FreeCalypso > hg > fc-magnetite
view src/cs/riviera/rvm/rvm_task.c @ 629:3231dd9b38c1
armio.c: make GPIOs 8 & 13 outputs driving 1 on all "classic" targets
Calypso GPIOs 8 & 13 are pinmuxed with MCUEN1 & MCUEN2, respectively,
and on powerup these pins are MCUEN, i.e., outputs driving 1. TI's code
for C-Sample and earlier turns them into GPIOs configured as outputs also
driving 1 - so far, so good - but TI's code for BOARD 41 (which covers
D-Sample, Leonardo and all real world Calypso devices derived from the
latter) switches them from MCUEN to GPIOs, but then leaves them as inputs.
Given that the hardware powerup state of these two pins is outputs driving 1,
every Calypso board design MUST be compatible with such driving; typically
these GPIO signals will be either unused and unconnected or connected as
outputs driving some peripheral. Turning these pins into GPIO inputs will
result in floating inputs on every reasonably-wired board, thus I am
convinced that this configuration is nothing but a bug on the part of
whoever wrote this code at TI.
This floating input bug had already been fixed earlier for GTA modem and
FCDEV3B targets; the present change makes the fix unconditional for all
"classic" targets. The newly affected targets are D-Sample, Leonardo,
Tango and GTM900.
author | Mychaela Falconia <falcon@freecalypso.org> |
---|---|
date | Thu, 02 Jan 2020 05:38:26 +0000 |
parents | 945cf7f506b2 |
children |
line wrap: on
line source
/** * * @file rvm_task.c * * This file contains the main RVN function: rvm_task. It will initialize the RVM and then wait for messages. * * @author Cristian Livadiotti (c-livadiotti@ti.com) * @version 0.2 * */ /* * Revision History: * * 06/04/2000 Cristian Livadiotti Create. * 10/22/2001 David Lamy-Charrier Update for new Riviera 1.6. * * (C) Copyright 2001 by Texas Instruments Incorporated, All Rights Reserved */ # include <stdio.h> #include "rvf/rvf_api.h" #include "rvm/rvm_gen.h" #include "rvm/rvm_api.h" #include "rvm/rvm_i.h" #include "rvf/rvf_i.h" /* only for pRtAddrIdTable[] */ #include "rvm/rvm_use_id_list.h" extern T_RVM_KNOWN_SWE * rvm_swe_array; /* for start() */ #ifdef _CONSOLE void _callerProxy(T_RVM_APPLI_RESULT *p_msg_res) ; //A-M-E-N-D-E-D! #endif T_RVM_RETURN _start_group(T_RVF_G_ADDR_ID gid, UINT8* grp); T_RVM_RETURN _t3_start(T_RVF_G_ADDR_ID gid); T_RVM_RETURN _stop_t2_swe(T_RVM_STOP_MSG* p_msg); T_RVM_RETURN _stop_t3_swe(T_RVM_STOP_MSG* p_msg); /******************************************************************************* ** Function rvm_init ** ** Description Initialize all the RVM ** *******************************************************************************/ BOOLEAN rvm_init() { T_RVF_MB_PARAM mb_params; mb_params.size = RVM_PRIM_MB_SIZE; mb_params.watermark = RVM_PRIM_MB_WATERMARK; if(rvm_mem_bank!=RVF_INVALID_MB_ID) return TRUE; /* create rvm main Memory Bank */ if ( rvf_create_mb( RVM_PRIM_MB, mb_params, &rvm_mem_bank) != RVF_OK) { // TO DO: remove this call since the RVT software entity has not been started yet. RVM_TRACE_ERROR( "RVM_init: unable to create the RVM Main mem bank"); return FALSE; } mb_params.size = RVM_STACK_MB_SIZE; mb_params.watermark = RVM_STACK_MB_WATERMARK; /* create a second Memory Bank used for stack allocation */ if ( rvf_create_mb( RVM_STACK_MB, mb_params, &rvm_stack_mem_bank) != RVF_OK) { // TO DO: remove this call since the RVT software entity has not been started yet. RVM_TRACE_ERROR( "RVM_init: unable to create the RVM stacks mem bank"); return FALSE; } mb_params.size = RVM_SYS_MB_SIZE; mb_params.watermark = RVM_SYS_MB_WATERMARK; if(rvm_sys_mem_bank!=RVF_INVALID_MB_ID) return TRUE; /* create rvm main Memory Bank */ if ( rvf_create_mb( RVM_SYS_MB, mb_params, &rvm_sys_mem_bank) != RVF_OK) { // TO DO: remove this call since the RVT software entity has not been started yet. RVM_TRACE_ERROR( "RVM_init: unable to create the RVM SYSTEM mem bank"); return FALSE; } mb_params.size = RVM_TIMER_MB_SIZE; mb_params.watermark = RVM_TIMER_MB_WATERMARK; if(rvm_timer_mem_bank!=RVF_INVALID_MB_ID) return TRUE; // create rvm main Memory Bank if ( rvf_create_mb( RVM_TIMER_MB, mb_params, &rvm_timer_mem_bank) != RVF_OK) { // TO DO: remove this call since the RVT software entity has not been started yet. RVM_TRACE_ERROR( "RVM_init: unable to create the RVM TIMER mem bank"); return FALSE; } mb_params.size = RVM_NOTIFY_MB_SIZE; mb_params.watermark = RVM_NOTIFY_MB_WATERMARK; if(rvm_tm_notify_mem_bank!=RVF_INVALID_MB_ID) return TRUE; // create rvm main Memory Bank if ( rvf_create_mb( RVM_NOTIFY_MB, mb_params, &rvm_tm_notify_mem_bank) != RVF_OK) { // TO DO: remove this call since the RVT software entity has not been started yet. RVM_TRACE_ERROR( "RVM_init: unable to create the RVM TIMER NOTIFY MSG mem bank"); return FALSE; } return TRUE; } /******************************************************************************* ** Function rvm_task ** ** Description Core of the RVM task, which initiliazes the RVM and ** waits for messages. ** *******************************************************************************/ void rvm_task (UINT32 param) { BOOLEAN detectedError = FALSE; T_RV_HDR * msgPtr; /* init the SWEs database */ if ( rvm_init_swe_db() != RVM_OK) { /* lack of memory */ detectedError = TRUE; } //printf("RVManager core: %d %s\n", rvf_get_taskid(), rvf_get_taskname()); /* loop to process messages */ while (detectedError == FALSE) { /* Wait for the necessary event (msg in the rve mailbox and no timeout). */ UINT16 recEvent = rvf_wait ( RVM_EXPECTED_EVENT, 0); /* If the expected event is received, then */ if (recEvent & RVM_EXPECTED_EVENT) { /* Read the message in the rve mailbox */ msgPtr = (T_RV_HDR *) rvf_read_mbox (RVM_MAILBOX); if(msgPtr) { /* Determine the input message type */ switch (msgPtr->msg_id) { case (RVM_START_APPLI): { rvm_launch_appli((T_RVM_MSG*)msgPtr); rvf_free_buf(msgPtr); break; } case (RVM_STOP_APPLI): { // still keep original concept rvm_shut_down_appli((T_RVM_MSG*)msgPtr); rvf_free_buf(msgPtr); break; } case (RVM_STOP_MSG): { // new concept, eg. reverse init/start concept if(((T_RVM_STOP_MSG*)msgPtr)->status==SWE_RUNNING) { rvm_stop_appli((T_RVM_STOP_MSG*) msgPtr); rvf_free_buf(msgPtr); } else { rvm_swe_has_stopped((T_RVM_STOP_MSG*) msgPtr); rvf_free_buf(msgPtr); } break; } #ifdef _CONSOLE case (RVM_EVT_TO_APPLI): { /*A-M-E-N-D-E-D! */ /* proxy msg's sent by "rvm_snd_to_upper()" /* There arrival here is evident that no parent or /* calling process, ie. No MMI exists and they were /* started by RVM itself. */ RVM_TRACE_WARNING_PARAM("RVM: caller response msg", msgPtr->msg_id); _callerProxy((T_RVM_APPLI_RESULT*)msgPtr); rvf_free_buf(msgPtr); break; } #endif default: { RVM_TRACE_WARNING_PARAM("rvm_Task: [switch()] unrecognized msg", msgPtr->msg_id); rvf_free_buf(msgPtr); break; } } } /* free the received msg */ // rvf_free_buf(msgPtr); // may be used when STOP is completed } else { RVM_TRACE_WARNING_PARAM("RVM_task: unrecognized event", recEvent); } } RVM_TRACE_ERROR("RVM_task: unrecoverable error --> stopping RVM"); } T_RVM_RETURN rvm_t2_proxy() { T_RVM_RETURN error_status=RVM_OK; T_RV_HDR* p_msg = NULL ; UINT16 rec_event; T_RVF_G_ADDR_ID gid=RVF_INVALID_ADDR_ID; UINT16 nbTmExp=0; UINT8 y=0,F_PRI=0, yield; RVM_TRACE_WARNING_PARAM("T2PROXY TACHE DE DEV", RV_TRACE_LEVEL_DEBUG_HIGH); rvf_start_timer(0, RVM_YIELD_T2_PS_TM, 1); yield=MAX_PARASITES; gid=rvf_get_taskid(); while (error_status == RVM_OK) { rec_event = rvf_evt_wait(gid, 0xffff, 0xFFFFFFFFL); /* Wait (infinite) for all events. */ if (rec_event & RVF_TASK_MBOX_1_EVT_MASK) { F_PRI=1; for(y=0; (p_msg=(T_RV_HDR *)rvf_read_addr_mbox (gid, 1)) && (y<yield); y++) { //RVM_TRACE_WARNING_PARAM("T2 PRI MAILBOX !!!\n", RV_TRACE_LEVEL_DEBUG_HIGH); rvf_setRDV(gid, p_msg->dest_addr_id); switch(p_msg->msg_id) { case RVM_TMS_MSG: if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer(p_msg); } else rvf_free_timer_msg(p_msg); break; case RVM_START_T2_MSG: yield=MAX_PARASITES; _start_group(gid, ((T_RVM_START_T2_MSG*)p_msg)->grp); rvf_free_buf(p_msg); break; case RVM_STOP_MSG: _stop_t2_swe((T_RVM_STOP_MSG*)p_msg); break; case RVM_RT_MOD_YIELD_T2_MSG: if(((T_RVM_RT_MOD_YIELD_T2_MSG*)p_msg)->val > 1) rvf_start_timer(0, ((T_RVM_RT_MOD_YIELD_T2_MSG*)p_msg)->val, 1); rvf_free_buf(p_msg); break; default: if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_message) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_message(p_msg); } else rvf_free_msg(p_msg); break; } rvf_setRDV(gid, RVF_INVALID_ADDR_ID); } yield=RVM_YIELD_T2_PRI_MSG_CNT; } if (rec_event & RVF_TASK_MBOX_0_EVT_MASK ) { //RVM_TRACE_WARNING_PARAM("T2 STND MAILBOX !!!\n", RV_TRACE_LEVEL_DEBUG_HIGH); if(p_msg=(T_RV_HDR *) rvf_read_mbox (0)) { rvf_setRDV(gid, p_msg->dest_addr_id); switch(p_msg->msg_id) { case RVM_TMS_MSG: if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer(p_msg); } else rvf_free_timer_msg(p_msg); //rvf_free_buf(p_msg); break; case RVM_START_T2_MSG: _start_group(gid, ((T_RVM_START_T2_MSG*)p_msg)->grp); rvf_free_buf(p_msg); break; case RVM_STOP_MSG: _stop_t2_swe((T_RVM_STOP_MSG*)p_msg); // preserve break; default: if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_message) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_message(p_msg); } else rvf_free_msg(p_msg); break; } rvf_setRDV(gid, RVF_INVALID_ADDR_ID); } } if( rec_event & RVF_TIMER_0_EVT_MASK ) { //RVM_TRACE_WARNING_PARAM("T2 YIELD !!!\n", RV_TRACE_LEVEL_DEBUG_HIGH); rvf_yield(); } if( rec_event & RVF_TIMER_1_EVT_MASK || rec_event & RVF_TIMER_2_EVT_MASK ) { RVM_TRACE_WARNING_PARAM("RVM: Forbidden timer usage for type 2 entities!\n Please use rvf_add_timer()", RV_TRACE_LEVEL_DEBUG_HIGH); } if(rec_event & RVF_TIMER_3_EVT_MASK) { /*nbTmExp=0; //rvf_update_timer_list((pRtAddrIdTable[gid]->p_tm_q)); while(nbTmExp-- > 0) { p_msg=0;//(T_RV_HDR*)rvf_get_expired_entry((pRtAddrIdTable[gid]->p_tm_q)); if(p_msg->dest_addr_id) pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer(p_msg); else RVM_TRACE_WARNING_PARAM("T3PROXY NO TM DESTINATION", RV_TRACE_LEVEL_DEBUG_HIGH); }*/ } F_PRI=0; } /*if (error_status == INVKR_MEMORY_ERR) { invkr_env_ctrl_blk_p->error_ft("INVKR", RVM_MEMORY_ERR, 0, " Memory Error : the INVKR primitive memory bank is RED "); }*/ RVM_TRACE_WARNING_PARAM("T2PROXY ERROR: CORE TERMINATION", RV_TRACE_LEVEL_DEBUG_HIGH); /* BEFORE returning free resources !!! */ return RVM_OK; } T_RVM_RETURN rvm_t3_proxy() { T_RVM_RETURN error_status=RVM_OK; T_RV_HDR* p_msg = NULL ; UINT16 rec_event; T_RVF_G_ADDR_ID gid; UINT8 swe_i=0; UINT16 nbTmExp=0; T_RV_HDR* p_hdr=NULL; UINT8 yield=250, y=0; /* arguable whether T3 needs Yield. Hence, high nb */ UINT8 F_PRI=0; RVM_TRACE_WARNING_PARAM("T3PROXY TACHE DE DEV", RV_TRACE_LEVEL_DEBUG_HIGH); //printf("t2proxy: %d %s\n", rvf_get_taskid(), rvf_get_taskname()); gid=rvf_get_taskid(); if(gid) _t3_start(gid); RVM_TRACE_WARNING_PARAM("T3PROXY START()", RV_TRACE_LEVEL_DEBUG_HIGH); while (error_status == RVM_OK) { rec_event = rvf_evt_wait(gid, 0xffff, 0xFFFFFFFFL); /* Wait (infinite) for all events. */ if (rec_event & RVF_TASK_MBOX_1_EVT_MASK) { F_PRI=1; for(y=0; (p_msg=(T_RV_HDR *)rvf_read_addr_mbox (gid, 1)) && (y<yield); y++) { if(p_msg->msg_id==RVM_TMS_MSG) { if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer(p_msg); } else rvf_free_timer_msg(p_msg); } else if(p_msg->msg_id==RVM_STOP_MSG) { _stop_t3_swe((T_RVM_STOP_MSG*)p_msg); } else { if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_message) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_message(p_msg); } else rvf_free_msg(p_msg); } } } if (rec_event & RVF_TASK_MBOX_0_EVT_MASK && !F_PRI) { if(p_msg=(T_RV_HDR *) rvf_read_addr_mbox (gid, 0)) { if(p_msg->msg_id==RVM_TMS_MSG) { if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer(p_msg); } else rvf_free_timer_msg(p_msg); } else if(p_msg->msg_id==RVM_STOP_MSG) { _stop_t3_swe((T_RVM_STOP_MSG*)p_msg); } else { if(pRtAddrIdTable[p_msg->dest_addr_id] && pRtAddrIdTable[p_msg->dest_addr_id]->handle_message) { pRtAddrIdTable[p_msg->dest_addr_id]->handle_message(p_msg); } else rvf_free_msg(p_msg); } } } if(rec_event & RVF_TIMER_0_EVT_MASK) { if(rvf_get_buf(rvm_mem_bank,sizeof(T_RV_HDR),(T_RVF_BUFFER**) &p_hdr)!=RVF_RED) { p_hdr->msg_id=RVF_TIMER_0_EVT_MASK; p_hdr->dest_addr_id=0; pRtAddrIdTable[resolveHostAddrId(gid)]->handle_timer(p_hdr); } else RVM_TRACE_WARNING_PARAM("RVM: T3 PROXY TM 0 EVENT DISPATCH MEM ERROR!", RV_TRACE_LEVEL_DEBUG_HIGH); } if(rec_event & RVF_TIMER_1_EVT_MASK) { if(rvf_get_buf(rvm_mem_bank,sizeof(T_RV_HDR),(T_RVF_BUFFER**) &p_hdr)!=RVF_RED) { p_hdr->msg_id=RVF_TIMER_1_EVT_MASK; p_hdr->dest_addr_id=0; pRtAddrIdTable[resolveHostAddrId(gid)]->handle_timer(p_hdr); } else RVM_TRACE_WARNING_PARAM("RVM: T3 PROXY TM 1 EVENT DISPATCH MEM ERROR!", RV_TRACE_LEVEL_DEBUG_HIGH); } if(rec_event & RVF_TIMER_2_EVT_MASK) { if(rvf_get_buf(rvm_mem_bank,sizeof(T_RV_HDR),(T_RVF_BUFFER**) &p_hdr)!=RVF_RED) { p_hdr->msg_id=RVF_TIMER_2_EVT_MASK; p_hdr->dest_addr_id=0; pRtAddrIdTable[resolveHostAddrId(gid)]->handle_timer(p_hdr); } else RVM_TRACE_WARNING_PARAM("RVM: T3 PROXY TM 2 EVENT DISPATCH MEM ERROR!", RV_TRACE_LEVEL_DEBUG_HIGH); } if(rec_event & RVF_TIMER_3_EVT_MASK) { nbTmExp=0; //rvf_update_timer_list((pRtAddrIdTable[gid]->p_tm_q)); //printf("T3 POLL TIMER Id %d ---------------------------------------------> %d!\n",gid, nbTmExp); while(nbTmExp-- > 0) { p_msg=0; //(T_RV_HDR*)rvf_get_expired_entry(pRtAddrIdTable[gid]->p_tm_q); if(p_msg->dest_addr_id) pRtAddrIdTable[p_msg->dest_addr_id]->handle_timer(p_msg); else RVM_TRACE_WARNING_PARAM("T3PROXY NO TM DESTINATION", RV_TRACE_LEVEL_DEBUG_HIGH); } } F_PRI=0; } /*if (error_status == INVKR_MEMORY_ERR) { invkr_env_ctrl_blk_p->error_ft("INVKR", RVM_MEMORY_ERR, 0, " Memory Error : the INVKR primitive memory bank is RED "); }*/ RVM_TRACE_WARNING_PARAM("T3PROXY ERROR: CORE TERMINATION", RV_TRACE_LEVEL_DEBUG_HIGH); /* BEFORE returning free resources !!! */ return RVM_OK; } T_RVM_RETURN rvm_start_group_req(T_RVF_G_ADDR_ID addrId, UINT8* grp) { T_RVM_START_T2_MSG * p_msg; T_RVF_MB_STATUS mb_status; UINT8 i=0; mb_status = rvf_get_msg_buf(rvm_mem_bank, sizeof(T_RVM_START_T2_MSG), RVM_START_T2_MSG, (T_RVF_MSG**) &p_msg); if (mb_status == RVF_RED) { RVM_TRACE_WARNING_PARAM("rvm_start_group(): Error to get memory ",RV_TRACE_LEVEL_ERROR); return RVM_MEMORY_ERR; } else if (mb_status == RVF_YELLOW) { RVM_TRACE_WARNING_PARAM("rvm_start_group(): Getting short on memory ", RV_TRACE_LEVEL_WARNING); } for(i=0;i<10; i++) p_msg->grp[i]=0; // DEFINE MAX !!! p_msg->hdr.msg_id = RVM_START_T2_MSG; for(i=0; i<10 && grp[i]!=0; i++) p_msg->grp[i]=grp[i]; return rvf_send_priority_msg(addrId, p_msg); //? cast (void*) i/p } T_RVM_RETURN _start_group(T_RVF_G_ADDR_ID gid, UINT8* grp) { T_RVM_INFO_SWE swe_info; UINT8 i=0; // for each k_swe_entry, IF NOT started get_info and call start() for(i=0; i<10 && grp[i]!=0; i++ ) { // printf("INDEXES %d\n", grp[i]); rvm_swe_array[grp[i]].swe_get_info(&swe_info); rvf_setRDV(gid, rvm_swe_array[grp[i]].swe_addr_id); if(swe_info.type_info.type2.start) { swe_info.type_info.type2.start(); rvm_swe_array[grp[i]].swe_state = SWE_RUNNING; } rvf_setRDV(gid, RVF_INVALID_ADDR_ID); } return RVM_OK; /* ERROR case To do */ } T_RVM_RETURN _t3_start(T_RVF_G_ADDR_ID gid) { T_RVM_INFO_SWE swe_info; rvm_swe_array[pRtAddrIdTable[gid]->swe_db_index].swe_get_info(&swe_info); if(swe_info.type_info.type3.start) { swe_info.type_info.type3.start(); rvm_swe_array[pRtAddrIdTable[gid]->\ swe_db_index].swe_state = SWE_RUNNING; } return RVM_OK; /* ERROR case To do */ } T_RVM_RETURN _stop_t2_swe(T_RVM_STOP_MSG* p_msg) { T_RVM_INFO_SWE swe_info; rvm_swe_array[p_msg->swe_num].swe_get_info(&swe_info); if(swe_info.type_info.type2.stop) swe_info.type_info.type2.stop((T_RV_HDR*)p_msg); return RVM_OK; /* ERROR case To do */ } T_RVM_RETURN _stop_t3_swe(T_RVM_STOP_MSG* p_msg) { T_RVM_INFO_SWE swe_info; rvm_swe_array[p_msg->swe_num].swe_get_info(&swe_info); if(swe_info.type_info.type3.stop) swe_info.type_info.type3.stop((T_RV_HDR*)p_msg); return RVM_OK; /* ERROR case To do */ } T_RVM_RETURN rvm_mod_rt_t2_yield(T_RVF_G_ADDR_ID addrId, UINT16 val) { T_RVM_RT_MOD_YIELD_T2_MSG * p_msg; T_RVF_MB_STATUS mb_status; mb_status = rvf_get_msg_buf(rvm_sys_mem_bank, sizeof(T_RVM_RT_MOD_YIELD_T2_MSG), RVM_RT_MOD_YIELD_T2_MSG, (T_RVF_MSG**) &p_msg); if (mb_status == RVF_RED) { RVM_TRACE_WARNING_PARAM("rvm_start_group(): Error to get memory ",RV_TRACE_LEVEL_ERROR); return RVM_MEMORY_ERR; } else if (mb_status == RVF_YELLOW) { RVM_TRACE_WARNING_PARAM("rvm_start_group(): Getting short on memory ", RV_TRACE_LEVEL_WARNING); } p_msg->hdr.msg_id = RVM_RT_MOD_YIELD_T2_MSG; /* from internal header */ p_msg->val = val; /* Send the message using mailbox. */ return rvf_send_priority_msg(addrId, p_msg); //? cast (void*) i/p } /* ONLY used for return path msgs from entities started/stopped by the RVM */ #ifdef _CONSOLE void _callerProxy(T_RVM_APPLI_RESULT *p_msg_res) { /*A-M-E-N-D-E-D! */ char *ret_val=NULL; switch(p_msg_res->result) { case RV_OK: ret_val="RVM: Successful entity start or stop:"; break; case RV_NOT_SUPPORTED: ret_val="RVM: Not Supported:"; break; case RV_NOT_READY: ret_val="RVM: Not Ready:"; break; case RV_MEMORY_ERR: ret_val="RVM: Memory Alloc. Error:"; break; case RV_MEMORY_REMAINING: ret_val="RVM: Memory REMAINING AFTER STOP & KILL!: "; break; case RV_INTERNAL_ERR: ret_val="RVM: Memory Alloc. Error:"; break; case RV_INVALID_PARAMETER: ret_val="RVM: Invalid Parameter:"; break; default: ret_val="RVM: Not recognised:n"; break; } RVM_TRACE_WARNING_PARAM(ret_val, p_msg_res->swe_index); } #endif