FreeCalypso > hg > fc-magnetite
view src/cs/services/mks/mks_api.c @ 605:07d0dc4431f4
bootloader.s: same MEMIF fix as in int.s plus DPLL BYPASS fix
Both MEMIF and DPLL settings are now the same between int.s and bootloader.s
assembly code paths. Previously bootloader.s was setting DPLL BYPASS /2 mode,
which persisted until _INT_Initialize code with the bootloader body omitted,
or was changed to /1 in the hardware init function in the
bootloader.lib:start.obj module.
author | Mychaela Falconia <falcon@freecalypso.org> |
---|---|
date | Mon, 17 Jun 2019 18:40:32 +0000 |
parents | 945cf7f506b2 |
children |
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/** * @file mks_api.c * * Implementation of bridge functions. * * @author Laurent Sollier (l-sollier@ti.com) * @version 0.1 */ /* * History: * * Date Author Modification * ---------------------------------------- * 11/19/2001 L Sollier Create * * * (C) Copyright 2001 by Texas Instruments Incorporated, All Rights Reserved */ #include "mks/mks_api.h" #include "mks/mks_env.h" #include "mks/mks_i.h" #include "mks/mks_messages_i.h" #include "rvm/rvm_use_id_list.h" #include <string.h> /** External declaration */ extern T_MKS_ENV_CTRL_BLK* mks_env_ctrl_blk; /** * @name Bridge functions implementation * */ /*@{*/ /** * function: mks_add_key_sequence */ T_RV_RET mks_add_key_sequence(T_MKS_INFOS_KEY_SEQUENCE* infos_key_sequence_p) { T_RV_RET ret = RV_INVALID_PARAMETER; T_MKS_INFOS_KEY_SEQUENCE_MSG* msg_p; T_RVF_MB_STATUS mb_status; /* Test validity of structure */ if ((infos_key_sequence_p->nb_key_of_sequence >=3) && (infos_key_sequence_p->nb_key_of_sequence <= MKS_NB_MAX_OF_KEY_IN_KEY_SEQUENCE)) { if ( (infos_key_sequence_p->completion_type == MKS_SEQUENCE_COMPLETED) || ( (infos_key_sequence_p->completion_type == MKS_POST_SEQUENCE) && (infos_key_sequence_p->nb_key_for_post_sequence > 0) && (infos_key_sequence_p->nb_key_for_post_sequence <= MKS_NB_MAX_OF_KEY_FOR_POST_SEQUENCE)) ) { /* Reserve memory for message */ mb_status = rvf_get_buf (mks_env_ctrl_blk->prim_id, sizeof(T_MKS_INFOS_KEY_SEQUENCE_MSG), (void **) &msg_p); if (mb_status != RVF_RED) /* Memory allocation success */ { /* Fill the message */ msg_p->hdr.msg_id = MKS_INFOS_KEY_SEQUENCE_MSG; msg_p->key_sequence_infos = *infos_key_sequence_p; /* Send message to the MKS task */ rvf_send_msg(mks_env_ctrl_blk->addr_id, msg_p); ret = RV_OK; } else { MKS_SEND_TRACE("MKS: Memory allocation error", RV_TRACE_LEVEL_ERROR); ret = RV_MEMORY_ERR; } } } return ret; } /** * function: mks_remove_key_sequence * */ T_RV_RET mks_remove_key_sequence(char name[KPD_MAX_CHAR_NAME+1]) { T_MKS_REMOVE_KEY_SEQUENCE_MSG* msg_p; T_RVF_MB_STATUS mb_status; T_RV_RET ret = RV_OK; /* Reserve memory for message */ mb_status = rvf_get_buf (mks_env_ctrl_blk->prim_id, sizeof(T_MKS_REMOVE_KEY_SEQUENCE_MSG), (void **) &msg_p); if (mb_status != RVF_RED) /* Memory allocation success */ { /* Fill the message */ msg_p->hdr.msg_id = MKS_REMOVE_KEY_SEQUENCE_MSG; memcpy(msg_p->name, name, KPD_MAX_CHAR_NAME+1); /* Send message to the MKS task */ rvf_send_msg(mks_env_ctrl_blk->addr_id, msg_p); ret = RV_OK; } else { MKS_SEND_TRACE("MKS: Memory allocation error", RV_TRACE_LEVEL_ERROR); ret = RV_MEMORY_ERR; } return ret; } /*@}*/