END_TEST
START_TEST (sockaddr_IPv6_isSet)
{
fail_unless( sockaddr_isSet((struct sockaddr *)sockaddr_IPv6_1),
"isSet failed");
fail_if( sockaddr_isSet(sockaddr_uninit),
"isSet failed");
}
END_TEST
START_TEST (sockaddr_IPv4_isSet)
{
fail_unless( sockaddr_isSet((struct sockaddr *)sockaddr_IPv4_1),
"isSet failed");
}
int sendKeepalive(struct turn_info *turnInfo)
{
char m[] = "KeepAlive";
int len = 0;
if (sockaddr_isSet((struct sockaddr *)&turnInfo->remoteIp4))
{
if (sockaddr_isSet((struct sockaddr *)&turnInfo->turnAlloc_44.relAddrIPv4))
{
len = sendRawUDP(turnInfo->turnAlloc_44.sockfd,
m,
sizeof(m),
(struct sockaddr *)&turnInfo->remoteIp4,
sizeof( struct sockaddr_storage));
}
if (sockaddr_isSet((struct sockaddr *)&turnInfo->turnAlloc_46.relAddrIPv6)){
len = sendRawUDP(turnInfo->turnAlloc_46.sockfd,
m,
sizeof(m),
(struct sockaddr *)&turnInfo->remoteIp4,
sizeof( struct sockaddr_storage));
}
}
if (sockaddr_isSet((struct sockaddr *)&turnInfo->remoteIp6)){
if (sockaddr_isSet((struct sockaddr *)&turnInfo->turnAlloc_64.relAddrIPv4))
{
len = sendRawUDP(turnInfo->turnAlloc_64.sockfd,
m,
sizeof(m),
(struct sockaddr *)&turnInfo->remoteIp6,
sizeof( struct sockaddr_storage));
}
if (sockaddr_isSet((struct sockaddr *)&turnInfo->turnAlloc_66.relAddrIPv6))
{
len = sendRawUDP(turnInfo->turnAlloc_66.sockfd,
m,
sizeof(m),
(struct sockaddr *)&turnInfo->remoteIp6,
sizeof( struct sockaddr_storage));
}
}
return len;
}
bool
CreateConnectivityBindingResp(StunMessage* stunMsg,
StunMsgId transactionId,
const struct sockaddr* mappedSockAddr,
uint8_t reqTrnspCnt,
uint8_t respTrnspCnt,
uint16_t response,
uint32_t responseCode,
DiscussData* discussData)
{
StunIPAddress mappedAddr;
if ( !sockaddr_isSet(mappedSockAddr) )
{
return false;
}
memset(stunMsg, 0, sizeof *stunMsg);
stunMsg->msgHdr.msgType = response;
if (reqTrnspCnt != 0)
{
stunMsg->hasTransCount = true;
stunMsg->transCount.respCnt = respTrnspCnt;
stunMsg->transCount.reqCnt = reqTrnspCnt;
}
if (mappedSockAddr->sa_family == AF_INET)
{
mappedAddr.familyType = STUN_ADDR_IPv4Family;
mappedAddr.addr.v4.port = ntohs(
( (struct sockaddr_in*)mappedSockAddr )->sin_port);
mappedAddr.addr.v4.addr = ntohl(
( (struct sockaddr_in*)mappedSockAddr )->sin_addr.s_addr);
}
else if (mappedSockAddr->sa_family == AF_INET6)
{
mappedAddr.familyType = STUN_ADDR_IPv6Family;
mappedAddr.addr.v6.port = ntohs(
( (struct sockaddr_in6*)mappedSockAddr )->sin6_port);
/*TODO: will this be correct ? */
memcpy( mappedAddr.addr.v6.addr,
( (struct sockaddr_in6*)mappedSockAddr )->sin6_addr.s6_addr,
sizeof(mappedAddr.addr.v6.addr) );
}
else
{
return false;
}
/*id*/
stunMsg->msgHdr.id = transactionId;
/* The XOR address MUST be added according to the RFC */
stunMsg->hasXorMappedAddress = true;
stunMsg->xorMappedAddress = mappedAddr;
if (discussData != NULL)
{
stunMsg->hasStreamType = true;
stunMsg->streamType.type = discussData->streamType;
stunMsg->streamType.interactivity = discussData->interactivity;
stunMsg->hasNetworkStatus = true;
stunMsg->networkStatus.flags = 0;
stunMsg->networkStatus.nodeCnt = 0;
stunMsg->networkStatus.upMaxBandwidth = 0;
stunMsg->networkStatus.downMaxBandwidth = 0;
stunMsg->hasNetworkStatusResp = true;
stunMsg->networkStatusResp.flags =
discussData->networkStatusResp_flags;
stunMsg->networkStatusResp.nodeCnt =
discussData->networkStatusResp_nodeCnt;
stunMsg->networkStatusResp.upMaxBandwidth =
discussData->networkStatusResp_upMaxBandwidth;
stunMsg->networkStatusResp.downMaxBandwidth =
discussData->networkStatusResp_downMaxBandwidth;
}
if (responseCode != 200)
{
stunMsg->hasErrorCode = true;
stunMsg->errorCode.errorClass = responseCode / 100;
stunMsg->errorCode.number = (uint8_t) (responseCode % 100);
if (responseCode == 487)
{
strncpy( stunMsg->errorCode.reason, "Role Conflict",
sizeof (stunMsg->errorCode.reason) );
stunMsg->errorCode.sizeReason = strlen(stunMsg->errorCode.reason);
}
else if (responseCode == 400)
{
strncpy( stunMsg->errorCode.reason, "Bad Request",
sizeof (stunMsg->errorCode.reason) );
stunMsg->errorCode.sizeReason = strlen(stunMsg->errorCode.reason);
}
}
return true;
}
