debug version
Dependents: HTTPClient_WiFi_HelloWorld_src
Fork of SNICInterface by
Socket/UDPSocket.cpp
- Committer:
- kishino
- Date:
- 2014-07-15
- Revision:
- 41:1c1b5ad4d491
- Parent:
- 40:b6b10c22a121
- Child:
- 43:d80bbb12ffe6
File content as of revision 41:1c1b5ad4d491:
/* Copyright (C) 2012 mbed.org, MIT License * * Permission is hereby granted, free of charge, to any person obtaining a copy of this software * and associated documentation files (the "Software"), to deal in the Software without restriction, * including without limitation the rights to use, copy, modify, merge, publish, distribute, * sublicense, and/or sell copies of the Software, and to permit persons to whom the Software is * furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice shall be included in all copies or * substantial portions of the Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING * BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND * NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, * DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. */ /* Copyright (C) 2014 Murata Manufacturing Co.,Ltd., MIT License * port to the muRata, SWITCH SCIENCE Wi-FI module TypeYD SNIC-UART. */ #include "Socket/UDPSocket.h" #include <cstring> UDPSocket::UDPSocket() { } UDPSocket::~UDPSocket() { } int UDPSocket::init(void) { return 0; } // Server initialization int UDPSocket::bind(short port) { int ret; C_SNIC_Core *snic_core_p = C_SNIC_Core::getInstance(); C_SNIC_UartCommandManager *uartCmdMgr_p = snic_core_p->getUartCommand(); // Get local ip address. // Get buffer for response payload from MemoryPool tagMEMPOOL_BLOCK_T *payload_buf_p = snic_core_p->allocCmdBuf(); if( payload_buf_p == NULL ) { DEBUG_PRINT("UDP bind payload_buf_p NULL\r\n"); return -1; } C_SNIC_Core::tagSNIC_GET_DHCP_INFO_REQ_T req; // Make request req.cmd_sid = UART_CMD_SID_SNIC_GET_DHCP_INFO_REQ; req.seq = mUartRequestSeq++; req.interface = 0; unsigned char *command_array_p = snic_core_p->getCommandBuf(); unsigned int command_len; // Preparation of command command_len = snic_core_p->preparationSendCommand( UART_CMD_ID_SNIC, req.cmd_sid, (unsigned char *)&req , sizeof(C_SNIC_Core::tagSNIC_GET_DHCP_INFO_REQ_T), payload_buf_p->buf, command_array_p ); // Send uart command request snic_core_p->sendUart( command_len, command_array_p ); // Wait UART response ret = uartCmdMgr_p->wait(); if( ret != 0 ) { DEBUG_PRINT( "UDP bind failed\r\n" ); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } if( uartCmdMgr_p->getCommandStatus() != UART_CMD_RES_SNIC_SUCCESS ) { DEBUG_PRINT("UDP bind status:%02x\r\n", uartCmdMgr_p->getCommandStatus()); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } unsigned int local_addr = (payload_buf_p->buf[9] << 24) | (payload_buf_p->buf[10] << 16) | (payload_buf_p->buf[11] << 8) | (payload_buf_p->buf[12]); C_SNIC_Core::tagSNIC_UDP_CREATE_SOCKET_REQ_T create_req; // Make request create_req.cmd_sid = UART_CMD_SID_SNIC_UDP_CREATE_SOCKET_REQ; create_req.seq = mUartRequestSeq++; create_req.bind = 1; // set ip addr ( byte order ) C_SNIC_UartMsgUtil::convertIntToByteAdday( local_addr, (char *)create_req.local_addr ); create_req.local_port[0] = ( (port & 0xFF00) >> 8 ); create_req.local_port[1] = (port & 0xFF); // Preparation of command command_len = snic_core_p->preparationSendCommand( UART_CMD_ID_SNIC, create_req.cmd_sid, (unsigned char *)&create_req , sizeof(C_SNIC_Core::tagSNIC_UDP_CREATE_SOCKET_REQ_T), payload_buf_p->buf, command_array_p ); // Send uart command request snic_core_p->sendUart( command_len, command_array_p ); // Wait UART response ret = uartCmdMgr_p->wait(); if( ret != 0 ) { DEBUG_PRINT( "UDP bind failed\r\n" ); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } if( uartCmdMgr_p->getCommandStatus() != 0 ) { DEBUG_PRINT("UDP bind status:%02x\r\n", uartCmdMgr_p->getCommandStatus()); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } mSocketID = payload_buf_p->buf[3]; C_SNIC_Core::tagSNIC_UDP_START_RECV_REQ_T recv_start_req; // Make request recv_start_req.cmd_sid = UART_CMD_SID_SNIC_UDP_START_RECV_REQ; recv_start_req.seq = mUartRequestSeq++; recv_start_req.socket_id = mSocketID; recv_start_req.recv_bufsize[0] = ( (SNIC_UART_RECVBUF_SIZE & 0xFF00) >> 8 ); recv_start_req.recv_bufsize[1] = (SNIC_UART_RECVBUF_SIZE & 0xFF); // Preparation of command command_len = snic_core_p->preparationSendCommand( UART_CMD_ID_SNIC, recv_start_req.cmd_sid, (unsigned char *)&recv_start_req , sizeof(C_SNIC_Core::tagSNIC_UDP_START_RECV_REQ_T), payload_buf_p->buf, command_array_p ); // Send uart command request snic_core_p->sendUart( command_len, command_array_p ); // Wait UART response ret = uartCmdMgr_p->wait(); if( ret != 0 ) { DEBUG_PRINT( "UDP recv start failed\r\n" ); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } if( uartCmdMgr_p->getCommandStatus() != 0 ) { DEBUG_PRINT("UDP recv start status:%02x\r\n", uartCmdMgr_p->getCommandStatus()); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } snic_core_p->freeCmdBuf( payload_buf_p ); return 0; } // -1 if unsuccessful, else number of bytes written int UDPSocket::sendTo(Endpoint &remote, char *packet, int length) { C_SNIC_Core *snic_core_p = C_SNIC_Core::getInstance(); C_SNIC_UartCommandManager *uartCmdMgr_p = snic_core_p->getUartCommand(); // Get buffer for response payload from MemoryPool tagMEMPOOL_BLOCK_T *payload_buf_p = snic_core_p->allocCmdBuf(); if( payload_buf_p == NULL ) { DEBUG_PRINT("connect payload_buf_p NULL\r\n"); return -1; } C_SNIC_Core::tagSNIC_UDP_SIMPLE_SEND_REQ_T req; // Make request req.cmd_sid = UART_CMD_SID_SNIC_UDP_SIMPLE_SEND_REQ; req.seq = mUartRequestSeq++; int addr_temp; addr_temp = C_SNIC_UartMsgUtil::addrToInteger( remote.get_address() ); C_SNIC_UartMsgUtil::convertIntToByteAdday( addr_temp, (char *)req.remote_ip ); req.remote_port[0]= ( (remote.get_port() & 0xFF00) >> 8 ); req.remote_port[1]= (remote.get_port() & 0xFF); req.payload_len[0]= ( (length & 0xFF00) >> 8 ); req.payload_len[1]= (length & 0xFF); int req_size = sizeof(C_SNIC_Core::tagSNIC_UDP_SIMPLE_SEND_REQ_T); char *send_buf_p = getSocketSendBuf(); memcpy( send_buf_p, &req, req_size ); memcpy( &send_buf_p[req_size], packet, length ); unsigned char *command_array_p = snic_core_p->getCommandBuf(); unsigned int command_len; // Preparation of command command_len = snic_core_p->preparationSendCommand( UART_CMD_ID_SNIC, req.cmd_sid, (unsigned char *)send_buf_p , req_size + length, payload_buf_p->buf, command_array_p ); // Send uart command request snic_core_p->sendUart( command_len, command_array_p ); // Wait UART response int ret = uartCmdMgr_p->wait(); if( ret != 0 ) { DEBUG_PRINT( "send failed\r\n" ); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } if( uartCmdMgr_p->getCommandStatus() != UART_CMD_RES_SNIC_SUCCESS ) { DEBUG_PRINT("send status:%02x\r\n", uartCmdMgr_p->getCommandStatus()); snic_core_p->freeCmdBuf( payload_buf_p ); return -1; } snic_core_p->freeCmdBuf( payload_buf_p ); // SNIC_SEND_FROM_SOCKET_REQ return 0; } // -1 if unsuccessful, else number of bytes received int UDPSocket::receiveFrom(Endpoint &remote, char *data_p, int length) { if( (data_p == NULL) || (length < 1) ) { DEBUG_PRINT("UDPSocket::receiveFrom parameter error\r\n"); return -1; } C_SNIC_Core *snic_core_p = C_SNIC_Core::getInstance(); // Initialize connection information C_SNIC_Core::tagUDP_RECVINFO_T *con_info_p = snic_core_p->getUdpRecvInfo( mSocketID ); if( con_info_p->recvbuf_p == NULL ) { // DEBUG_PRINT("UDPSocket::receiveFrom Conncection info error\r\n"); return 0; } if( con_info_p->is_received == false ) { return 0; } char remote_ip[20] = {'\0'}; sprintf( remote_ip, "%d.%d.%d.%d" , (con_info_p->from_ip >>24) & 0x000000ff , (con_info_p->from_ip >>16) & 0x000000ff , (con_info_p->from_ip >>8) & 0x000000ff , (con_info_p->from_ip) & 0x000000ff ); remote.set_address( remote_ip, con_info_p->from_port ); int i; // Get packet data from buffer for receive. for (i = 0; i < length; i ++) { if (con_info_p->recvbuf_p->dequeue(&data_p[i]) == false) { break; } } if( con_info_p->recvbuf_p->isEmpty() ) { con_info_p->mutex.lock(); con_info_p->is_received = false; con_info_p->mutex.unlock(); } return i; }