FormatMessage(FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL, dwRetVal,
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
// Default language
(LPTSTR)&lpMsgBuf, 0, NULL) ) {
OPENER_TRACE_INFO("\tError: %s", lpMsgBuf);
CipFree(lpMsgBuf);
if (pAddresses) {
CipFree(pAddresses);
}
exit(1);
}
}
}
if (pAddresses) {
CipFree(pAddresses);
}
}
