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/*
* This file is provided under a dual BSD/GPLv2 license. When using or
* redistributing this file, you may do so under either license.
*
* GPL LICENSE SUMMARY
*
* Copyright(c) 2018 NXP. All rights reserved.
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of version 2 of the GNU General Public License as
* published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin St - Fifth Floor, Boston, MA 02110-1301 USA.
* The full GNU General Public License is included in this distribution
* in the file called LICENSE.GPL.
*
* BSD LICENSE
*
* Copyright(c) 2018 NXP. All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
*
* * Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
* * Redistributions in binary form must reproduce the above copyright
* notice, this list of conditions and the following disclaimer in
* the documentation and/or other materials provided with the
* distribution.
* * Neither the name of Intel Corporation nor the names of its
* contributors may be used to endorse or promote products derived
* from this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
* "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
* LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
* A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
* OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
* SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
* LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
* OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*/
#include <linux/kernel.h>
#include <linux/errno.h>
#include "vpu_encoder_rpc.h"
void rpc_init_shared_memory_encoder(struct shared_addr *This,
unsigned long long base_phy_addr,
void *base_virt_addr,
u_int32 total_size,
u32 *actual_size)
{
pENC_RPC_HOST_IFACE pSharedInterface;
unsigned int phy_addr;
unsigned int i;
unsigned int temp_addr;
BUFFER_DESCRIPTOR_TYPE *pSharedCmdBufDescPtr;
BUFFER_DESCRIPTOR_TYPE *pSharedMsgBufDescPtr;
pMEDIA_ENC_API_CONTROL_INTERFACE pEncCtrlInterface;
This->shared_mem_phy = base_phy_addr;
This->shared_mem_vir = base_virt_addr;
This->base_offset = (unsigned long long)(base_virt_addr - base_phy_addr);
pSharedInterface = (pENC_RPC_HOST_IFACE)This->shared_mem_vir;
This->pSharedInterface = pSharedInterface;
pSharedInterface->FwExecBaseAddr = base_phy_addr;
pSharedInterface->FwExecAreaSize = total_size;
pSharedCmdBufDescPtr = (BUFFER_DESCRIPTOR_TYPE *)&pSharedInterface->StreamCmdBufferDesc;
pSharedMsgBufDescPtr = (BUFFER_DESCRIPTOR_TYPE *)&pSharedInterface->StreamMsgBufferDesc;
phy_addr = base_phy_addr + sizeof(ENC_RPC_HOST_IFACE);
This->cmd_mem_phy = phy_addr;
This->cmd_mem_vir = This->shared_mem_vir + sizeof(ENC_RPC_HOST_IFACE);
pSharedCmdBufDescPtr->wptr = phy_addr;
pSharedCmdBufDescPtr->rptr = pSharedCmdBufDescPtr->wptr;
pSharedCmdBufDescPtr->start = pSharedCmdBufDescPtr->wptr;
pSharedCmdBufDescPtr->end = pSharedCmdBufDescPtr->start + CMD_SIZE;
phy_addr += CMD_SIZE;
This->msg_mem_phy = phy_addr;
This->msg_mem_vir = This->cmd_mem_vir + CMD_SIZE;
pSharedMsgBufDescPtr->wptr = phy_addr;
pSharedMsgBufDescPtr->rptr = pSharedMsgBufDescPtr->wptr;
pSharedMsgBufDescPtr->start = pSharedMsgBufDescPtr->wptr;
pSharedMsgBufDescPtr->end = pSharedMsgBufDescPtr->start + MSG_SIZE;
phy_addr += MSG_SIZE;
for (i = 0; i < VID_API_NUM_STREAMS; i++) {
pSharedInterface->pEncCtrlInterface[i] = phy_addr;
phy_addr += sizeof(MEDIA_ENC_API_CONTROL_INTERFACE);
}
for (i = 0; i < VID_API_NUM_STREAMS; i++) {
temp_addr = pSharedInterface->pEncCtrlInterface[i];
pEncCtrlInterface = (pMEDIA_ENC_API_CONTROL_INTERFACE)(temp_addr + This->base_offset);
pEncCtrlInterface->pEncYUVBufferDesc = phy_addr;
phy_addr += sizeof(MEDIAIP_ENC_YUV_BUFFER_DESC);
pEncCtrlInterface->pEncStreamBufferDesc = phy_addr;
phy_addr += sizeof(BUFFER_DESCRIPTOR_TYPE);
pEncCtrlInterface->pEncExpertModeParam = phy_addr;
phy_addr += sizeof(MEDIAIP_ENC_EXPERT_MODE_PARAM);
pEncCtrlInterface->pEncParam = phy_addr;
phy_addr += sizeof(MEDIAIP_ENC_PARAM);
pEncCtrlInterface->pEncMemPool = phy_addr;
phy_addr += sizeof(MEDIAIP_ENC_MEM_POOL);
pEncCtrlInterface->pEncEncodingStatus = phy_addr;
phy_addr += sizeof(ENC_ENCODING_STATUS);
pEncCtrlInterface->pEncDSAStatus = phy_addr;
phy_addr += sizeof(ENC_DSA_STATUS_t);
}
if (actual_size)
*actual_size = phy_addr - base_phy_addr;
}
void rpc_set_system_cfg_value_encoder(void *Interface, u_int32 regs_base, u_int32 core_id)
{
pENC_RPC_HOST_IFACE pSharedInterface;
MEDIAIP_FW_SYSTEM_CONFIG *pSystemCfg;
pSharedInterface = (pENC_RPC_HOST_IFACE)Interface;
pSystemCfg = &pSharedInterface->sSystemCfg;
pSystemCfg->uNumWindsors = 1;
pSystemCfg->uWindsorIrqPin[0x0][0x0] = 0x4; // PAL_IRQ_WINDSOR_LOW
pSystemCfg->uWindsorIrqPin[0x0][0x1] = 0x5; // PAL_IRQ_WINDSOR_HI
pSystemCfg->uMaloneBaseAddress[0] = (unsigned int)(regs_base + 0x180000);
if (core_id == 0)
pSystemCfg->uWindsorBaseAddress[0] = (unsigned int)(regs_base + 0x800000);
else
pSystemCfg->uWindsorBaseAddress[0] = (unsigned int)(regs_base + 0xa00000);
pSystemCfg->uMaloneBaseAddress[0x1] = 0x0;
pSystemCfg->uHifOffset[0x0] = 0x1C000;
pSystemCfg->uHifOffset[0x1] = 0x0;
pSystemCfg->uDPVBaseAddr = 0x0;
pSystemCfg->uDPVIrqPin = 0x0;
pSystemCfg->uPixIfBaseAddr = (unsigned int)(regs_base + 0x180000 + 0x20000);
pSystemCfg->uFSLCacheBaseAddr[0] = (unsigned int)(regs_base + 0x60000);
pSystemCfg->uFSLCacheBaseAddr[1] = (unsigned int)(regs_base + 0x68000);
}
u_int32 rpc_MediaIPFW_Video_buffer_space_check_encoder(BUFFER_DESCRIPTOR_TYPE *pBufDesc,
BOOL bFull,
u_int32 uSize,
u_int32 *puUpdateAddress)
{
u_int32 uPtr1;
u_int32 uPtr2;
u_int32 start;
u_int32 end;
u_int32 uTemp;
/* bFull is FALSE when send message, write data */
/* bFull is TRUE when process commands, read data */
uPtr1 = (bFull) ? pBufDesc->rptr : pBufDesc->wptr;
uPtr2 = (bFull) ? pBufDesc->wptr : pBufDesc->rptr;
if (uPtr1 == uPtr2) {
if (bFull)
/* No data at all to read */
return 0;
else {
/* wrt pointer equal to read pointer thus the */
/* buffer is completely empty for further writes */
start = pBufDesc->start;
end = pBufDesc->end;
/* The address to be returned in this case is for */
/* the updated write pointer. */
uTemp = uPtr1 + uSize;
if (uTemp >= end)
uTemp += (start - end);
*puUpdateAddress = uTemp;
return (end - start);
}
} else if (uPtr1 < uPtr2) {
/* return updated rd pointer address */
/* In this case if size was too big - we expect the */
/* external ftn to compare the size against the */
/* space returned.
*/
*puUpdateAddress = uPtr1 + uSize;
return (uPtr2 - uPtr1);
}
/* We know the system has looped!! */
start = pBufDesc->start;
end = pBufDesc->end;
uTemp = uPtr1 + uSize;
if (uTemp >= end)
uTemp += (start - end);
*puUpdateAddress = uTemp;
return ((end - uPtr1) + (uPtr2 - start));
}
static void rpc_update_cmd_buffer_ptr_encoder(BUFFER_DESCRIPTOR_TYPE *pCmdDesc)
{
u_int32 uWritePtr;
/*avoid sw reset fail*/
mb();
uWritePtr = pCmdDesc->wptr + 4;
if (uWritePtr >= pCmdDesc->end)
uWritePtr = pCmdDesc->start;
pCmdDesc->wptr = uWritePtr;
}
void rpc_send_cmd_buf_encoder(struct shared_addr *This,
u_int32 idx,
u_int32 cmdid,
u_int32 cmdnum,
u_int32 *local_cmddata)
{
pENC_RPC_HOST_IFACE pSharedInterface = (pENC_RPC_HOST_IFACE)This->shared_mem_vir;
BUFFER_DESCRIPTOR_TYPE *pCmdDesc = &pSharedInterface->StreamCmdBufferDesc;
u_int32 *cmddata;
u_int32 i;
u_int32 *cmdword = (u_int32 *)(This->cmd_mem_vir+pCmdDesc->wptr - pCmdDesc->start);
*cmdword = 0;
*cmdword |= ((idx & 0x000000ff) << 24);
*cmdword |= ((cmdnum & 0x000000ff) << 16);
*cmdword |= ((cmdid & 0x00003fff) << 0);
rpc_update_cmd_buffer_ptr_encoder(pCmdDesc);
for (i = 0; i < cmdnum; i++) {
cmddata = (u_int32 *)(This->cmd_mem_vir+pCmdDesc->wptr - pCmdDesc->start);
*cmddata = local_cmddata[i];
rpc_update_cmd_buffer_ptr_encoder(pCmdDesc);
}
}
u_int32 rpc_MediaIPFW_Video_message_check_encoder(struct shared_addr *This)
{
u_int32 uSpace;
u_int32 uIgnore;
pENC_RPC_HOST_IFACE pSharedInterface = (pENC_RPC_HOST_IFACE)This->shared_mem_vir;
BUFFER_DESCRIPTOR_TYPE *pMsgDesc = &pSharedInterface->StreamMsgBufferDesc;
u_int32 msgword;
u_int32 msgnum;
uSpace = rpc_MediaIPFW_Video_buffer_space_check_encoder(pMsgDesc, TRUE, 0, &uIgnore);
uSpace = (uSpace >> 2);
if (uSpace) {
/* get current msgword word */
msgword = *((u_int32 *)(This->msg_mem_vir+pMsgDesc->rptr - pMsgDesc->start));
/* Find the number of additional words */
msgnum = ((msgword & 0x00ff0000) >> 16);
/*
* * Check the number of message words against
* * 1) a limit - some sort of maximum or at least
* * the size of the SW buffer the message is read into
* * 2) The space reported (where space is write ptr - read ptr in 32bit words)
* * It must be less than space (as opposed to <=) because
* * the message itself is not included in msgword
*/
if (msgnum < VID_API_MESSAGE_LIMIT) {
if (msgnum < uSpace)
return API_MSG_AVAILABLE;
else
return API_MSG_INCOMPLETE;
} else
return API_MSG_BUFFER_ERROR;
}
return API_MSG_UNAVAILABLE;
}
static void rpc_update_msg_buffer_ptr_encoder(BUFFER_DESCRIPTOR_TYPE *pMsgDesc)
{
u_int32 uReadPtr;
uReadPtr = pMsgDesc->rptr + 4;
if (uReadPtr >= pMsgDesc->end)
uReadPtr = pMsgDesc->start;
pMsgDesc->rptr = uReadPtr;
}
u32 rpc_read_msg_u32(struct shared_addr *shared_mem)
{
u32 msgword;
u32 *ptr = NULL;
pENC_RPC_HOST_IFACE iface = NULL;
BUFFER_DESCRIPTOR_TYPE *msg_buf = NULL;
if (!shared_mem)
return 0;
iface = shared_mem->pSharedInterface;
msg_buf = &iface->StreamMsgBufferDesc;
ptr = shared_mem->msg_mem_vir + msg_buf->rptr - msg_buf->start;
rpc_update_msg_buffer_ptr_encoder(msg_buf);
msgword = *ptr;
return msgword;
}
int rpc_read_msg_array(struct shared_addr *shared_mem, u32 *buf, u32 number)
{
int i;
u32 val;
if (!shared_mem)
return -EINVAL;
for (i = 0; i < number; i++) {
val = rpc_read_msg_u32(shared_mem);
if (buf)
buf[i] = val;
}
return 0;
}
int rpc_get_msg_header(struct shared_addr *shared_mem, struct msg_header *msg)
{
u32 msgword;
if (!shared_mem || !msg)
return -EINVAL;
msgword = rpc_read_msg_u32(shared_mem);
msg->idx = ((msgword & 0xff000000) >> 24);
msg->msgnum = ((msgword & 0x00ff0000) >> 16);
msg->msgid = ((msgword & 0x00003fff) >> 0);
return 0;
}
static void *phy_to_virt(u_int32 src, unsigned long long offset)
{
void *result;
result = (void *)(src + offset);
return result;
}
#define GET_CTRL_INTERFACE_MEMBER(shared_mem, index, name, member) \
do {\
pENC_RPC_HOST_IFACE iface = shared_mem->pSharedInterface; \
pMEDIA_ENC_API_CONTROL_INTERFACE ctrl_interface =\
phy_to_virt(iface->pEncCtrlInterface[index],\
shared_mem->base_offset);\
name = phy_to_virt(ctrl_interface->member,\
shared_mem->base_offset);\
} while (0)
pMEDIAIP_ENC_YUV_BUFFER_DESC rpc_get_yuv_buffer_desc(
struct shared_addr *shared_mem, int index)
{
pMEDIAIP_ENC_YUV_BUFFER_DESC desc = NULL;
GET_CTRL_INTERFACE_MEMBER(shared_mem, index, desc, pEncYUVBufferDesc);
return desc;
}
pBUFFER_DESCRIPTOR_TYPE rpc_get_stream_buffer_desc(
struct shared_addr *shared_mem, int index)
{
pBUFFER_DESCRIPTOR_TYPE desc = NULL;
GET_CTRL_INTERFACE_MEMBER(shared_mem, index,
desc, pEncStreamBufferDesc);
return desc;
}
pMEDIAIP_ENC_EXPERT_MODE_PARAM rpc_get_expert_mode_param(
struct shared_addr *shared_mem, int index)
{
pMEDIAIP_ENC_EXPERT_MODE_PARAM param = NULL;
GET_CTRL_INTERFACE_MEMBER(shared_mem, index,
param, pEncExpertModeParam);
return param;
}
pMEDIAIP_ENC_PARAM rpc_get_enc_param(
struct shared_addr *shared_mem, int index)
{
pMEDIAIP_ENC_PARAM param = NULL;
GET_CTRL_INTERFACE_MEMBER(shared_mem, index, param, pEncParam);
return param;
}
pMEDIAIP_ENC_MEM_POOL rpc_get_mem_pool(
struct shared_addr *shared_mem, int index)
{
pMEDIAIP_ENC_MEM_POOL pool = NULL;
GET_CTRL_INTERFACE_MEMBER(shared_mem, index, pool, pEncMemPool);
return pool;
}
pENC_ENCODING_STATUS rpc_get_encoding_status(
struct shared_addr *shared_mem, int index)
{
pENC_ENCODING_STATUS encoding_status = NULL;
GET_CTRL_INTERFACE_MEMBER(shared_mem, index,
encoding_status, pEncEncodingStatus);
return encoding_status;
}
pENC_DSA_STATUS_t rpc_get_dsa_status(struct shared_addr *shared_mem, int index)
{
pENC_DSA_STATUS_t dsa_status = NULL;
GET_CTRL_INTERFACE_MEMBER(shared_mem, index, dsa_status, pEncDSAStatus);
return dsa_status;
}
void rpc_set_print_buffer(struct shared_addr *shared_mem,
unsigned long print_phy_addr, u32 size)
{
pENC_RPC_HOST_IFACE pSharedInterface;
pBUFFER_DESCRIPTOR_TYPE debugBufDesc;
pSharedInterface = shared_mem->pSharedInterface;
debugBufDesc = &pSharedInterface->DebugBufferDesc;
debugBufDesc->start = print_phy_addr;
debugBufDesc->end = debugBufDesc->start + size;
debugBufDesc->wptr = debugBufDesc->rptr = debugBufDesc->start;
}