FreeCalypso > hg > fc-tourmaline
view src/g23m-fad/tcpip/tcpip_api_layer.c @ 273:5caa86ee2cfa
enable L1_NEW_AEC in l1_confg.h (bold change)
The AEC function implemented in DSP ROM 3606 on the Calypso silicon
we work with is the one that corresponds to L1_NEW_AEC; the same holds
for DSP 34 and even for DSP 33 with more recent patch versions.
However, TI shipped their TCS211 reference fw with L1_NEW_AEC set to 0,
thus driving AEC the old way if anyone tried to enable it, either via
AT%Nxxxx or via the audio mode facility. As a result, the fw would
try to control features which no longer exist in the DSP (long vs short
echo and the old echo suppression level bits), while providing no way
to tune the 8 new parameter words added to the DSP's NDB page.
The only sensible solution is to bite the bullet and enable L1_NEW_AEC
in L1 config, with fallout propagating into RiViera Audio Service
T_AUDIO_AEC_CFG structure and into /aud/*.cfg binary file format.
The latter fallout will be addressed in further code changes.
author | Mychaela Falconia <falcon@freecalypso.org> |
---|---|
date | Thu, 29 Jul 2021 18:32:40 +0000 |
parents | fa8dc04885d8 |
children |
line wrap: on
line source
/* +------------------------------------------------------------------------------ | File: tcpip_api_layer.c +------------------------------------------------------------------------------ | Copyright 2003 Texas Instruments Berlin, AG | All rights reserved. | | This file is confidential and a trade secret of Texas | Instruments Berlin, AG | The receipt of or possession of this file does not convey | any rights to reproduce or disclose its contents or to | manufacture, use, or sell anything it may describe, in | whole, or in part, without the specific written consent of | Texas Instruments Berlin, AG. +----------------------------------------------------------------------------- | Purpose : GPF-based TCP/IP's glue layer towards the socket API. +----------------------------------------------------------------------------- */ #define TCPIP_API_LAYER_C #define ENTITY_TCPIP /*==== INCLUDES =============================================================*/ #include <string.h> /* String functions, e. g. strncpy(). */ #include "typedefs.h" /* to get Condat data types */ #include "vsi.h" /* to get a lot of macros */ #include "custom.h" #include "gsm.h" /* to get a lot of macros */ #include "prim.h" /* to get the definitions of used SAP and directions */ #include "pei.h" /* to get PEI interface */ #include "tools.h" /* to get common tools */ #include "dti.h" /* For DTI library definitions. */ #include "glob_defs.h" #include "tcpip.h" /* to get the global entity definitions */ #include "tcpip_int.h" /* RNET includes */ #include "rv_general.h" #include "rnet_api.h" #include "rnet_rt_env.h" #include "rnet_message.h" #include "rnet_rt_i.h" /* NexGenIP includes */ #include <ngip/if.h> #ifdef _SIMULATION_ #include "tcpip_sim_utils.h" /* Utilities for use in the simulation. */ #endif /* _SIMULATION_ */ /*==== Local prototypes =====================================================*/ /*==== Macros ===============================================================*/ /* Two macros to go from socket descriptor to sock_table[] index and vice * versa. */ #define SOCK_S_INDEX(desc) (SOCKPAR_GET(desc)->s_index) #define SOCK_RT_DESC(s_index) (sock_table[s_index]->rtdesc) /* Retrieve the parameter block associated with a socket descriptor (as * user_data). */ #define SOCKPAR_GET(socket) ((T_sockpar *) rnet_get_user_data(socket)) /* Check if there is a valid socket for the specified socket index. */ #define INVALID_S_INDEX(socket) \ ((socket) >= RNET_RT_SOCK_MAX OR sock_table[socket] EQ NULL) /* We don't have a fixed value for the application handle (there will be more * than one). TCPIP wants to send a message to itself, so it is not convenient * to redirect all primitives, so we use the MMI handle for the application * for testing. This will then be redirected to the TAP. */ #ifdef _SIMULATION_ #define APP_HANDLE hCommMMI #else /* _SIMULATION_ */ #define APP_HANDLE app_handle #endif /* _SIMULATION_ */ /*==== Types ================================================================*/ /* This struct is to be associated to a socket descriptor as user_data in * order to provide context for the event handler functions. The struct is * zero-initialized, so all default values must be zero. * * Pointers to these structures are kept in sock_table[]. */ typedef struct sock_params { int s_index ; /* Index in socket table. */ T_RNET_DESC *rtdesc ; /* The RNET_RT socket descriptor. */ T_HANDLE app_handle ; /* Communication handle of application * entity. */ U8 ipproto ; /* IP protocol number of socket. */ U32 request_id ; /* Request identification (if present). */ U32 expected_event ; /* The event we are waiting for on this * connection. This is necessary * for error handling, because the * RNET_ERROR_IND function gets no information * *which* request caused the error. */ BOOL is_connected ; /* Connected UDP or TCP socket. (NexGenIP does * not give us an error code when we try to * send on a non-connected socket, so we have * to maintain this status by ourselves in * order to report the error to the * application. */ BOOL recv_waiting ; /* TRUE iff incoming data is (or might be) * available. */ BOOL appl_xoff ; /* TRUE iff flow control to the application is * in "xoff" status. */ struct { U16 total_length ; /* Total length of buffer, zero if no data is * waiting. */ U16 offset ; /* Offset of first byte not yet sent. */ U8 *buffer ; /* Pointer to data buffer waiting to be * sent. */ } send ; } T_sockpar ; /*==== Local data ===========================================================*/ /* Table of active socket descriptors; provides the mapping between the small * integers used in the primitives and the actual RNET socket descriptors. */ static T_sockpar *sock_table[RNET_RT_SOCK_MAX] ; /*==== Primitive sender functions ===========================================*/ /** Confirm the result of a TCPIP_INITIALIZE_REQ. * * @param result Result of the initialization. */ static void tcpip_initialize_cnf(U8 result) { TRACE_FUNCTION("tcpip_initialize_cnf()") ; { PALLOC(prim, TCPIP_INITIALIZE_CNF) ; prim->result = result ; PSENDX(MMI, prim) ; } } /** Confirm the result of a TCPIP_SHUTDOWN_REQ * * @param result Result of the shutdown. */ static void tcpip_shutdown_cnf(U8 result) { TRACE_FUNCTION("tcpip_shutdown_cnf()") ; { PALLOC(prim, TCPIP_SHUTDOWN_CNF) ; prim->result = result ; PSENDX(MMI, prim) ; } } /** Confirm the result of a TCPIP_IFCONFIG_REQ * * @param result Result of the configuration. */ static void tcpip_ifconfig_cnf(U8 result) { TRACE_FUNCTION("tcpip_ifconfig_cnf()") ; { PALLOC(prim, TCPIP_IFCONFIG_CNF) ; prim->result = result ; PSENDX(MMI, prim) ; } } /** Confirm the result of a TCPIP_DTI_REQ. This function is called * from tcpip_dti.c, so it must not be static. * * @param dti_conn Indicates whether the DTI link is to be established or * disconnected * @param link_id DTI link identifier */ void tcpip_dti_cnf(U8 dti_conn, U32 link_id) { TRACE_FUNCTION("tcpip_dti_cnf()") ; { PALLOC(prim, TCPIP_DTI_CNF) ; prim->dti_conn = dti_conn ; prim->link_id = link_id ; PSENDX(MMI, prim) ; } } /** Confirm the result of a TCPIP_CREATE_REQ. * * @param app_handle Communication handle of requesting task. * @param result Result of the operation. * @param socket Index of newly created socket (if OK). * @param request_id Request ID as passed in TCPIP_CREATE_REQ. */ static void tcpip_create_cnf(T_HANDLE app_handle, U8 result, int socket, U32 request_id) { TRACE_FUNCTION("tcpip_create_cnf()") ; TRACE_EVENT_P1("app_handle %d",APP_HANDLE); { PALLOC(prim, TCPIP_CREATE_CNF) ; prim->event_type = TCPIP_EVT_CREATE_CNF ; prim->result = result ; prim->socket = socket ; prim->request_id = request_id ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_CLOSE_REQ. * * @param app_handle Communication handle of requesting task. * @param result Result of the operation. * @param socket Index of (no longer valid) socket. */ static void tcpip_close_cnf(T_HANDLE app_handle, U8 result, int socket) { TRACE_FUNCTION("tcpip_close_cnf()") ; { PALLOC(prim, TCPIP_CLOSE_CNF) ; prim->event_type = TCPIP_EVT_CLOSE_CNF ; prim->result = result ; prim->socket = socket ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_BIND_REQ. * * @param app_handle Communication handle of requesting task. * @param result Result of the operation. * @param socket Index of the socket. */ static void tcpip_bind_cnf(T_HANDLE app_handle, U8 result, int socket) { TRACE_FUNCTION("tcpip_bind_cnf()") ; { PALLOC(prim, TCPIP_BIND_CNF) ; prim->event_type = TCPIP_EVT_BIND_CNF ; prim->result = result ; prim->socket = socket ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_LISTEN_REQ. * * @param app_handle Communication handle of requesting task. * @param result Result of the operation. * @param socket Index of the socket. */ static void tcpip_listen_cnf(T_HANDLE app_handle, U8 result, int socket) { TRACE_FUNCTION("tcpip_listen_cnf()") ; { PALLOC(prim, TCPIP_LISTEN_CNF) ; prim->event_type = TCPIP_EVT_LISTEN_CNF ; prim->result = result ; prim->socket = socket ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_CONNECT_REQ. * * @param app_handle Communication handle of requesting task. * @param result Result of the operation. * @param socket Index of the socket. */ static void tcpip_connect_cnf(T_HANDLE app_handle, U8 result, int socket) { TRACE_FUNCTION("tcpip_connect_cnf()") ; { PALLOC(prim, TCPIP_CONNECT_CNF) ; prim->event_type = TCPIP_EVT_CONNECT_CNF ; prim->result = result ; prim->socket = socket ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_DATA_REQ. * * @param app_handle Communication handle of requesting task. * @param result Result of the operation. * @param socket Index of the socket. * @param window Window size for sender. */ static void tcpip_data_cnf(T_HANDLE app_handle, U8 result, int socket, U16 window) { TRACE_FUNCTION("tcpip_data_cnf()") ; { PALLOC(prim, TCPIP_DATA_CNF) ; prim->event_type = TCPIP_EVT_FLOW_READY_IND ; prim->result = result ; prim->socket = socket ; prim->window = window ; PSEND(APP_HANDLE, prim) ; } } /** Indicate incoming data. * * @param app_handle Communication handle of requesting task. * @param result Result of the operation. * @param socket Index of the socket. * @param ipaddr Source IP address. * @param port Source port number. * @param buflen Length of payload data. * @param data Adress of payload data buffer. */ static void tcpip_data_ind(T_HANDLE app_handle, U8 result, int socket, U32 ipaddr, U16 port, U16 buflen, U8 *data) { TRACE_FUNCTION("tcpip_data_ind()") ; { PALLOC(prim, TCPIP_DATA_IND) ; prim->event_type = TCPIP_EVT_RECV_IND ; /* Unfortunately not _DATA_IND */ prim->result = result ; prim->socket = socket ; prim->ipaddr = ipaddr ; prim->port = port ; prim->buflen = buflen ; prim->data = (U32) data ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_SOCKNAME_REQ. * * @param app_handle Communication handle of the requesting task. * @param result Result of the operation. * @param socket Index of the socket. * @param ipaddr IP address of the socket. * @param port Port number of the socket. */ static void tcpip_sockname_cnf(T_HANDLE app_handle, U8 result, int socket, U32 ipaddr, U16 port) { TRACE_FUNCTION("tcpip_sockname_cnf()") ; { PALLOC(prim, TCPIP_SOCKNAME_CNF) ; prim->event_type = TCPIP_EVT_SOCKNAME_CNF ; prim->result = result ; prim->socket = socket ; prim->ipaddr = ipaddr ; prim->port = port ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_PEERNAME_REQ. * * @param app_handle Communication handle of the requesting task. * @param result Result of the operation. * @param socket Index of the socket. * @param ipaddr IP address of the remote peer. * @param port Remore port number of the socket. */ static void tcpip_peername_cnf(T_HANDLE app_handle, U8 result, int socket, U32 ipaddr, U16 port) { TRACE_FUNCTION("tcpip_peername_cnf()") ; { PALLOC(prim, TCPIP_PEERNAME_CNF) ; prim->event_type = TCPIP_EVT_PEERNAME_CNF ; prim->result = result ; prim->socket = socket ; prim->ipaddr = ipaddr ; prim->port = port ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_HOSTINFO_REQ. * * @param app_handle Communication handle of the requesting task. * @param result Result of the operation. * @param request_id Request ID as passed in TCPIP_CREATE_REQ. * @param hostname Full-qualified domain name of the host, may be NULL. * @param ipaddr IP address of the host. */ static void tcpip_hostinfo_cnf(T_HANDLE app_handle, U8 result, U32 request_id, char *hostname, U32 ipaddr) { TRACE_FUNCTION("tcpip_hostinfo_cnf()") ; { PALLOC(prim, TCPIP_HOSTINFO_CNF) ; prim->event_type = TCPIP_EVT_HOSTINFO_CNF ; prim->result = result ; prim->request_id = request_id ; if (hostname NEQ NULL) { strncpy((char *) prim->hostname, hostname, TCPIP_HNAMELEN) ; prim->hostname[TCPIP_HNAMELEN-1] = '\0' ; } else { prim->hostname[0] = '\0' ; } prim->ipaddr = ipaddr ; PSEND(APP_HANDLE, prim) ; } } /** Confirm the result of a TCPIP_MTU_SIZE_REQ. * * @param app_handle Communication handle of the requesting task. * @param result Result of the operation. * @param socket Index of the socket. * @param mtu_size Size of the MTU. */ static void tcpip_mtu_size_cnf(T_HANDLE app_handle, U8 result, int socket, U16 mtu_size) { TRACE_FUNCTION("tcpip_mtu_size_cnf()") ; { PALLOC(prim, TCPIP_MTU_SIZE_CNF) ; prim->event_type = TCPIP_EVT_MTU_SIZE_CNF ; prim->result = result ; prim->socket = socket ; prim->mtu_size = mtu_size ; PSEND(APP_HANDLE, prim) ; } } /** Indicate an incoming TCP connection. * * @param app_handle Communication handle of the task. * @param socket Index of the listening socket. * @param new_socket New socket for this connection. * @param ipaddr IP address of the remote peer. * @param port Remore port number of the socket. */ static void tcpip_connect_ind(T_HANDLE app_handle, int socket, int new_socket, U32 ipaddr, U16 port) { TRACE_FUNCTION("tcpip_connect_ind()") ; { PALLOC(prim, TCPIP_CONNECT_IND) ; prim->event_type = TCPIP_EVT_CONNECT_IND ; prim->result = TCPIP_RESULT_OK ; prim->socket = socket ; prim->new_socket = new_socket ; prim->ipaddr = ngHTONL(ipaddr) ; prim->port = ngHTONS(port) ; PSEND(APP_HANDLE, prim) ; } } /** Indicate that a connection has been closed. * * @param app_handle Communication handle of the task. * @param socket Index of the socket. */ static void tcpip_conn_closed_ind(T_HANDLE app_handle, int socket) { TRACE_FUNCTION("tcpip_conn_closed_ind()") ; { PALLOC(prim, TCPIP_CONN_CLOSED_IND) ; prim->event_type = TCPIP_EVT_CONN_CLOSED_IND ; prim->result = TCPIP_RESULT_OK ; prim->socket = socket ; PSEND(APP_HANDLE, prim) ; } } /** Indicate an asynchronous error on a socket. * * @param app_handle Communication handle of the task. * @param result Result code of the error. * @param socket Index of the socket. */ static void tcpip_error_ind(T_HANDLE app_handle, U8 result, int socket) { TRACE_FUNCTION("tcpip_error_ind()") ; { PALLOC(prim, TCPIP_ERROR_IND) ; prim->event_type = TCPIP_EVT_ERROR_IND ; prim->result = result ; prim->socket = socket ; PSEND(APP_HANDLE, prim) ; } } /** Send a message to self. * * @param msg_p pointer to message * @param msg_id message identification */ void tcpip_send_internal_ind(U32 msg_p, U32 msg_id) { TRACE_FUNCTION("tcpip_send_internal_ind()") ; { PALLOC(prim, TCPIP_INTERNAL_IND) ; prim->msg_p = msg_p ; prim->msg_id = msg_id ; PSEND(hCommTCPIP, prim) ; } } /*==== Local utility functions ==============================================*/ /** Allocate a new socket parameter block, initialize it with the given * parameters, and put it into the list. Allocate a slot in the sock_table[] * and fill it. If we cannot allocate a slot, return NULL. This is considered * an internal error, because we *have* a slot free for each possible socket. * * @param socket The socket descriptor (if applicable). * @param app_handle Communication handle of application task. * @param request_id Request identification (if applicable). * @return a pointer to the sock_params struct or NULL on error. */ static T_sockpar *sockpar_new(T_RNET_DESC *socket, T_HANDLE app_handle, U8 ipproto, U32 request_id) { T_sockpar *sp ; /* Pointer to new struct. */ int sti ; /* Socket table index. */ TRACE_FUNCTION("sockpar_new()") ; /* Allocate and enqueue. */ MALLOC(sp, sizeof(T_sockpar)) ; /* TRACE_EVENT_P1("MALLOC gives us %08x", sp) ; */ memset(sp, 0, sizeof(T_sockpar)) ; sp->rtdesc = socket ; sp->app_handle = app_handle ; sp->ipproto = ipproto ; sp->request_id = request_id ; for (sti = 0; sti < RNET_RT_SOCK_MAX; sti++) { if (sock_table[sti] EQ NULL) { sock_table[sti] = sp ; sp->s_index = sti ; return sp ; } } /* No free slot in table found -- this must be an error, because we have a * slot for each possible socket. */ TRACE_ERROR("No free slot in sock_table[] found") ; /* TRACE_EVENT_P1("We MFREE %08x", sp) ; */ MFREE(sp) ; return NULL ; } /** Dequeue and deallocate a socket parameter block. Free the slot in * sock_table[]. * * @param sp Pointer to sock_params struct. */ static void sockpar_delete(T_sockpar *sp) { TRACE_FUNCTION("sockpar_delete()") ; sock_table[sp->s_index] = 0 ; /* TRACE_EVENT_P1("We MFREE %08x", sp) ; */ MFREE(sp) ; } /** Clear the send buffer of a socket parameter block and free the associated * data. * * @param sockpar The socket parameter block. */ static void tcpip_clear_send_buffer(T_sockpar *sockpar) { sockpar->send.total_length = 0 ; sockpar->send.offset = 0 ; #ifndef _SIMULATION_ /* The simulation would crash in the MFREE(), as the send.buffer is not a * frame-allocated piece of memory. */ /* TRACE_EVENT_P1("MFREE sockpar->send.buffer %x", sockpar->send.buffer) ; */ MFREE(sockpar->send.buffer) ; #endif /* _SIMULATION_ */ sockpar->send.buffer = NULL ; } /** Convert an RNET error code to the appropriate TCPIP result code. * * @param rnet_ret The RNET error code. * @return The TCPIP result code. */ static U8 rnet_error_to_tcpip_result(T_RNET_RET rnet_ret) { switch (rnet_ret) { case RNET_OK: TRACE_EVENT("RNET_OK -> TCPIP_RESULT_OK") ; return TCPIP_RESULT_OK ; case RNET_MEMORY_ERR: TRACE_EVENT("RNET_MEMORY_ERR -> TCPIP_RESULT_OUT_OF_MEMORY") ; return TCPIP_RESULT_OUT_OF_MEMORY ; case RNET_INVALID_PARAMETER: TRACE_EVENT("RNET_INVALID_PARAMETER -> TCPIP_RESULT_INVALID_PARAMETER") ; return TCPIP_RESULT_INVALID_PARAMETER ; case RNET_NOT_SUPPORTED: TRACE_EVENT("RNET_NOT_SUPPORTED -> TCPIP_RESULT_NOT_SUPPORTED") ; return TCPIP_RESULT_NOT_SUPPORTED ; case RNET_NOT_READY: TRACE_EVENT("RNET_NOT_READY -> TCPIP_RESULT_NOT_READY") ; return TCPIP_RESULT_NOT_READY ; case RNET_INTERNAL_ERR: TRACE_EVENT("RNET_INTERNAL_ERR -> TCPIP_RESULT_INTERNAL_ERROR") ; return TCPIP_RESULT_INTERNAL_ERROR ; case RNET_IN_USE: TRACE_EVENT("RNET_IN_USE -> TCPIP_RESULT_ADDR_IN_USE") ; return TCPIP_RESULT_ADDR_IN_USE ; case RNET_NOT_INITIALIZED: TRACE_EVENT("RNET_NOT_INITIALIZED -> TCPIP_RESULT_NOT_READY") ; return TCPIP_RESULT_NOT_READY ; case RNET_NET_UNREACHABLE: TRACE_EVENT("RNET_NET_UNREACHABLE -> TCPIP_RESULT_UNREACHABLE") ; return TCPIP_RESULT_UNREACHABLE ; case RNET_TIMEOUT: TRACE_EVENT("RNET_TIMEOUT -> TCPIP_RESULT_TIMEOUT") ; return TCPIP_RESULT_TIMEOUT ; case RNET_CONN_REFUSED: TRACE_EVENT("RNET_CONN_REFUSED -> TCPIP_RESULT_CONN_REFUSED") ; return TCPIP_RESULT_CONN_REFUSED ; case RNET_CONN_RESET: TRACE_EVENT("RNET_CONN_RESET -> TCPIP_RESULT_CONN_RESET") ; return TCPIP_RESULT_CONN_RESET ; case RNET_CONN_ABORTED: TRACE_EVENT("RNET_CONN_ABORTED -> TCPIP_RESULT_CONN_ABORTED") ; return TCPIP_RESULT_CONN_ABORTED ; case RNET_MSG_SIZE: TRACE_EVENT("RNET_MSG_SIZE -> TCPIP_RESULT_MSG_TOO_BIG") ; return TCPIP_RESULT_MSG_TOO_BIG ; case RNET_HOST_NOT_FOUND: TRACE_EVENT("RNET_HOST_NOT_FOUND -> TCPIP_RESULT_HOST_NOT_FOUND") ; return TCPIP_RESULT_HOST_NOT_FOUND ; /* The following should not be delivered as a result code: */ case RNET_CONN_CLOSED: TRACE_EVENT("RNET_CONN_CLOSED -> TCPIP_RESULT_INTERNAL_ERROR") ; return TCPIP_RESULT_INTERNAL_ERROR ; case RNET_PARTIAL_SENT: TRACE_EVENT("RNET_PARTIAL_SENT -> TCPIP_RESULT_INTERNAL_ERROR") ; return TCPIP_RESULT_INTERNAL_ERROR ; default: TRACE_EVENT_P1("unknown (%d) ->TCPIP_RESULT_INTERNAL_ERROR", rnet_ret) ; return TCPIP_RESULT_INTERNAL_ERROR ; } } /** Read incoming data (from TCP/IP to the application). This function is * called only when the flow control status towards the application is in xon * state. * * @param sockpar Socket parameter block. */ static void tcpip_read_incoming_to_app(T_sockpar *sockpar) { U8 *buffer ; /* Payload data buffer. */ U16 length ; /* Payload data length. */ T_RNET_RET retval ; /* Return value of rnet_recv(). */ T_RNET_IP_ADDR ipaddr ; /* IP address of sender. */ T_RNET_PORT port ; /* Port numer at remote end. */ TRACE_FUNCTION("tcpip_read_incoming_to_app()") ; /* If flow control status is off, we must not send incoming data. */ if (sockpar->appl_xoff) { TRACE_EVENT("tcpip_read_incoming_to_app() called in xoff state") ; return ; } /* We don't expect to read packets larger than this. To be precise, we * aren't able to. */ MALLOC(buffer, TCPIP_DEFAULT_MTU_SIZE) ; /* TRACE_EVENT_P1("MALLOC gives us %08x", buffer) ; */ length = TCPIP_DEFAULT_MTU_SIZE ; /* Should be unspecified for TCP; will be set by rnet_recv_from() for * UDP. */ ipaddr = TCPIP_UNSPECIFIED_IPADDR ; port = TCPIP_UNSPECIFIED_PORT ; switch (sockpar->ipproto) { case TCPIP_IPPROTO_TCP: TRACE_EVENT_P2("Calling rnet_recv() for socket %d length %d", sockpar->s_index, length) ; retval = rnet_recv(sockpar->rtdesc, buffer, &length) ; TRACE_EVENT_P2("rnet_recv() returns %d length %d", retval, length) ; break ; case TCPIP_IPPROTO_UDP: /* Need to read sender address with UDP. */ TRACE_EVENT_P4("Calling rnet_recv_from() for socket %d length %d " "ipaddr %x port %d", sockpar->s_index, length, ipaddr, port) ; retval = rnet_recv_from(sockpar->rtdesc, buffer, &length, &ipaddr, &port) ; TRACE_EVENT_P4("rnet_recv_from() returns %d length %d ipaddr %x port %d", retval, length, ipaddr, port) ; break ; default: retval = RNET_INVALID_PARAMETER ; TRACE_ERROR("tcpip_read_incoming_to_app: unknown IP protocol") ; break ; } if (retval EQ RNET_OK) { /* Only if the length is zero, there is no more data waiting. */ if (length EQ 0) { sockpar->recv_waiting = FALSE ; /* TRACE_EVENT_P1("We MFREE %08x", buffer) ; */ MFREE(buffer) ; } else { /* We use an effective window size of zero, so flow control status is * xoff after sending a primitive. */ tcpip_data_ind(sockpar->app_handle, TCPIP_RESULT_OK, sockpar->s_index, ipaddr, port, length, buffer) ; TRACE_EVENT("switch flow control towards application to xoff") ; dti_stop(tcpip_data->dti_handle, 0, TCPIP_DTI_TO_LOWER_LAYER, 0) ; // Add one flow control to not allow SNDCP send next data package. OMAPS00172999 05132008 sockpar->appl_xoff = TRUE ; #ifdef _SIMULATION_ /* In the simulation, free the buffer -- it is meaningless for the TAP * and will not be freed at any other place. */ MFREE(buffer) ; #endif /* _SIMULATION_ */ } } else /* retval != RNET_OK */ { /* TRACE_EVENT_P1("We MFREE %08x", buffer) ; */ MFREE(buffer) ; tcpip_error_ind(sockpar->app_handle, rnet_error_to_tcpip_result(retval), sockpar->s_index) ; } } /** Try to send data over RNET. To be called after the application has sent * data, and if we have waiting data and RNET has signalled that we may send * again. * * @param sockpar Socket parameter block. */ static void tcpip_try_send_data(T_sockpar *sockpar) { U16 length ; /* Length of data to send or sent. */ T_RNET_RET retval ; /* Return value of rnet_send(). */ TRACE_FUNCTION("tcpip_try_send_data()") ; if (sockpar->send.total_length EQ 0) { TRACE_ERROR("tcpip_try_send_data: called although no data present") ; } else { length = sockpar->send.total_length - sockpar->send.offset ; TRACE_EVENT_P2("Calling rnet_send() socket %d length %d", sockpar->s_index, length) ; retval = rnet_send(sockpar->rtdesc, sockpar->send.buffer, &length) ; TRACE_EVENT_P2("rnet_send() returns %d length %d", retval, length) ; switch (retval) { case RNET_OK: /* We could send all data, so clear send * buffer and send a confirmation to the * application. */ tcpip_clear_send_buffer(sockpar) ; tcpip_data_cnf(sockpar->app_handle, TCPIP_RESULT_OK, sockpar->s_index, TCPIP_DEFAULT_WINDOW) ; break ; case RNET_PARTIAL_SENT: /* Not all of the data could be sent. We * update the send buffer offset and wait for * an RNET_SEND_RDY event to continue. */ sockpar->send.offset += length ; break ; default: /* Every other return value indicates an * error. We translate the return value to our * result codes and send an error indication * to the application. The data will no longer * be needed and is freed. */ tcpip_clear_send_buffer(sockpar) ; tcpip_data_cnf(sockpar->app_handle, rnet_error_to_tcpip_result(retval), sockpar->s_index, TCPIP_DEFAULT_WINDOW) ; break ; } } } /** Initialize RNET and the data of the TCPIP entity. * * This in a separate function to make control flow more elegant -- this way * we can jump out of the initialization sequence without having to use a * goto. * * @return a result code with the usual semantics */ static U8 tcpip_do_initialization(void) { static T_RVF_MB_ID entity_bk_id_table[8]; static T_RV_RETURN_PATH entity_return_pathes[8]; T_RNET_RET retval ; /* Return value of RNET initialisation. */ TRACE_FUNCTION("tcpip_do_initialization()") ; if (tcpip_data->is_initialized) { TRACE_ERROR("initialization called although tcpip_data->is_initialized") ; return TCPIP_RESULT_INTERNAL_ERROR ; } memset(sock_table,0,sizeof(sock_table)); /* quite ad-hoc: both arrays "entity_return_pathes", "entity_bk_id_table" are uninitialized and arbitrarily set to length 8. last param, call_back_error_ft function, undefined. */ rnet_rt_set_info((T_RVF_ADDR_ID) tcpip_handle, entity_return_pathes, entity_bk_id_table, 0); retval = (T_RNET_RET)rnet_rt_init() ; if (retval NEQ RNET_OK ) { TRACE_ERROR("rnet_rt_init() != RV_OK") ; return rnet_error_to_tcpip_result(retval) ; } retval = (T_RNET_RET)rnet_rt_start() ; if (retval NEQ RNET_OK ) { TRACE_ERROR("rnet_rt_start() != RV_OK") ; rnet_rt_kill() ; return rnet_error_to_tcpip_result(retval) ; } #ifdef _SIMULATION_ tcpip_if_properties(&rnet_rt_env_ctrl_blk_p->ifnet_lo) ; #endif /* _SIMULATION_ */ tcpip_data->is_initialized = TRUE ; return TCPIP_RESULT_OK ; } /** Mark an event as expected for the specified socket. * * @param sock_desc The Socket descriptor. * @param expected_event The event type. */ static void socket_expect_event(T_RNET_DESC* sock_desc, U32 expected_event) { #ifdef TRACING char *event_name ; switch (expected_event) { case TCPIP_EVT_CONNECT_CNF: event_name = "CONNECT_CNF" ; break ; case TCPIP_EVT_RECV_IND: event_name = "RECV_IND" ; break ; case TCPIP_EVT_CONNECT_IND: event_name = "CONNECT_IND" ; break ; default: event_name = "<none>" ; break ; } TRACE_EVENT_P1("ready for TCPIP_EVT_%s for %d", event_name, SOCK_S_INDEX(sock_desc)) ; #endif /* TRACING */ SOCKPAR_GET(sock_desc)->expected_event = expected_event ; } /*==== Specific event handler functions =====================================*/ /** Handle an RNET_CONNECT_IND event; pass it through to the application. * * @param connect_ind Pointer to the event message. */ static void tcpip_handle_rnet_connect_ind(T_RNET_CONNECT_IND *connect_ind) { T_sockpar *sockpar, *sp_new ; TRACE_FUNCTION("tcpip_handle_rnet_connect_ind()") ; sockpar = SOCKPAR_GET(connect_ind->listen_desc) ; sp_new = sockpar_new(connect_ind->new_desc, sockpar->app_handle, sockpar->ipproto, 0) ; if (sp_new EQ NULL) { tcpip_error_ind(sockpar->app_handle, TCPIP_RESULT_INTERNAL_ERROR, sockpar->s_index) ; } else { sp_new->is_connected = TRUE ; rnet_set_user_data(connect_ind->new_desc, (void *) sp_new) ; tcpip_connect_ind(sockpar->app_handle, sockpar->s_index, sp_new->s_index, connect_ind->peer_addr, connect_ind->peer_port) ; socket_expect_event(connect_ind->new_desc, TCPIP_EVT_RECV_IND) ; } rvf_free_buf(connect_ind) ; } /** Handle an RNET_CONNECT_CFM event; pass it through to the application. * * @param connect_cfm Pointer to the event message. */ static void tcpip_handle_rnet_connect_cfm(T_RNET_CONNECT_CFM *connect_cfm) { T_sockpar *sockpar ; TRACE_FUNCTION("tcpip_handle_rnet_connect_cfm()") ; sockpar = SOCKPAR_GET(connect_cfm->desc) ; sockpar->is_connected = TRUE ; tcpip_connect_cnf(sockpar->app_handle, TCPIP_RESULT_OK, SOCK_S_INDEX(connect_cfm->desc)) ; socket_expect_event(connect_cfm->desc, TCPIP_EVT_RECV_IND) ; rvf_free_buf(connect_cfm) ; } /** Handle an RNET_SEND_RDY event; try to send more data if anything is left. * * @param send_rdy Pointer to the event message. */ static void tcpip_handle_rnet_send_rdy(T_RNET_SEND_RDY *send_rdy) { T_sockpar *sockpar ; TRACE_FUNCTION("tcpip_handle_rnet_send_rdy()") ; sockpar = SOCKPAR_GET(send_rdy->desc) ; if( sockpar ) { if (sockpar->send.total_length) { tcpip_try_send_data(sockpar) ; } else { TRACE_EVENT("received RNET_SEND_RDY; no data waiting") ; } }else TRACE_ERROR("tcpip_handle_rnet_send_rdy(): WARNING: sockpar=0"); rvf_free_buf(send_rdy) ; } /** Handle an RNET_RECV_IND event; read incoming data. * * @param recv_ind Pointer to the event message. */ static void tcpip_handle_rnet_recv_ind(T_RNET_RECV_IND *recv_ind) { T_sockpar *sockpar ; /* Socket parameters. */ TRACE_FUNCTION("tcpip_handle_rnet_recv_ind()") ; sockpar = SOCKPAR_GET(recv_ind->desc) ; sockpar->recv_waiting = TRUE ; tcpip_read_incoming_to_app(sockpar) ; rvf_free_buf(recv_ind) ; } /** Handle an RNET_ERROR_IND event; * * @param error_ind Pointer to the event message. */ static void tcpip_handle_rnet_error_ind(T_RNET_ERROR_IND *error_ind) { T_sockpar *sockpar ; TRACE_FUNCTION("tcpip_handle_rnet_error_ind()") ; TRACE_EVENT_P1("RNET_ERROR_IND for socket %08x", error_ind->desc) ; sockpar = SOCKPAR_GET(error_ind->desc) ; if (error_ind->error EQ RNET_CONN_CLOSED) { TRACE_EVENT("RNET_CONN_CLOSED") ; tcpip_conn_closed_ind(sockpar->app_handle, sockpar->s_index) ; } else { /* TODO: this switch looks bogus -- we are only interested in * TCPIP_EVT_CONNECT_CNF, right? Everything else is handled the same * anyway. */ switch (sockpar->expected_event) { case TCPIP_EVT_CONNECT_CNF: TRACE_EVENT("error received when expecting TCPIP_EVT_CONNECT_CNF") ; tcpip_connect_cnf(sockpar->app_handle, rnet_error_to_tcpip_result(error_ind->error), sockpar->s_index) ; break ; case TCPIP_EVT_RECV_IND: TRACE_EVENT("error received when expecting TCPIP_EVT_RECV_IND") ; tcpip_error_ind(sockpar->app_handle, rnet_error_to_tcpip_result(error_ind->error), sockpar->s_index) ; break ; case TCPIP_EVT_CONNECT_IND: TRACE_EVENT("error received when expecting TCPIP_EVT_CONNECT_IND") ; tcpip_error_ind(sockpar->app_handle, rnet_error_to_tcpip_result(error_ind->error), sockpar->s_index) ; break ; default: TRACE_EVENT_P1("error received when expecting unknown event (%d)?", sockpar->expected_event) ; TRACE_ERROR("Unexpected sockpar->expected_event in " "tcpip_handle_rnet_error_ind()") ; tcpip_error_ind(sockpar->app_handle, rnet_error_to_tcpip_result(error_ind->error), sockpar->s_index) ; break ; } } rvf_free_buf(error_ind) ; } /*==== Callback functions ===================================================*/ /** Callback for rnet_get_host_info(). * * @param * @return */ void tcpip_hostinfo_callback(void *msg) { T_RNET_HOST_INFO *hinfo ; T_TCPIP_HOSTINFO_REQ *request ; TRACE_FUNCTION("tcpip_hostinfo_callback()") ; hinfo = msg ; request = hinfo->user_data ; switch (hinfo->error) { case RNET_OK: tcpip_hostinfo_cnf(request->app_handle, TCPIP_RESULT_OK, request->request_id, hinfo->host_name, ngHTONL(hinfo->host_addr)) ; break ; default: tcpip_hostinfo_cnf(request->app_handle, rnet_error_to_tcpip_result(hinfo->error), request->request_id, NULL, 0) ; break ; } PFREE(request) ; //PatternVibrator("o20f10", 1); //rvf_free_buf(msg) ; //PatternVibrator("o20f10", 1); } /** Callback for RNET events. * * @param rv_msg Pointer to Riviera message. */ static void tcpip_rnet_callback(void *rv_msg) { T_RV_HDR *rv_hdr ; /* Header of Riviera message. */ rv_hdr = (T_RV_HDR *) rv_msg ; TRACE_FUNCTION("tcpip_rnet_callback()") ; TRACE_EVENT_P1("rv_hdr->msg_id = %d",rv_hdr->msg_id); switch (rv_hdr->msg_id) { case RNET_CONNECT_IND: TRACE_EVENT("tcpip_rnet_callback() called with RNET_CONNECT_IND") ; tcpip_handle_rnet_connect_ind((T_RNET_CONNECT_IND *) rv_hdr) ; break ; case RNET_CONNECT_CFM: TRACE_EVENT("tcpip_rnet_callback() called with RNET_CONNECT_CFM") ; tcpip_handle_rnet_connect_cfm((T_RNET_CONNECT_CFM *) rv_hdr) ; break ; case RNET_SEND_RDY: TRACE_EVENT("tcpip_rnet_callback() called with RNET_SEND_RDY") ; tcpip_handle_rnet_send_rdy((T_RNET_SEND_RDY *) rv_hdr) ; break ; case RNET_RECV_IND: TRACE_EVENT("tcpip_rnet_callback() called with RNET_RECV_IND") ; tcpip_handle_rnet_recv_ind((T_RNET_RECV_IND *) rv_hdr) ; break ; case RNET_ERROR_IND: TRACE_EVENT("tcpip_rnet_callback() called with RNET_ERROR_IND") ; tcpip_handle_rnet_error_ind((T_RNET_ERROR_IND *) rv_hdr) ; break ; default: TRACE_ERROR("Default: unknown RNET event:") ; TRACE_EVENT_P1("[ERROR] event 0x%08x from RNET\n", rv_hdr->msg_id) ; break ; } } /*==== Other public functions ===============================================*/ /** Shut down RNET and deallocate data. This defined as a separate function * because it will also be called by pei_exit(). * */ void tcpip_do_shutdown(void) { int s_index ; /* Socket index in sock_table[]. */ TRACE_FUNCTION("tcpip_do_shutdown()") ; if (tcpip_data->is_initialized) { /* The error code conversion is done only for the trace in * rnet_error_to_tcpip_result(). It doesn't hurt anyway. */ rnet_error_to_tcpip_result((T_RNET_RET)rnet_rt_stop()) ; rnet_error_to_tcpip_result((T_RNET_RET)rnet_rt_kill()) ; for (s_index = 0; s_index < RNET_RT_SOCK_MAX; s_index++) { T_sockpar *sp ; /* Pointer to socket parameter struct. */ sp = sock_table[s_index] ; if (sp) { tcpip_error_ind(sp->app_handle, TCPIP_RESULT_NETWORK_LOST, sp->s_index) ; sockpar_delete(sp) ; } } tcpip_data->is_initialized = FALSE ; } } /*==== Primitive handler functions ==========================================*/ /** Handle a TCPIP_INITIALIZE_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_initialize_req(void *primdata) { U8 result ; /* Result code of initialization. */ TRACE_FUNCTION("tcpip_initialize_req()") ; /* The variable should be optimized away by the compiler, but it looks * clearer with the initialization call on a separate line. */ result = tcpip_do_initialization() ; tcpip_initialize_cnf(result) ; PFREE(primdata) ; } /** Handle a TCPIP_SHUTDOWN_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_shutdown_req(void *primdata) { TRACE_FUNCTION("tcpip_shutdown_req()") ; tcpip_do_shutdown() ; tcpip_shutdown_cnf(TCPIP_RESULT_OK) ; PFREE(primdata) ; } /** Handle a TCPIP_IFCONFIG_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_ifconfig_req(void *primdata) { T_TCPIP_IFCONFIG_REQ *prim ; NGifnet *netp ; /* Pointer to network interface struct. */ NGuint local_addr ; /* Local address of interface (host byte * order). */ NGuint dest_addr ; /* Destination address (always zero in our * case). */ NGuint netmask ; U8 result = TCPIP_RESULT_INTERNAL_ERROR ; /* Result code of operation. */ /* We don't jump through all the hoops of constructing a message in a * message and sending it to the network interface control function, but * rather twiddle the necessary bits by ourselves. This saves quite some * code and is lots easier to read. */ TRACE_FUNCTION("tcpip_ifconfig_req()") ; prim = (T_TCPIP_IFCONFIG_REQ *) primdata ; /* First, find the network interface. This turned out to be surprisingly * easy. :-) */ netp = &rnet_rt_env_ctrl_blk_p->ifnet_dti.dti_ifnet ; switch (prim->if_up) { case TCPIP_IFCONFIG_DOWN: TRACE_EVENT("ifconfig down") ; netp->if_flags &= ~NG_IFF_UP ; /* Lint loves the void: */ (void) ngProto_IP.pr_cntl_f(NG_CNTL_SET, NG_IPO_NETDOWN, netp) ; result = TCPIP_RESULT_OK ; break ; case TCPIP_IFCONFIG_UP: netp->if_flags |= NG_IFF_UP ; netp->if_mtu = prim->mtu_size ; local_addr = prim->ipaddr ; dest_addr = TCPIP_UNSPECIFIED_IPADDR ; netmask = 0xffffffff ; if (tcpip_data->config_dns_address) { TRACE_EVENT("override dnsaddr1 by address from config primitive") ; prim->dnsaddr1 = tcpip_data->config_dns_address ; } TRACE_EVENT_P3("ifconfig %08x dns %08x, %08x up", ngNTOHL(local_addr), ngNTOHL(prim->dnsaddr1), ngNTOHL(prim->dnsaddr2)) ; ngIfGenCntl(netp, NG_CNTL_SET, NG_IFO_ADDR, &local_addr) ; ngIfGenCntl(netp, NG_CNTL_SET, NG_IFO_DSTADDR, &dest_addr) ; ngIfGenCntl(netp, NG_CNTL_GET, NG_IFO_NETMASK, &netmask) ; (void) ngProto_IP.pr_cntl_f(NG_CNTL_SET, NG_IPO_ROUTE_DEFAULT, &local_addr); (void) ngProto_RESOLV.pr_cntl_f(NG_CNTL_SET, NG_RSLVO_SERV1_IPADDR, &prim->dnsaddr1) ; (void) ngProto_RESOLV.pr_cntl_f(NG_CNTL_SET, NG_RSLVO_SERV2_IPADDR, &prim->dnsaddr2) ; result = TCPIP_RESULT_OK ; break ; default: TRACE_ERROR("ifconfig: bogus prim->if_up value") ; result = TCPIP_RESULT_INVALID_PARAMETER ; break ; } #ifdef _SIMULATION_ tcpip_if_properties(netp) ; #endif /* _SIMULATION_ */ tcpip_ifconfig_cnf(result) ; PFREE(primdata) ; } /** Handle a TCPIP_DTI_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_dti_req(void *primdata) { T_TCPIP_DTI_REQ *prim ; TRACE_FUNCTION("tcpip_dti_req()") ; prim = (T_TCPIP_DTI_REQ *) primdata ; if (prim->dti_direction EQ TCPIP_DTI_TO_LOWER_LAYER) { tcpip_data->ll[0].link_id = prim->link_id ; if(prim->dti_conn == TCPIP_CONNECT_DTI) { if(dti_open(tcpip_data->dti_handle, 0, /* instance */ prim->dti_direction, 0, /* channel */ TCPIP_DTI_QUEUE_SIZE, prim->dti_direction, DTI_QUEUE_WATERMARK, DTI_VERSION_10, #ifdef _SIMULATION_ "SND", #else (U8 *) prim->entity_name, #endif prim->link_id) != TRUE) { TRACE_ERROR("dti_open returns with error") ; } } else { dti_close(tcpip_data->dti_handle,0,prim->dti_direction,0,FALSE); // TCPIP_DISCONNECT_CNF is sent here, because the DTI callback is not called // after DTI2_DISCONNECT_REQ was sent (no CNF-primitive) tcpip_dti_cnf(TCPIP_DISCONNECT_DTI,prim->link_id); } } else { TRACE_ERROR("DTI link to other than upper layer not (yet) supported!") ; } /* The result will be signalled by DTI. */ PFREE(primdata) ; } /** Handle a TCPIP_CREATE_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_create_req(void *primdata) { T_TCPIP_CREATE_REQ *prim = primdata ; T_RNET_RET retval ; T_RNET_DESC *sdesc ; /* The socket descriptor. */ T_RV_RETURN_PATH retpath = { 0, tcpip_rnet_callback } ; T_sockpar *sockpar ; /* Pointer to socket parameter struct ; */ TRACE_FUNCTION("tcpip_create_req()") ; TRACE_EVENT_P1("Calling rnet_new() for ipproto %d", prim->ipproto) ; retval = rnet_new((T_RNET_IPPROTO) prim->ipproto, &sdesc, retpath) ; TRACE_EVENT_P1("rnet_new() returns %d", retval) ; if (retval EQ RNET_OK) { sockpar = sockpar_new(sdesc, prim->app_handle, prim->ipproto, 0) ; TRACE_EVENT_P1("New socket is %d", sockpar->s_index) ; if (sockpar EQ NULL) { tcpip_create_cnf(prim->app_handle, TCPIP_RESULT_INTERNAL_ERROR, 0, prim->request_id) ; rnet_close(sdesc) ; } else { rnet_set_user_data(sdesc, (void *) sockpar) ; tcpip_create_cnf(prim->app_handle, TCPIP_RESULT_OK, sockpar->s_index, prim->request_id) ; } } else { tcpip_create_cnf(prim->app_handle, rnet_error_to_tcpip_result(retval), 0, prim->request_id) ; } PFREE(primdata) ; } /** Handle a TCPIP_CLOSE_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_close_req(void *primdata) { T_TCPIP_CLOSE_REQ *prim = primdata ; T_RNET_RET retval ; /* Return value of rnet_close(). */ T_sockpar *sockpar ; /* Socket parameter block. */ T_RNET_DESC *sdesc ; /* Socket descriptor. */ TRACE_FUNCTION("tcpip_close_req()") ; if (INVALID_S_INDEX(prim->socket)) { TRACE_ERROR("Invalid socket index in tcpip_close_req()") ; tcpip_close_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket) ; } else { sdesc = SOCK_RT_DESC(prim->socket) ; sockpar = SOCKPAR_GET(sdesc) ; TRACE_EVENT_P1("Calling rnet_close() for socket %d", sockpar->s_index) ; retval = rnet_close(sdesc) ; TRACE_EVENT_P1("rnet_close() returns %d", retval) ; tcpip_close_cnf(prim->app_handle, (U8) ((retval EQ RNET_OK) ? TCPIP_RESULT_OK : rnet_error_to_tcpip_result(retval)), prim->socket) ; sockpar_delete(sockpar) ; } PFREE(primdata) ; } /** Handle a TCPIP_BIND_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_bind_req(void *primdata) { T_TCPIP_BIND_REQ *prim = primdata ; T_RNET_RET retval ; /* Return value of rnet_bind(). */ T_RNET_DESC *sdesc ; /* Socket descriptor. */ TRACE_FUNCTION("tcpip_bind_req()") ; if (INVALID_S_INDEX(prim->socket)) { TRACE_ERROR("Invalid socket index in tcpip_bind_req()") ; tcpip_bind_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket) ; } else { sdesc = SOCK_RT_DESC(prim->socket) ; TRACE_EVENT_P2("Calling rnet_bind() for socket %d port %d", prim->socket, prim->port) ; retval = rnet_bind(sdesc, TCPIP_UNSPECIFIED_IPADDR, (U16) ngNTOHS(prim->port)) ; TRACE_EVENT_P1("rnet_bind() returns %d", retval) ; tcpip_bind_cnf(prim->app_handle, (U8) ((retval EQ RNET_OK) ? TCPIP_RESULT_OK : rnet_error_to_tcpip_result(retval)), prim->socket) ; } PFREE(primdata) ; } /** Handle a TCPIP_LISTEN_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_listen_req(void *primdata) { T_TCPIP_LISTEN_REQ *prim = primdata ; T_RNET_RET retval ; /* Return value of rnet_listen(). */ T_RNET_DESC *sdesc ; /* Socket descriptor. */ TRACE_FUNCTION("tcpip_listen_req()") ; if (INVALID_S_INDEX(prim->socket)) { TRACE_ERROR("Invalid socket index in tcpip_listen_req()") ; tcpip_listen_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket) ; } else { sdesc = SOCK_RT_DESC(prim->socket) ; TRACE_EVENT_P1("Calling rnet_listen() for socket %d", prim->socket) ; retval = rnet_listen(sdesc) ; TRACE_EVENT_P1("rnet_listen() returns %d", retval) ; switch (retval) { case RNET_OK: socket_expect_event(sdesc, TCPIP_EVT_CONNECT_IND) ; tcpip_listen_cnf(prim->app_handle, TCPIP_RESULT_OK, prim->socket) ; break ; default: tcpip_listen_cnf(prim->app_handle, rnet_error_to_tcpip_result(retval), prim->socket) ; break ; } } PFREE(primdata) ; } /** Handle a TCPIP_CONNECT_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_connect_req(void *primdata) { T_TCPIP_CONNECT_REQ *prim = primdata ; T_RNET_RET retval ; /* Return value of rnet_connect(). */ T_RNET_DESC *sdesc ; /* Socket descriptor. */ T_sockpar *sockpar ; /* Socket parameter block. */ TRACE_FUNCTION("tcpip_connect_req()") ; if (INVALID_S_INDEX(prim->socket)) { TRACE_ERROR("Invalid socket index in tcpip_connect_req()") ; tcpip_connect_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket) ; } else { sdesc = SOCK_RT_DESC(prim->socket) ; socket_expect_event(sdesc, TCPIP_EVT_CONNECT_CNF) ; TRACE_EVENT_P3("Calling rnet_connect() for socket %d ipaddr %x port %d", prim->socket, ngNTOHL(prim->ipaddr), ngNTOHS(prim->port)) ; retval = rnet_connect(sdesc, ngNTOHL(prim->ipaddr), (U16) ngNTOHS(prim->port)) ; TRACE_EVENT_P1("rnet_connect() returns %d", retval) ; sockpar = SOCKPAR_GET(sdesc) ; switch (sockpar->ipproto) { case TCPIP_IPPROTO_TCP: if (retval EQ RNET_OK) { TRACE_EVENT("wait... TCPIP_CONNECT_CNF"); /* Wait for the result of the connect; we will send a * TCPIP_CONNECT_CNF then. */ } else { tcpip_connect_cnf(prim->app_handle, rnet_error_to_tcpip_result(retval), prim->socket) ; socket_expect_event(sdesc, 0) ; } break ; case TCPIP_IPPROTO_UDP: sockpar->is_connected = TRUE ; tcpip_connect_cnf(prim->app_handle, rnet_error_to_tcpip_result(retval), prim->socket) ; socket_expect_event(sdesc, 0) ; break ; default: TRACE_ERROR("unknown protocol in tcpip_connect_req()!?") ; break ; } } PFREE(primdata) ; } /** Handle a TCPIP_DATA_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_data_req(void *primdata) { T_TCPIP_DATA_REQ *prim = primdata ; T_sockpar *sockpar ; T_RNET_DESC *sdesc ; /* Socket descriptor. */ TRACE_FUNCTION("tcpip_data_req()") ; if (INVALID_S_INDEX(prim->socket)) { tcpip_data_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket, 0) ; TRACE_ERROR("Invalid socket index in tcpip_data_req()") ; } else { sdesc = SOCK_RT_DESC(prim->socket) ; sockpar = SOCKPAR_GET(sdesc) ; if (sockpar->send.total_length) { /* We haven't sent the previous block completely, but the API already * sends more data. That must be an error -- either an error of the * socket API or we have sent out a TCPIP_DATA_CNF too early. */ TRACE_ERROR("tcpip_data_req: new data although old data is still left") ; tcpip_data_cnf(prim->app_handle, TCPIP_RESULT_INTERNAL_ERROR, prim->socket, 0) ; } else if (!sockpar->is_connected AND (sockpar->ipproto EQ TCPIP_IPPROTO_TCP OR prim->ipaddr EQ 0 OR prim->port EQ 0)) { /* Application tried to send on a non-connected TCP socket or a * non-connected UDP socket without specifying IP address and port * number. RNET or, respectively, NexGenIP does for some reason not * catch this error, so we do it here. */ tcpip_data_cnf(prim->app_handle, TCPIP_RESULT_NOT_CONNECTED, prim->socket, 1) ; } else /* Finally ok. */ { sockpar->send.total_length = prim->buflen ; sockpar->send.offset = 0 ; #ifdef _SIMULATION_ prim->data = tcpip_sim_fake_data(prim->socket, prim->buflen) ; #endif /* _SIMULATION_ */ sockpar->send.buffer = (U8 *) prim->data ; tcpip_try_send_data(sockpar) ; } } PFREE(primdata) ; } /** Handle a TCPIP_DATA_RES primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_data_res(void *primdata) { T_TCPIP_DATA_RES *prim = primdata ; T_sockpar *sockpar ; TRACE_FUNCTION("tcpip_data_res()") ; if (INVALID_S_INDEX(prim->socket)) { /* Do nothing -- what *could* we do in response to a response? */ TRACE_ERROR("Invalid socket index in tcpip_data_res()") ; } else { TRACE_EVENT("switch flow control towards application to xon") ; sockpar = sock_table[prim->socket] ; sockpar->appl_xoff = FALSE ; dti_start(tcpip_data->dti_handle, 0, TCPIP_DTI_TO_LOWER_LAYER, 0) ; // when receive the application data confrim then allow SNDCP send next data package 05132008 // OMAPS00172999 fix if (sockpar->recv_waiting) { tcpip_read_incoming_to_app(sockpar) ; } } PFREE(primdata) ; } /** Handle a TCPIP_SOCKNAME_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_sockname_req(void *primdata) { T_TCPIP_SOCKNAME_REQ *prim = primdata ; T_RNET_RET retval ; T_RNET_IP_ADDR ipaddr ; T_RNET_PORT port ; T_RNET_DESC *sdesc ; /* The socket descriptor. */ TRACE_FUNCTION("tcpip_sockname_req()") ; if (INVALID_S_INDEX(prim->socket)) { TRACE_ERROR("Invalid socket index in tcpip_sockname_req()") ; tcpip_sockname_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket, TCPIP_UNSPECIFIED_IPADDR, TCPIP_UNSPECIFIED_PORT) ; } else { sdesc = SOCK_RT_DESC(prim->socket) ; TRACE_EVENT_P1("Calling rnet_get_local_addr_port() for socket %d", prim->socket) ; retval = rnet_get_local_addr_port(sdesc, &ipaddr, &port) ; TRACE_EVENT_P3("rnet_get_local_addr_port() returns %d, " "ipaddr %d port %d", retval, ipaddr, port) ; switch (retval) { case RNET_OK: tcpip_sockname_cnf(prim->app_handle, TCPIP_RESULT_OK, prim->socket, ngHTONL(ipaddr), (U16) ngHTONS(port)) ; break ; default: tcpip_sockname_cnf(prim->app_handle, rnet_error_to_tcpip_result(retval), prim->socket, TCPIP_UNSPECIFIED_IPADDR, TCPIP_UNSPECIFIED_PORT) ; break ; } } PFREE(primdata) ; } /** Handle a TCPIP_PEERNAME_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_peername_req(void *primdata) { T_TCPIP_PEERNAME_REQ *prim = primdata ; T_RNET_RET retval ; T_RNET_DESC *sdesc ; /* The socket descriptor. */ NGsockaddr addr ; /* Socket address struct. */ int optlen ; /* Length of option (address struct). */ TRACE_FUNCTION("tcpip_peername_req()") ; if (INVALID_S_INDEX(prim->socket)) { TRACE_ERROR("Invalid socket index in tcpip_peername_req()") ; tcpip_peername_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket, TCPIP_UNSPECIFIED_IPADDR, TCPIP_UNSPECIFIED_PORT) ; } else { sdesc = SOCK_RT_DESC(prim->socket) ; optlen = sizeof(addr) ; TRACE_EVENT_P1("Calling ngSAIOGetOption() for peername socket %d", prim->socket) ; retval = (T_RNET_RET) ngSAIOGetOption((NGsock *) sdesc, NG_IOCTL_SOCKET, NG_SO_PEERNAME, &addr, &optlen) ; TRACE_EVENT_P3("ngSAIOGetOption() returns %d ipaddr %x port %d (net order)", retval, addr.sin_addr, addr.sin_port) ; switch (rnet_rt_ngip_error(retval)) { case RNET_OK: tcpip_peername_cnf(prim->app_handle, TCPIP_RESULT_OK, prim->socket, addr.sin_addr, addr.sin_port) ; break ; default: tcpip_peername_cnf(prim->app_handle, rnet_error_to_tcpip_result(retval), prim->socket, TCPIP_UNSPECIFIED_IPADDR, TCPIP_UNSPECIFIED_PORT) ; break ; } } PFREE(primdata) ; } /** Handle a TCPIP_HOSTINFO_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_hostinfo_req(void *primdata) { T_TCPIP_HOSTINFO_REQ *prim = primdata ; T_RV_RETURN_PATH retpath = { 0, tcpip_hostinfo_callback } ; /* Trick: We use the primitive itself as user data for the RNET call. This * way we do not have to allocate extra memory to save the request_id and * the app_handle. */ TRACE_FUNCTION("tcpip_hostinfo_req()") ; switch (rnet_get_host_info((char *) prim->hostname, ngNTOHL(prim->ipaddr), retpath, primdata)) { case RNET_OK: /* We now wait for the hostinfo callback being called. */ break ; case RNET_MEMORY_ERR: tcpip_hostinfo_cnf(prim->app_handle, TCPIP_RESULT_OUT_OF_MEMORY, prim->request_id, NULL, TCPIP_UNSPECIFIED_IPADDR) ; PFREE(prim) ; break ; default: /* Unexpected error code. */ tcpip_hostinfo_cnf(prim->app_handle, TCPIP_RESULT_INTERNAL_ERROR, prim->request_id, NULL, TCPIP_UNSPECIFIED_IPADDR) ; PFREE(prim) ; break ; } /* Do *not* PFREE(primdata) -- the primitive is used as userdata for the * RNET call. */ } /** Handle a TCPIP_MTU_SIZE_REQ primitive from the Socket API. * * @param primdata Data part of the primitive. */ void tcpip_mtu_size_req(void *primdata) { T_TCPIP_MTU_SIZE_REQ *prim = primdata ; TRACE_FUNCTION("tcpip_mtu_size_req()") ; if (INVALID_S_INDEX(prim->socket)) { TRACE_ERROR("Invalid socket index in tcpip_mtu_size_req()") ; tcpip_mtu_size_cnf(prim->app_handle, TCPIP_RESULT_INVALID_PARAMETER, prim->socket, TCPIP_DEFAULT_MTU_SIZE) ; } else { /* The MTU size is usually not negotiated between the network and the * mobile station. It is guaranteed, though, that it is not less than 1500 * bytes, and that is what we report here. This might be changed to some * "real" value queried from the interface when the need comes up. */ tcpip_mtu_size_cnf(prim->app_handle, TCPIP_RESULT_OK, prim->socket, TCPIP_DEFAULT_MTU_SIZE) ; } PFREE(primdata) ; } /** Handle a TCPIP_INTERNAL_IND primitive sent by TCPIP itself. * * @param primdata Data part of the primitive. * @return */ void tcpip_internal_ind(void *primdata) { T_TCPIP_INTERNAL_IND *prim = primdata ; T_RVM_RETURN retval ; TRACE_FUNCTION("tcpip_internal_ind()") ; TRACE_EVENT_P1("received TCPIP_INTERNAL_IND id %d", prim->msg_id) ; retval = rnet_rt_handle_message((T_RV_HDR *) prim->msg_p) ; if (retval != RV_OK) { TRACE_EVENT_P1("rnet_rt_handle_message() returned %d", retval) ; } PFREE(primdata) ; } /* EOF */