karthick B
vedio_gr_peach
Fork of
GR-PEACH_video
by 
Renesas
drivers/vdec/src/r_vdec_register.c
- Committer:
- dkato
- Date:
- 2016-06-30
- Revision:
- 4:aeefe5171463
- Parent:
- 0:853f5b7408a7
File content as of revision 4:aeefe5171463:
/*******************************************************************************
* DISCLAIMER
* This software is supplied by Renesas Electronics Corporation and is only
* intended for use with Renesas products. No other uses are authorized. This
* software is owned by Renesas Electronics Corporation and is protected under
* all applicable laws, including copyright laws.
* THIS SOFTWARE IS PROVIDED "AS IS" AND RENESAS MAKES NO WARRANTIES REGARDING
* THIS SOFTWARE, WHETHER EXPRESS, IMPLIED OR STATUTORY, INCLUDING BUT NOT
* LIMITED TO WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE
* AND NON-INFRINGEMENT. ALL SUCH WARRANTIES ARE EXPRESSLY DISCLAIMED.
* TO THE MAXIMUM EXTENT PERMITTED NOT PROHIBITED BY LAW, NEITHER RENESAS
* ELECTRONICS CORPORATION NOR ANY OF ITS AFFILIATED COMPANIES SHALL BE LIABLE
* FOR ANY DIRECT, INDIRECT, SPECIAL, INCIDENTAL OR CONSEQUENTIAL DAMAGES FOR
* ANY REASON RELATED TO THIS SOFTWARE, EVEN IF RENESAS OR ITS AFFILIATES HAVE
* BEEN ADVISED OF THE POSSIBILITY OF SUCH DAMAGES.
* Renesas reserves the right, without notice, to make changes to this software
* and to discontinue the availability of this software. By using this software,
* you agree to the additional terms and conditions found by accessing the
* following link:
* http://www.renesas.com/disclaimer
* Copyright (C) 2012 - 2015 Renesas Electronics Corporation. All rights reserved.
*******************************************************************************/
/**************************************************************************//**
* @file r_vdec_register.c
* @version 1.00
* $Rev: 199 $
* $Date:: 2014-05-23 16:33:52 +0900#$
* @brief VDEC driver register setup processing
******************************************************************************/
/******************************************************************************
Includes <System Includes> , "Project Includes"
******************************************************************************/
#include "r_vdec.h"
#include "r_vdec_user.h"
#include "r_vdec_register.h"
/******************************************************************************
Macro definitions
******************************************************************************/
/* shift value */
#define VEDC_REG_SHIFT_15 (15u)
#define VEDC_REG_SHIFT_14 (14u)
#define VEDC_REG_SHIFT_13 (13u)
#define VEDC_REG_SHIFT_12 (12u)
#define VEDC_REG_SHIFT_11 (11u)
#define VEDC_REG_SHIFT_10 (10u)
#define VEDC_REG_SHIFT_9 (9u)
#define VEDC_REG_SHIFT_8 (8u)
#define VEDC_REG_SHIFT_6 (6u)
#define VEDC_REG_SHIFT_5 (5u)
#define VEDC_REG_SHIFT_4 (4u)
#define VEDC_REG_SHIFT_2 (2u)
#define VEDC_REG_SHIFT_1 (1u)
/* bit set pattern */
#define VDEC_REG_SET_0X8000 (0x8000u)
#define VDEC_REG_SET_0X4000 (0x4000u)
#define VDEC_REG_SET_0X2000 (0x2000u)
#define VDEC_REG_SET_0X1000 (0x1000u)
#define VDEC_REG_SET_0X0800 (0x0800u)
#define VDEC_REG_SET_0X0100 (0x0100u)
#define VDEC_REG_SET_0X0080 (0x0080u)
#define VDEC_REG_SET_0X0020 (0x0020u)
#define VDEC_REG_SET_0X0010 (0x0010u)
#define VDEC_REG_SET_0X0008 (0x0008u)
#define VDEC_REG_SET_0X0004 (0x0004u)
#define VDEC_REG_SET_0X0002 (0x0002u)
#define VDEC_REG_SET_0X0001 (0x0001u)
/* bit mask pattern */
#define VDEC_REG_BIT_MASK_0X8000 (0x8000u)
#define VDEC_REG_BIT_MASK_0X4000 (0x4000u)
#define VDEC_REG_BIT_MASK_0X2000 (0x2000u)
#define VDEC_REG_BIT_MASK_0X1000 (0x1000u)
#define VDEC_REG_BIT_MASK_0X0800 (0x0800u)
#define VDEC_REG_BIT_MASK_0X0400 (0x0400u)
#define VDEC_REG_BIT_MASK_0X0200 (0x0200u)
#define VDEC_REG_BIT_MASK_0X0100 (0x0100u)
/* register mask value */
#define VDEC_REG_MASK_0X03FF (0x03FFu) /* mask vdec_reg->syncssr */
#define VDEC_REG_MASK_0XFF1F (0xFF1Fu) /* mask vdec_reg->ycscr7 */
#define VDEC_REG_MASK_0XF3FF (0xF3FFu) /* mask vdec_reg->hafccr1 */
#define VDEC_REG_MASK_0X83FF (0x83FFu) /* mask vdec_reg->dcpcr1 */
#define VDEC_REG_MASK_0X01FF (0x01FFu) /* mask vdec_reg->ycscr11 */
#define VDEC_REG_MASK_0X1C00 (0x1C00u) /* mask vdec_reg->dcpcr9 */
#define VDEC_REG_MASK_0X1F00 (0x1F00u) /* mask vdec_reg->pgacr */
#define VDEC_REG_MASK_0X3F00 (0x3F00u) /* mask vdec_reg->agccr2 */
#define VDEC_REG_MASK_0X0007 (0x0007u) /* mask vdec_reg->rgorcr7 */
#define VDEC_REG_MASK_0XF800 (0xF800u) /* mask vdec_reg->ycscr8 */
#define VDEC_REG_MASK_0XFC00 (0xFC00u) /* mask vdec_reg->synscr1 */
#define VDEC_REG_MASK_0X00FF (0x00FFu) /* mask vdec_reg->synscr1 */
#define VDEC_REG_MASK_0X0003 (0x0003u) /* mask vdec_reg->cromasr1 */
/******************************************************************************
Typedef definitions
******************************************************************************/
/******************************************************************************
Private global variables and functions
******************************************************************************/
static void NoiseReductionLPF(
const vdec_reg_address_t * const vdec_reg,
const vdec_noise_rd_lpf_t * const p_noise_rd_lpf);
static void SyncSlicer(const vdec_reg_address_t * const vdec_reg, const vdec_sync_slicer_t * const p_sync_slicer);
static void HorizontalAFC(
const vdec_reg_address_t * const vdec_reg,
const vdec_horizontal_afc_t * const p_horizontal_afc);
static void VerticalCountdown(
const vdec_reg_address_t * const vdec_reg,
const vdec_vcount_down_t * const p_vcount_down);
static void AgcPga(const vdec_reg_address_t * const vdec_reg, const vdec_agc_t * const p_agc);
static void PeakLimiterControl(
const vdec_reg_address_t * const vdec_reg,
const vdec_peak_limiter_t * const p_peak_limiter);
static void OverRangeControl(const vdec_reg_address_t * const vdec_reg, const vdec_over_range_t * const p_over_range);
static void YcSeparationControl(
const vdec_reg_address_t * const vdec_reg,
const vdec_yc_sep_ctrl_t * const p_yc_sep_ctrl);
static void FilterTAPsCoefficient(
volatile uint16_t * const * fil_reg_address,
const vdec_chrfil_tap_t * const fil2_2d);
/**************************************************************************//**
* @brief Sets registers for initialization
* @param[in] ch : Channel
* @param[in] vinsel : Input pin control
* @retval None
*****************************************************************************/
void VDEC_Initialize (const vdec_channel_t ch, const vdec_adc_vinsel_t vinsel)
{
const vdec_reg_address_t * vdec_reg;
uint16_t reg_data;
vdec_reg = &vdec_reg_address[ch];
/* Input pin control */
if (vinsel == VDEC_ADC_VINSEL_VIN1) {
reg_data = (uint16_t)((uint32_t)*(vdec_reg->adccr2) & (~0x0001u));
*(vdec_reg->adccr2) = reg_data;
} else {
reg_data = (uint16_t)((uint32_t)*(vdec_reg->adccr2) | (0x0001u));
*(vdec_reg->adccr2) = reg_data;
}
return;
} /* End of function VDEC_Initialize() */
/**************************************************************************//**
* @brief Sets registers for active image period
* @param[in] ch : Channel
* @param[in] param : Active image period parameter
* @retval None
*****************************************************************************/
void VDEC_ActivePeriod (const vdec_channel_t ch, const vdec_active_period_t * const param)
{
const vdec_reg_address_t * vdec_reg;
vdec_reg = &vdec_reg_address[ch];
/* Left end of input video signal capturing area */
*(vdec_reg->tgcr1) = param->srcleft;
/* Top end of input video signal capturing area
and height of input video signal capturing area */
*(vdec_reg->tgcr2) = (uint16_t)(((uint32_t)param->srctop << VEDC_REG_SHIFT_10) | (uint32_t)param->srcheight);
/* Width of input video signal capturing area */
*(vdec_reg->tgcr3) = param->srcwidth;
return;
} /* End of function VDEC_ActivePeriod() */
/**************************************************************************//**
* @brief Sets registers for sync separation
* @param[in] ch : Channel
* @param[in] param : Sync separation parameter
* @retval None
*****************************************************************************/
void VDEC_SyncSeparation (const vdec_channel_t ch, const vdec_sync_separation_t * const param)
{
const vdec_reg_address_t * vdec_reg;
vdec_reg = &vdec_reg_address[ch];
/* Noise reduction LPF */
NoiseReductionLPF(vdec_reg, param->noise_rd_lpf);
/* Auto level control sync slicer */
SyncSlicer(vdec_reg, param->sync_slicer);
/* Horizontal AFC */
HorizontalAFC(vdec_reg, param->horizontal_afc);
/* Vertical count-down */
VerticalCountdown(vdec_reg, param->vcount_down);
/* AGC/PGA */
AgcPga(vdec_reg, param->agc);
/* Peak limiter control */
PeakLimiterControl(vdec_reg, param->peak_limiter);
return;
} /* End of function VDEC_SyncSeparation() */
/**************************************************************************//**
* @brief Sets registers for Y/C separation
* @param[in] ch : Channel
* @param[in] param : Y/C separation parameter
* @retval None
*****************************************************************************/
void VDEC_YcSeparation (const vdec_channel_t ch, const vdec_yc_separation_t * const param)
{
const vdec_reg_address_t * vdec_reg;
vdec_reg = &vdec_reg_address[ch];
/* Over-range control */
OverRangeControl(vdec_reg, param->over_range);
/* Y/C separation control */
YcSeparationControl(vdec_reg, param->yc_sep_ctrl);
/* Two-dimensional cascade broadband (3.58/4.43/SECAM-DR)/TAKE-OFF filter TAP coefficient */
FilterTAPsCoefficient(vdec_filter_reg_address[ch].yctwa_f, param->fil2_2d_wa);
/* Two-dimensional cascade broadband (SECAM-DB) filter TAP coefficient */
FilterTAPsCoefficient(vdec_filter_reg_address[ch].yctwb_f, param->fil2_2d_wb);
/* Two-dimensional cascade narrowband (3.58/4.43/SECAM-DR) filter TAP coefficient */
FilterTAPsCoefficient(vdec_filter_reg_address[ch].yctna_f, param->fil2_2d_na);
/* Two-dimensional cascade narrowband (SECAMDB) filter TAP coefficient */
FilterTAPsCoefficient(vdec_filter_reg_address[ch].yctnb_f, param->fil2_2d_nb);
return;
} /* End of function VDEC_YcSeparation() */
/**************************************************************************//**
* @brief Sets registers for chroma decoding
* @param[in] ch : Channel
* @param[in] param : Chroma decoding parameter
* @retval None
*****************************************************************************/
void VDEC_ChromaDecoding (const vdec_channel_t ch, const vdec_chroma_decoding_t * const param)
{
const vdec_reg_address_t * vdec_reg;
vdec_chrmdec_ctrl_t * p_chrmdec_ctrl;
vdec_burst_lock_t * p_burst_lock;
vdec_acc_t * p_acc;
vdec_tint_ry_t * p_tint_ry;
uint32_t reg_data;
vdec_reg = &vdec_reg_address[ch];
p_chrmdec_ctrl = param->chrmdec_ctrl;
p_burst_lock = param->burst_lock;
p_acc = param->acc;
p_tint_ry = param->tint_ry;
/* Color system detection */
if (p_chrmdec_ctrl != NULL) {
reg_data = (uint32_t)*(vdec_reg->btlcr) & (uint32_t)(~VDEC_REG_MASK_0X00FF);
/* Default color system */
reg_data |= (uint32_t)p_chrmdec_ctrl->defaultsys << VEDC_REG_SHIFT_6;
/* NTSC-M detection control */
reg_data |= (p_chrmdec_ctrl->nontsc358_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X0020 : (uint32_t)0x0000u;
/* NTSC-4.43 detection control */
reg_data |= (p_chrmdec_ctrl->nontsc443_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X0010 : (uint32_t)0x0000u;
/* PAL-M detection control */
reg_data |= (p_chrmdec_ctrl->nopalm_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X0008 : (uint32_t)0x0000u;
/* PAL-N detection control */
reg_data |= (p_chrmdec_ctrl->nopaln_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X0004 : (uint32_t)0x0000u;
/* PAL-B, G, H, I, D detection control */
reg_data |= (p_chrmdec_ctrl->nopal443_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X0002 : (uint32_t)0x0000u;
/* SECAM detection control */
reg_data |= (p_chrmdec_ctrl->nosecam_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X0001 : (uint32_t)0x0000u;
*(vdec_reg->btlcr) = (uint16_t)reg_data;
/* Luminance signal delay adjustment */
reg_data = (uint32_t)p_chrmdec_ctrl->lumadelay << VEDC_REG_SHIFT_4;
/* LPF for demodulated chroma */
reg_data |= (p_chrmdec_ctrl->chromalpf == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X0004;
/* Averaging processing for pre-demodulated line */
reg_data |= (uint32_t)p_chrmdec_ctrl->demodmode;
*(vdec_reg->ycdcr) = (uint16_t)reg_data;
}
/* BCO */
if (p_burst_lock != NULL) {
reg_data = (uint32_t)*(vdec_reg->btlcr) & (uint32_t)(~VDEC_REG_MASK_0XFC00);
/* Burst lock PLL lock range */
reg_data |= (uint32_t)p_burst_lock->lockrange << VEDC_REG_SHIFT_14;
/* Burst lock PLL loop gain */
reg_data |= (uint32_t)p_burst_lock->loopgain << VEDC_REG_SHIFT_12;
/* Level for burst lock PLL to re-search free-run frequency */
reg_data |= (uint32_t)p_burst_lock->locklimit << VEDC_REG_SHIFT_10;
*(vdec_reg->btlcr) = (uint16_t)reg_data;
/* burst gate pulse position check */
reg_data = (uint32_t)p_burst_lock->bgpcheck << VEDC_REG_SHIFT_15;
/* burst gate pulse width */
reg_data |= (uint32_t)p_burst_lock->bgpwidth << VEDC_REG_SHIFT_8;
/* burst gate pulse start position */
reg_data |= (uint32_t)p_burst_lock->bgpstart;
*(vdec_reg->btgpcr) = (uint16_t)reg_data;
}
/* ACC and color killer */
if (p_acc != NULL) {
/* ACC operating mode */
reg_data = (p_acc->accmode == VDEC_ACC_MD_AUTO) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X0800;
/* Maximum ACC Gain */
reg_data |= (uint32_t)p_acc->accmaxgain << VEDC_REG_SHIFT_9;
/* ACC reference color burst amplitude */
reg_data |= (uint32_t)p_acc->acclevel;
/* Color killer offset */
reg_data |= (uint32_t)p_acc->killeroffset << VEDC_REG_SHIFT_12;
*(vdec_reg->acccr1) = (uint16_t)reg_data;
/* Chroma manual gain (sub) */
reg_data = (uint32_t)p_acc->chromasubgain << VEDC_REG_SHIFT_9;
/* Chroma manual gain (main) */
reg_data |= (uint32_t)p_acc->chromamaingain;
*(vdec_reg->acccr2) = (uint16_t)reg_data;
/* ACC response speed */
reg_data = (uint32_t)p_acc->accresponse << VEDC_REG_SHIFT_14;
/* ACC gain adjustment accuracy */
reg_data |= (uint32_t)p_acc->accprecis << VEDC_REG_SHIFT_8;
/* Forced color killer mode ON/OFF */
reg_data |= (p_acc->killermode == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X0080;
/* Color killer operation start point */
reg_data |= (uint32_t)p_acc->killerlevel << VEDC_REG_SHIFT_1;
*(vdec_reg->acccr3) = (uint16_t)reg_data;
}
/* TINT correction/R-Y axis correction (only valid for NTSC/PAL) */
if (p_tint_ry != NULL) {
/* Fine adjustment of R-Y demodulation axis and hue adjustment level */
reg_data = (uint32_t)p_tint_ry->tintsub << VEDC_REG_SHIFT_10;
reg_data |= (uint32_t)p_tint_ry->tintmain;
*(vdec_reg->tintcr) = (uint16_t)reg_data;
}
return;
} /* End of function VDEC_ChromaDecoding() */
/**************************************************************************//**
* @brief Sets registers for digital clamp
* @param[in] ch : Channel
* @param[in] param : Digital clamp parameter
* @retval None
*****************************************************************************/
void VDEC_DigitalClamp (const vdec_channel_t ch, const vdec_degital_clamp_t * const param)
{
const vdec_reg_address_t * vdec_reg;
vdec_pedestal_clamp_t * p_pedestal_clamp;
vdec_center_clamp_t * p_center_clamp;
vdec_noise_det_t * p_noise_det;
uint32_t reg_data;
vdec_reg = &vdec_reg_address[ch];
p_pedestal_clamp = param->pedestal_clamp;
p_center_clamp = param->center_clamp;
p_noise_det = param->noise_det;
/* Digital clamp pulse position check */
reg_data = (uint32_t)*(vdec_reg->dcpcr1);
if (param->dcpcheck == VDEC_OFF) {
reg_data &= (uint32_t)(~VDEC_REG_SET_0X0800);
} else {
reg_data |= (uint32_t)VDEC_REG_SET_0X0800;
}
*(vdec_reg->dcpcr1) = (uint16_t)reg_data;
/* Digital clamp response speed */
*(vdec_reg->dcpcr3) = (uint16_t)((uint32_t)param->dcpresponse << VEDC_REG_SHIFT_12);
/* Digital clamp start line */
*(vdec_reg->dcpcr4) = (uint16_t)((uint32_t)param->dcpstart << VEDC_REG_SHIFT_10);
/* Digital clamp end line */
*(vdec_reg->dcpcr5) = (uint16_t)((uint32_t)param->dcpend << VEDC_REG_SHIFT_10);
/* Digital clamp pulse width */
*(vdec_reg->dcpcr6) = (uint16_t)((uint32_t)param->dcpwidth << VEDC_REG_SHIFT_8);
/* Pedestal clamp */
if (p_pedestal_clamp != NULL) {
reg_data = (uint32_t)*(vdec_reg->dcpcr1) & (uint32_t)(~VDEC_REG_MASK_0X83FF);
/* Clamp level setting mode (Y signal) */
reg_data |= (p_pedestal_clamp->dcpmode_y == VDEC_DCPMODE_MANUAL) ? (uint32_t)0x0000u :
(uint32_t)VDEC_REG_SET_0X8000;
/* Clamp offset level (Y signal) */
reg_data |= (uint32_t)p_pedestal_clamp->blanklevel_y;
*(vdec_reg->dcpcr1) = (uint16_t)reg_data;
/* Digital clamp pulse horizontal start position (Y signal) */
*(vdec_reg->dcpcr7) = (uint16_t)((uint32_t)p_pedestal_clamp->dcppos_y << VEDC_REG_SHIFT_8);
}
/* Center clamp */
if (p_center_clamp != NULL) {
/* Clamp level setting mode (Cb/Cr signal) */
reg_data = (p_center_clamp->dcpmode_c == VDEC_DCPMODE_MANUAL) ? (uint32_t)0x0000u :
(uint32_t)VDEC_REG_SET_0X8000;
/* Clamp offset level (Cb signal) */
reg_data |= (uint32_t)p_center_clamp->blanklevel_cb << VEDC_REG_SHIFT_6;
/* Clamp offset level (Cr signal) */
reg_data |= (uint32_t)p_center_clamp->blanklevel_cr;
*(vdec_reg->dcpcr2) = (uint16_t)reg_data;
/* Digital clamp pulse horizontal start position (Cb/Cr signal) */
*(vdec_reg->dcpcr8) = (uint16_t)((uint32_t)p_center_clamp->dcppos_c << VEDC_REG_SHIFT_8);
}
/* Noise detection */
if (p_noise_det != NULL) {
/* Video signal for autocorrelation function */
reg_data = (uint32_t)p_noise_det->acfinput << VEDC_REG_SHIFT_12;
/* Delay time for autocorrelation function calculation */
reg_data |= (uint32_t)p_noise_det->acflagtime << VEDC_REG_SHIFT_4;
/* Smoothing parameter of autocorrelation function data */
reg_data |= (uint32_t)p_noise_det->acffilter;
*(vdec_reg->nsdcr) = (uint16_t)reg_data;
}
/* Clamp data hold processing (Y, Cb, Cr) OFF */
reg_data = (uint32_t)*(vdec_reg->dcpcr9) & (uint32_t)(~VDEC_REG_MASK_0X1C00);
*(vdec_reg->dcpcr9) = (uint16_t)reg_data;
return;
} /* End of function VDEC_DigitalClamp() */
/**************************************************************************//**
* @brief Sets registers for output adjustment
* @param[in] ch : Channel
* @param[in] param : Output adjustment parameter
* @retval None
*****************************************************************************/
void VDEC_Output (const vdec_channel_t ch, const vdec_output_t * const param)
{
const vdec_reg_address_t * vdec_reg;
vdec_reg = &vdec_reg_address[ch];
/* Y, Cb and Cr signal gain coefficient */
*(vdec_reg->ygaincr) = param->y_gain2;
*(vdec_reg->cbgaincr) = param->cb_gain2;
*(vdec_reg->crgaincr) = param->cr_gain2;
return;
} /* End of function VDEC_Output() */
/**************************************************************************//**
* @brief Query VDEC parameters
* @param[in] ch : Channel
* @param[out] q_sync_sep : Sync separation parameters
* @param[out] q_agc : Agc parameters
* @param[out] q_chroma_dec : Chroma decoding parameters
* @param[out] q_digital_clamp : Digital clamp parameters
* @retval None
*****************************************************************************/
void VDEC_Query (
const vdec_channel_t ch,
vdec_q_sync_sep_t * const q_sync_sep,
vdec_q_agc_t * const q_agc,
vdec_q_chroma_dec_t * const q_chroma_dec,
vdec_q_digital_clamp_t * const q_digital_clamp)
{
const vdec_reg_address_t * vdec_reg;
uint32_t reg_value;
vdec_reg = &vdec_reg_address[ch];
/* Sync separation */
if (q_sync_sep != NULL) {
reg_value = (uint32_t)*(vdec_reg->vsyncsr);
/* Horizontal AFC lock detection result */
q_sync_sep->fhlock = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X4000) == 0u) ? VDEC_UNLOCK : VDEC_LOCK;
/* Detection result of low S/N signal by sync separation */
q_sync_sep->isnoisy = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X2000) == 0u) ? VDEC_NO : VDEC_YES;
/* Speed detection result */
q_sync_sep->fhmode = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X1000) == 0u) ? VDEC_FHMD_NORMAL :
VDEC_FHMD_MULTIPLIED;
/* No-signal detection result */
q_sync_sep->nosignal_ = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0800) == 0u) ? VDEC_YES : VDEC_NO;
/* Vertical countdown lock detection result */
q_sync_sep->fvlock = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0400) == 0u) ? VDEC_UNLOCK : VDEC_LOCK;
/* Vertical countdown oscillation mode */
q_sync_sep->fvmode = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0200) == 0u) ? VDEC_FVMD_50HZ :
VDEC_FVMD_60HZ;
/* Interlace detection result */
q_sync_sep->interlaced = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0100) == 0u) ? VDEC_NO : VDEC_YES;
/* Vertical cycle measurement result */
q_sync_sep->fvcount = (uint16_t)(reg_value & (uint32_t)VDEC_REG_MASK_0X00FF);
/* Horizontal AFC oscillation cycle */
q_sync_sep->fhcount = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X8000) == 0u) ? 0x0000u : (uint32_t)0x0001u;
q_sync_sep->fhcount |= (uint32_t)*(vdec_reg->hsyncsr) << VEDC_REG_SHIFT_1;
reg_value = (uint32_t)*(vdec_reg->syncssr);
/* Sync amplitude detection result during VBI period */
q_sync_sep->isreduced = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X1000) == 0u) ? VDEC_NO : VDEC_YES;
/* Sync pulse amplitude detection result */
q_sync_sep->syncdepth = (uint16_t)(reg_value & (uint32_t)VDEC_REG_MASK_0X03FF);
}
/* Agc */
if (q_agc != NULL) {
reg_value = (uint32_t)*(vdec_reg->agccsr1);
/* Number of pixels which have larger luminance value than peak luminance limited by peak limiter */
q_agc->highsamples = (uint16_t)(reg_value >> VEDC_REG_SHIFT_8);
/* Number of overflowing pixels */
q_agc->peaksamples = (uint16_t)(reg_value & (uint32_t)VDEC_REG_MASK_0X00FF);
reg_value = (uint32_t)*(vdec_reg->agccsr2);
/* AGC convergence detection result */
if ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0100) == 0u) {
q_agc->agcconverge = (uint16_t)0x0000u;
} else {
q_agc->agcconverge = (uint16_t)0x0001u;
}
/* Current AGC gain value */
q_agc->agcgain = (uint16_t)(reg_value & (uint32_t)VDEC_REG_MASK_0X00FF);
}
/* Chroma decoding */
if (q_chroma_dec != NULL) {
reg_value = (uint32_t)*(vdec_reg->cromasr1);
/* Color system detection result */
q_chroma_dec->colorsys = (vdec_color_sys_t)(reg_value >> VEDC_REG_SHIFT_14);
/* Color sub-carrier frequency detection result */
q_chroma_dec->fscmode = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X2000) == 0u) ? VDEC_FSCMD_3_58 :
VDEC_FSCMD_4_43;
/* Burst lock PLL lock state detection result */
q_chroma_dec->fsclock = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X1000) == 0u) ? VDEC_UNLOCK : VDEC_LOCK;
/* Color burst detection result */
q_chroma_dec->noburst_ = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0800) == 0u) ? VDEC_YES : VDEC_NO;
/* Current ACC gain value (sub) */
q_chroma_dec->accsubgain = (vdec_chrm_subgain_t)((reg_value >> VEDC_REG_SHIFT_9) &
(uint32_t)VDEC_REG_MASK_0X0003);
/* Current ACC gain value (main) */
q_chroma_dec->accmaingain = (uint16_t)(reg_value & (uint32_t)VDEC_REG_MASK_0X01FF);
reg_value = (uint32_t)*(vdec_reg->cromasr2);
/* SECAM detection result */
q_chroma_dec->issecam = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X1000) == 0u) ? VDEC_NO : VDEC_YES;
/* PAL detection result */
q_chroma_dec->ispal = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0800) == 0u) ? VDEC_NO : VDEC_YES;
/* NTSC detection result */
q_chroma_dec->isntsc = ((reg_value & (uint32_t)VDEC_REG_BIT_MASK_0X0400) == 0u) ? VDEC_NO : VDEC_YES;
/* Low S/N signal detection result by burst lock PLL */
q_chroma_dec->locklevel = (uint16_t)(reg_value & (uint32_t)VDEC_REG_MASK_0X00FF);
}
/* Digital clamp */
if (q_digital_clamp != NULL) {
reg_value = (uint32_t)*(vdec_reg->dcpsr1);
/* Digital clamp subtraction value (Cb signal) */
q_digital_clamp->clamplevel_cb = (uint16_t)(reg_value >> VEDC_REG_SHIFT_10);
/* Digital clamp subtraction value (Y signal) */
q_digital_clamp->clamplevel_y = (uint16_t)(reg_value & (uint32_t)VDEC_REG_MASK_0X03FF);
/* Digital clamp subtraction value (Cr signal) */
q_digital_clamp->clamplevel_cr = (uint16_t)((uint32_t)*(vdec_reg->dcpsr2) >> VEDC_REG_SHIFT_10);
/* Noise autocorrelation strength at digital clamp pulse position */
q_digital_clamp->acfstrength = *(vdec_reg->nsdsr);
}
return;
} /* End of function VDEC_Query() */
/**************************************************************************//**
* @brief Sets registers for noise reduction LPF
* @param[in] vdec_reg : VDEC registers
* @param[in] p_noise_rd_lpf : Noise reduction LPF parameter
* @retval None
*****************************************************************************/
static void NoiseReductionLPF (
const vdec_reg_address_t * const vdec_reg,
const vdec_noise_rd_lpf_t * const p_noise_rd_lpf)
{
uint32_t reg_data;
/* Noise reduction LPF */
if (p_noise_rd_lpf != NULL) {
reg_data = (uint32_t)*(vdec_reg->synscr1) & (uint32_t)(~VDEC_REG_MASK_0XFC00);
/* LPF cutoff frequency before vertical sync separation */
reg_data |= (uint32_t)p_noise_rd_lpf->lpfvsync << VEDC_REG_SHIFT_13;
/* LPF cutoff frequency before horizontal sync separation */
reg_data |= (uint32_t)p_noise_rd_lpf->lpfhsync << VEDC_REG_SHIFT_10;
*(vdec_reg->synscr1) = (uint16_t)reg_data;
}
return;
} /* End of function NoiseReductionLPF() */
/**************************************************************************//**
* @brief Sets registers for auto level control sync slicer
* @param[in] vdec_reg : VDEC registers
* @param[in] p_sync_slicer : Auto level control sync slicer parameter
* @retval None
*****************************************************************************/
static void SyncSlicer (const vdec_reg_address_t * const vdec_reg, const vdec_sync_slicer_t * const p_sync_slicer)
{
uint32_t reg_data;
/* Auto level control sync slicer */
if (p_sync_slicer != NULL) {
reg_data = (uint32_t)*(vdec_reg->synscr1) & (uint32_t)(~VDEC_REG_MASK_0X00FF);
/* Reference level operation speed control for composite sync separation (for Hsync signal) */
reg_data |= (uint32_t)p_sync_slicer->velocityshift_h << VEDC_REG_SHIFT_4;
/* Auto-slice level setting for composite sync separation circuit (for Hsync signal) */
reg_data |= (uint32_t)p_sync_slicer->slicermode_h << VEDC_REG_SHIFT_2;
/* Auto-slice level setting for composite sync separation circuit (for Vsync signal) */
reg_data |= (uint32_t)p_sync_slicer->slicermode_v;
*(vdec_reg->synscr1) = (uint16_t)reg_data;
/* Max ratio of horizontal cycle to horizontal sync signal pulse width
and min ratio of horizontal cycle to horizontal sync signal pulse width (for Hsync signal) */
reg_data = (uint32_t)p_sync_slicer->syncmaxduty_h << VEDC_REG_SHIFT_6;
reg_data |= (uint32_t)p_sync_slicer->syncminduty_h;
*(vdec_reg->synscr2) = (uint16_t)reg_data;
/* Clipping level and slice level for composite sync signal separation (for Hsync signal) */
reg_data = (uint32_t)p_sync_slicer->ssclipsel << VEDC_REG_SHIFT_10;
reg_data |= (uint32_t)p_sync_slicer->csyncslice_h;
*(vdec_reg->synscr3) = (uint16_t)reg_data;
/* Max ratio of horizontal cycle to horizontal sync signal pulse width
and min ratio of horizontal cycle to horizontal sync signal pulse width (for Vsync signal) */
reg_data = (uint32_t)p_sync_slicer->syncmaxduty_v << VEDC_REG_SHIFT_6;
reg_data |= (uint32_t)p_sync_slicer->syncminduty_v;
*(vdec_reg->synscr4) = (uint16_t)reg_data;
/* Delays the separated vertical sync signal for 1/4 horizontal cycle */
reg_data = (p_sync_slicer->vsyncdelay == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X8000;
/* Threshold for vertical sync separation */
reg_data |= (uint32_t)p_sync_slicer->vsyncslice << VEDC_REG_SHIFT_10;
/* Slice level for composite sync signal separation (for Vsync signal) */
reg_data |= (uint32_t)p_sync_slicer->csyncslice_v;
*(vdec_reg->synscr5) = (uint16_t)reg_data;
}
return;
} /* End of function SyncSlicer() */
/**************************************************************************//**
* @brief Sets registers for horizontal AFC
* @param[in] vdec_reg : VDEC registers
* @param[in] p_horizontal_afc : Horizontal AFC parameter
* @retval None
*****************************************************************************/
static void HorizontalAFC (
const vdec_reg_address_t * const vdec_reg,
const vdec_horizontal_afc_t * const p_horizontal_afc)
{
uint32_t reg_data;
/* Horizontal AFC */
if (p_horizontal_afc != NULL) {
reg_data = (uint32_t)*(vdec_reg->hafccr1) & (uint32_t)(~VDEC_REG_MASK_0XF3FF);
/* Horizontal AFC loop gain */
reg_data |= (uint32_t)p_horizontal_afc->hafcgain << VEDC_REG_SHIFT_12;
/* Horizontal AFC center oscillation frequency */
reg_data |= (uint32_t)p_horizontal_afc->hafctyp;
*(vdec_reg->hafccr1) = (uint16_t)reg_data;
/* Start line of horizontal AFC normal operation
and Horizontal AFC forced double-speed oscillation (DOX2HOSC = 0, auto control) */
reg_data = (uint32_t)p_horizontal_afc->hafcstart << VEDC_REG_SHIFT_12;
/* Disable of horizontal AFC double speed detection */
reg_data |= (p_horizontal_afc->nox2hosc == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X0800;
/* Maximum oscillation frequency of horizontal AFC */
reg_data |= (uint32_t)p_horizontal_afc->hafcmax;
*(vdec_reg->hafccr2) = (uint16_t)reg_data;
/* End line of horizontal AFC normal operation */
reg_data = (uint32_t)p_horizontal_afc->hafcend << VEDC_REG_SHIFT_12;
/* Horizontal AFC VBI period operating mode */
reg_data |= (uint32_t)p_horizontal_afc->hafcmode << VEDC_REG_SHIFT_10;
/* Min oscillation frequency of horizontal AFC */
reg_data |= (uint32_t)p_horizontal_afc->hafcmin;
*(vdec_reg->hafccr3) = (uint16_t)reg_data;
/* Forcible or LOWGAIN control */
reg_data = (p_horizontal_afc->phdet_fix == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X0010;
/* Phase comparator feedback adjust for low sync signal lock stability */
reg_data |= (uint32_t)p_horizontal_afc->phdet_div;
*(vdec_reg->afcpfcr) = (uint16_t)reg_data;
}
return;
} /* End of function HorizontalAFC() */
/**************************************************************************//**
* @brief Sets registers for vertical count-down
* @param[in] vdec_reg : VDEC registers
* @param[in] p_vcount_down : Vertical count-down parameter
* @retval None
*****************************************************************************/
static void VerticalCountdown (
const vdec_reg_address_t * const vdec_reg,
const vdec_vcount_down_t * const p_vcount_down)
{
uint32_t reg_data;
/* Vertical count-down */
if (p_vcount_down != NULL) {
/* Vertical countdown 50-Hz oscillation mode
and Vertical countdown free-run oscillation mode (VCDFREERUN = OFF) */
reg_data = (p_vcount_down->novcd50_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X4000 : (uint32_t)0x0000u;
/* Vertical countdown 60-Hz (59.94-Hz) oscillation mode */
reg_data |= (p_vcount_down->novcd60_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X2000 : (uint32_t)0x0000u;
/* Vertical countdown center oscillation frequency */
reg_data |= (uint32_t)p_vcount_down->vcddefault << VEDC_REG_SHIFT_11;
/* Vertical countdown sync area */
reg_data |= (uint32_t)p_vcount_down->vcdwindow << VEDC_REG_SHIFT_5;
/* Vertical countdown minimum oscillation frequency */
reg_data |= (uint32_t)p_vcount_down->vcdoffset;
*(vdec_reg->vcdwcr1) = (uint16_t)reg_data;
}
return;
} /* End of function VerticalCountdown() */
/**************************************************************************//**
* @brief Sets registers for AGC/PGA
* @param[in] vdec_reg : VDEC registers
* @param[in] p_agc : AGC/PGA parameter
* @retval None
*****************************************************************************/
static void AgcPga (const vdec_reg_address_t * const vdec_reg, const vdec_agc_t * const p_agc)
{
uint32_t reg_data;
/* AGC/PGA */
if (p_agc != NULL) {
/* A/D converter AGC ON/OFF control & PGA switch */
if (p_agc->agcmode == VDEC_OFF) {
reg_data = (uint32_t)*(vdec_reg->pgacr) | (uint32_t)VDEC_REG_SET_0X2000;
*(vdec_reg->pgacr) = (uint16_t)reg_data;
*(vdec_reg->adccr1) = (uint16_t)0u;
} else {
*(vdec_reg->adccr1) = (uint16_t)VDEC_REG_SET_0X0100;
reg_data = (uint32_t)*(vdec_reg->pgacr) & (uint32_t)(~VDEC_REG_SET_0X2000);
*(vdec_reg->pgacr) = (uint16_t)reg_data;
}
/* PGA gain */
reg_data = (uint32_t)*(vdec_reg->pgacr) & (uint32_t)(~VDEC_REG_MASK_0X1F00);
reg_data |= (uint32_t)p_agc->pga_gain << VEDC_REG_SHIFT_8;
*(vdec_reg->pgacr) = (uint16_t)reg_data;
/* PGA register update register */
*(vdec_reg->pga_update) = (uint16_t)1u;
/* Manual control of sync signal amplitude detection during VBI period */
reg_data = (p_agc->doreduce == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X2000;
/* Control of sync signal amplitude detection during VBI period */
reg_data |= (p_agc->noreduce_ == VDEC_OFF) ? (uint32_t)VDEC_REG_SET_0X1000 : (uint32_t)0x0000u;
/* AGC response speed */
reg_data |= (uint32_t)p_agc->agcresponse << VEDC_REG_SHIFT_9;
/* Sync signal reference amplitude */
reg_data |= (uint32_t)p_agc->agclevel;
*(vdec_reg->agccr1) = (uint16_t)reg_data;
/* AGC gain adjustment accuracy */
reg_data = (uint32_t)*(vdec_reg->agccr2) & (uint32_t)(~VDEC_REG_MASK_0X3F00);
reg_data |= (uint32_t)p_agc->agcprecis << VEDC_REG_SHIFT_8;
*(vdec_reg->agccr2) = (uint16_t)reg_data;
}
return;
} /* End of function AgcPga() */
/**************************************************************************//**
* @brief Sets registers for peak limiter control
* @param[in] vdec_reg : VDEC registers
* @param[in] p_peak_limiter : Peak limiter control parameter
* @retval None
*****************************************************************************/
static void PeakLimiterControl (
const vdec_reg_address_t * const vdec_reg,
const vdec_peak_limiter_t * const p_peak_limiter)
{
uint32_t reg_data;
/* Peak limiter control */
if (p_peak_limiter != NULL) {
/* Peak luminance value limited by peak limiter */
reg_data = (uint32_t)p_peak_limiter->peaklevel << VEDC_REG_SHIFT_14;
/* Response speed with peak limiter gain decreased */
reg_data |= (uint32_t)p_peak_limiter->peakattack << VEDC_REG_SHIFT_12;
/* Response speed with peak limiter gain increased */
reg_data |= (uint32_t)p_peak_limiter->peakrelease << VEDC_REG_SHIFT_10;
/* Maximum compression rate of peak limiter */
reg_data |= (uint32_t)p_peak_limiter->peakratio << VEDC_REG_SHIFT_8;
/* Allowable number of overflowing pixels */
reg_data |= (uint32_t)p_peak_limiter->maxpeaksamples;
*(vdec_reg->pklimitcr) = (uint16_t)reg_data;
}
return;
} /* End of function PeakLimiterControl() */
/**************************************************************************//**
* @brief Sets registers for over-range control
* @param[in] vdec_reg : VDEC registers
* @param[in] p_over_range : Over-range control parameter
* @retval None
*****************************************************************************/
static void OverRangeControl (const vdec_reg_address_t * const vdec_reg, const vdec_over_range_t * const p_over_range)
{
uint32_t reg_data;
/* Over-range control */
if (p_over_range != NULL) {
/* A/D over-threshold level (between levels 0 and 1) */
*(vdec_reg->rgorcr1) = p_over_range->radj_o_level0;
/* A/D under-threshold level (between levels 2 and 3) */
*(vdec_reg->rgorcr2) = p_over_range->radj_u_level0;
/* A/D over-threshold level (between levels 1 and 2) */
*(vdec_reg->rgorcr3) = p_over_range->radj_o_level1;
/* A/D under-threshold level (between levels 1 and 2) */
*(vdec_reg->rgorcr4) = p_over_range->radj_u_level1;
/* A/D over-threshold level (between levels 2 and 3) */
*(vdec_reg->rgorcr5) = p_over_range->radj_o_level2;
/* A/D under-threshold level (between levels 0 and 1) */
*(vdec_reg->rgorcr6) = p_over_range->radj_u_level2;
reg_data = (uint32_t)*(vdec_reg->rgorcr7) & (uint32_t)(~VDEC_REG_MASK_0X0007);
/* Over-range detection enable */
reg_data |= (p_over_range->ucmp_sw == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X0004;
/* Under-range detection enable */
reg_data |= (p_over_range->dcmp_sw == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X0002;
/* Horizontal enlargement of over/under-range level */
reg_data |= (p_over_range->hwide_sw == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)0x0001u;
*(vdec_reg->rgorcr7) = (uint16_t)reg_data;
}
return;
} /* End of function OverRangeControl() */
/**************************************************************************//**
* @brief Sets registers for Y/C separation control
* @param[in] vdec_reg : VDEC registers
* @param[in] p_yc_sep_ctrl : Y/C separation control parameter
* @retval None
*****************************************************************************/
static void YcSeparationControl (
const vdec_reg_address_t * const vdec_reg,
const vdec_yc_sep_ctrl_t * const p_yc_sep_ctrl)
{
uint32_t reg_data;
/* Y/C separation control */
if (p_yc_sep_ctrl != NULL) {
/* Two-dimensional Y/C separation filter select coefficient (K15, K13, and K11) */
reg_data = (uint32_t)p_yc_sep_ctrl->k15 << VEDC_REG_SHIFT_12;
reg_data |= (uint32_t)p_yc_sep_ctrl->k13 << VEDC_REG_SHIFT_6;
reg_data |= (uint32_t)p_yc_sep_ctrl->k11;
*(vdec_reg->ycscr3) = (uint16_t)reg_data;
/* Two-dimensional Y/C separation filter select coefficient (K16, K14, and K12) */
reg_data = (uint32_t)p_yc_sep_ctrl->k16 << VEDC_REG_SHIFT_12;
reg_data |= (uint32_t)p_yc_sep_ctrl->k14 << VEDC_REG_SHIFT_6;
reg_data |= (uint32_t)p_yc_sep_ctrl->k12;
*(vdec_reg->ycscr4) = (uint16_t)reg_data;
/* Two-dimensional Y/C separation filter select coefficient (K22A and K21A) */
reg_data = (uint32_t)p_yc_sep_ctrl->k22a << VEDC_REG_SHIFT_8;
reg_data |= (uint32_t)p_yc_sep_ctrl->k21a;
*(vdec_reg->ycscr5) = (uint16_t)reg_data;
/* Two-dimensional Y/C separation filter select coefficient (K22B and K21B) */
reg_data = (uint32_t)p_yc_sep_ctrl->k22b << VEDC_REG_SHIFT_8;
reg_data |= (uint32_t)p_yc_sep_ctrl->k21b;
*(vdec_reg->ycscr6) = (uint16_t)reg_data;
/* Two-dimensional Y/C separation filter select coefficient (K23B, K23A, and K24) */
reg_data = (uint32_t)*(vdec_reg->ycscr7) & (uint32_t)(~VDEC_REG_MASK_0XFF1F);
reg_data |= (uint32_t)p_yc_sep_ctrl->k23b << VEDC_REG_SHIFT_12;
reg_data |= (uint32_t)p_yc_sep_ctrl->k23a << VEDC_REG_SHIFT_8;
reg_data |= (uint32_t)p_yc_sep_ctrl->k24;
*(vdec_reg->ycscr7) = (uint16_t)reg_data;
reg_data = (uint32_t)*(vdec_reg->ycscr8) & (uint32_t)(~VDEC_REG_MASK_0XF800);
/* Latter-stage horizontal BPF select */
reg_data |= (p_yc_sep_ctrl->hbpf_narrow == VDEC_LSTG_BPFSEL_BYPASS) ? (uint32_t)0x0000u :
(uint32_t)VDEC_REG_SET_0X8000;
/* Latter-stage horizontal/vertical BPF select */
reg_data |= (p_yc_sep_ctrl->hvbpf_narrow == VDEC_LSTG_BPFSEL_BYPASS) ? (uint32_t)0x0000u :
(uint32_t)VDEC_REG_SET_0X4000;
/* Former-stage horizontal BPF select */
reg_data |= (p_yc_sep_ctrl->hbpf1_9tap_on == VDEC_FSTG_BPFSEL_17TAP) ? (uint32_t)0x0000u :
(uint32_t)VDEC_REG_SET_0X2000;
/* Former-stage horizontal/vertical BPF select */
reg_data |= (p_yc_sep_ctrl->hvbpf1_9tap_on == VDEC_FSTG_BPFSEL_17TAP) ? (uint32_t)0x0000u :
(uint32_t)VDEC_REG_SET_0X1000;
/* Horizontal filter and horizontal/vertical filter bandwidth switch signal */
reg_data |= (p_yc_sep_ctrl->hfil_tap_sel == VDEC_HFIL_TAP_SEL_17TAP) ? (uint32_t)0x0000u :
(uint32_t)VDEC_REG_SET_0X0800;
*(vdec_reg->ycscr8) = (uint16_t)reg_data;
/* Two-dimensional filter mixing select */
reg_data = (p_yc_sep_ctrl->det2_on == VDEC_OFF) ? (uint32_t)0x0000u : (uint32_t)VDEC_REG_SET_0X8000;
/* Mixing ratio of signal after passing horizontal filter
to signal after passing former-stage horizontal filter */
reg_data |= (uint32_t)p_yc_sep_ctrl->hsel_mix_y << VEDC_REG_SHIFT_8;
/* Mixing ratio of signal after passing vertical filter
to signal after passing former-stage horizontal/vertical filter */
reg_data |= (uint32_t)p_yc_sep_ctrl->vsel_mix_y << VEDC_REG_SHIFT_4;
/* Mixing ratio of signal after passing horizontal/vertical filter
to signal after passing former-stage horizontal/vertical filter */
reg_data |= (uint32_t)p_yc_sep_ctrl->hvsel_mix_y;
*(vdec_reg->ycscr9) = (uint16_t)reg_data;
/* Vertical luminance detection level for correlation detection filter */
reg_data = (uint32_t)*(vdec_reg->ycscr11) & (uint32_t)(~VDEC_REG_MASK_0X01FF);
reg_data |= (uint32_t)p_yc_sep_ctrl->v_y_level;
*(vdec_reg->ycscr11) = (uint16_t)reg_data;
if (p_yc_sep_ctrl->det2_on == VDEC_OFF) {
reg_data = ((uint32_t)VDEC_FILMIX_RATIO_0 << VEDC_REG_SHIFT_12) |
((uint32_t)VDEC_FILMIX_RATIO_0 << VEDC_REG_SHIFT_8);
} else {
/* Mixing ratio of C signal after passing horizontal/vertical adaptive filter
to signal after passing correlation detection filter */
reg_data = (uint32_t)p_yc_sep_ctrl->det2_mix_c << VEDC_REG_SHIFT_12;
/* Mixing ratio of C signal for Y generation after passing
horizontal/vertical adaptive filter to signal after passing correlation */
reg_data |= (uint32_t)p_yc_sep_ctrl->det2_mix_y << VEDC_REG_SHIFT_8;
}
/* Two-dimensional cascade/TAKE-OFF filter mode select */
reg_data |= (uint32_t)p_yc_sep_ctrl->fil2_mode_2d << VEDC_REG_SHIFT_2;
/* Two-dimensional cascade filter select */
reg_data |= (p_yc_sep_ctrl->fil2_narrow_2d == VDEC_2D_FIL_SEL_BYPASS) ? (uint32_t)0x0000u :
(uint32_t)0x0001u;
*(vdec_reg->ycscr12) = (uint16_t)reg_data;
}
return;
} /* End of function YcSeparationControl() */
/**************************************************************************//**
* @brief Sets registers for chroma filter TAP coefficient
* @param[in] fil_reg_address : 2D filter TAP coefficient registers
* @param[in] fil2_2d : Chroma filter TAP coefficient for Y/C separation
* @retval None
*****************************************************************************/
static void FilterTAPsCoefficient (
volatile uint16_t * const * fil_reg_address,
const vdec_chrfil_tap_t * const fil2_2d)
{
int32_t tap_coef;
volatile uint16_t * fil_reg;
const uint16_t * taps;
if (fil2_2d != NULL) {
taps = fil2_2d->fil2_2d_f;
for (tap_coef = 0; tap_coef < VDEC_CHRFIL_TAPCOEF_NUM; tap_coef++) {
fil_reg = *fil_reg_address;
fil_reg_address++;
*fil_reg = *taps;
taps++;
}
}
return;
} /* End of function FilterTAPsCoefficient() */