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V4L/DVB (12250): v4l: dm355 ccdc module for vpfe capture driver

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Adds ccdc hw module for DM355 CCDC. This registers with the bridge
driver a set of hw_ops for configuring the CCDC for a specific
decoder device connected to vpfe.

Reviewed by: Hans Verkuil <hverkuil@xs4all.nl>
Reviewed by: Laurent Pinchart <laurent.pinchart@skynet.be>
Reviewed by: Mauro Carvalho Chehab <mchehab@infradead.org>

Signed-off-by: Muralidharan Karicheri <m-karicheri2@ti.com>
Signed-off-by: Hans Verkuil <hverkuil@xs4all.nl>
Signed-off-by: Mauro Carvalho Chehab <mchehab@redhat.com>
This commit is contained in:
Muralidharan Karicheri 2009-07-03 05:23:07 -03:00 committed by Mauro Carvalho Chehab
parent 638c974008
commit dd2ceb1a40
3 changed files with 1609 additions and 0 deletions
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drivers/media/video/davinci/dm355_ccdc.c Normal file
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/*
* Copyright (C) 2005-2009 Texas Instruments Inc
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2 of the License, or
* (at your option) any later version.
*
* 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., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
* CCDC hardware module for DM355
* ------------------------------
*
* This module is for configuring DM355 CCD controller of VPFE to capture
* Raw yuv or Bayer RGB data from a decoder. CCDC has several modules
* such as Defect Pixel Correction, Color Space Conversion etc to
* pre-process the Bayer RGB data, before writing it to SDRAM. This
* module also allows application to configure individual
* module parameters through VPFE_CMD_S_CCDC_RAW_PARAMS IOCTL.
* To do so, application include dm355_ccdc.h and vpfe_capture.h header
* files. The setparams() API is called by vpfe_capture driver
* to configure module parameters
*
* TODO: 1) Raw bayer parameter settings and bayer capture
* 2) Split module parameter structure to module specific ioctl structs
* 3) add support for lense shading correction
* 4) investigate if enum used for user space type definition
* to be replaced by #defines or integer
*/
#include <linux/platform_device.h>
#include <linux/uaccess.h>
#include <linux/videodev2.h>
#include <media/davinci/dm355_ccdc.h>
#include <media/davinci/vpss.h>
#include "dm355_ccdc_regs.h"
#include "ccdc_hw_device.h"
MODULE_LICENSE("GPL");
MODULE_DESCRIPTION("CCDC Driver for DM355");
MODULE_AUTHOR("Texas Instruments");
static struct device *dev;
/* Object for CCDC raw mode */
static struct ccdc_params_raw ccdc_hw_params_raw = {
.pix_fmt = CCDC_PIXFMT_RAW,
.frm_fmt = CCDC_FRMFMT_PROGRESSIVE,
.win = CCDC_WIN_VGA,
.fid_pol = VPFE_PINPOL_POSITIVE,
.vd_pol = VPFE_PINPOL_POSITIVE,
.hd_pol = VPFE_PINPOL_POSITIVE,
.gain = {
.r_ye = 256,
.gb_g = 256,
.gr_cy = 256,
.b_mg = 256
},
.config_params = {
.datasft = 2,
.data_sz = CCDC_DATA_10BITS,
.mfilt1 = CCDC_NO_MEDIAN_FILTER1,
.mfilt2 = CCDC_NO_MEDIAN_FILTER2,
.alaw = {
.gama_wd = 2,
},
.blk_clamp = {
.sample_pixel = 1,
.dc_sub = 25
},
.col_pat_field0 = {
.olop = CCDC_GREEN_BLUE,
.olep = CCDC_BLUE,
.elop = CCDC_RED,
.elep = CCDC_GREEN_RED
},
.col_pat_field1 = {
.olop = CCDC_GREEN_BLUE,
.olep = CCDC_BLUE,
.elop = CCDC_RED,
.elep = CCDC_GREEN_RED
},
},
};
/* Object for CCDC ycbcr mode */
static struct ccdc_params_ycbcr ccdc_hw_params_ycbcr = {
.win = CCDC_WIN_PAL,
.pix_fmt = CCDC_PIXFMT_YCBCR_8BIT,
.frm_fmt = CCDC_FRMFMT_INTERLACED,
.fid_pol = VPFE_PINPOL_POSITIVE,
.vd_pol = VPFE_PINPOL_POSITIVE,
.hd_pol = VPFE_PINPOL_POSITIVE,
.bt656_enable = 1,
.pix_order = CCDC_PIXORDER_CBYCRY,
.buf_type = CCDC_BUFTYPE_FLD_INTERLEAVED
};
static enum vpfe_hw_if_type ccdc_if_type;
static void *__iomem ccdc_base_addr;
static int ccdc_addr_size;
/* Raw Bayer formats */
static u32 ccdc_raw_bayer_pix_formats[] =
{V4L2_PIX_FMT_SBGGR8, V4L2_PIX_FMT_SBGGR16};
/* Raw YUV formats */
static u32 ccdc_raw_yuv_pix_formats[] =
{V4L2_PIX_FMT_UYVY, V4L2_PIX_FMT_YUYV};
/* register access routines */
static inline u32 regr(u32 offset)
{
return __raw_readl(ccdc_base_addr + offset);
}
static inline void regw(u32 val, u32 offset)
{
__raw_writel(val, ccdc_base_addr + offset);
}
static void ccdc_set_ccdc_base(void *addr, int size)
{
ccdc_base_addr = addr;
ccdc_addr_size = size;
}
static void ccdc_enable(int en)
{
unsigned int temp;
temp = regr(SYNCEN);
temp &= (~CCDC_SYNCEN_VDHDEN_MASK);
temp |= (en & CCDC_SYNCEN_VDHDEN_MASK);
regw(temp, SYNCEN);
}
static void ccdc_enable_output_to_sdram(int en)
{
unsigned int temp;
temp = regr(SYNCEN);
temp &= (~(CCDC_SYNCEN_WEN_MASK));
temp |= ((en << CCDC_SYNCEN_WEN_SHIFT) & CCDC_SYNCEN_WEN_MASK);
regw(temp, SYNCEN);
}
static void ccdc_config_gain_offset(void)
{
/* configure gain */
regw(ccdc_hw_params_raw.gain.r_ye, RYEGAIN);
regw(ccdc_hw_params_raw.gain.gr_cy, GRCYGAIN);
regw(ccdc_hw_params_raw.gain.gb_g, GBGGAIN);
regw(ccdc_hw_params_raw.gain.b_mg, BMGGAIN);
/* configure offset */
regw(ccdc_hw_params_raw.ccdc_offset, OFFSET);
}
/*
* ccdc_restore_defaults()
* This function restore power on defaults in the ccdc registers
*/
static int ccdc_restore_defaults(void)
{
int i;
dev_dbg(dev, "\nstarting ccdc_restore_defaults...");
/* set all registers to zero */
for (i = 0; i <= CCDC_REG_LAST; i += 4)
regw(0, i);
/* now override the values with power on defaults in registers */
regw(MODESET_DEFAULT, MODESET);
/* no culling support */
regw(CULH_DEFAULT, CULH);
regw(CULV_DEFAULT, CULV);
/* Set default Gain and Offset */
ccdc_hw_params_raw.gain.r_ye = GAIN_DEFAULT;
ccdc_hw_params_raw.gain.gb_g = GAIN_DEFAULT;
ccdc_hw_params_raw.gain.gr_cy = GAIN_DEFAULT;
ccdc_hw_params_raw.gain.b_mg = GAIN_DEFAULT;
ccdc_config_gain_offset();
regw(OUTCLIP_DEFAULT, OUTCLIP);
regw(LSCCFG2_DEFAULT, LSCCFG2);
/* select ccdc input */
if (vpss_select_ccdc_source(VPSS_CCDCIN)) {
dev_dbg(dev, "\ncouldn't select ccdc input source");
return -EFAULT;
}
/* select ccdc clock */
if (vpss_enable_clock(VPSS_CCDC_CLOCK, 1) < 0) {
dev_dbg(dev, "\ncouldn't enable ccdc clock");
return -EFAULT;
}
dev_dbg(dev, "\nEnd of ccdc_restore_defaults...");
return 0;
}
static int ccdc_open(struct device *device)
{
dev = device;
return ccdc_restore_defaults();
}
static int ccdc_close(struct device *device)
{
/* disable clock */
vpss_enable_clock(VPSS_CCDC_CLOCK, 0);
/* do nothing for now */
return 0;
}
/*
* ccdc_setwin()
* This function will configure the window size to
* be capture in CCDC reg.
*/
static void ccdc_setwin(struct v4l2_rect *image_win,
enum ccdc_frmfmt frm_fmt, int ppc)
{
int horz_start, horz_nr_pixels;
int vert_start, vert_nr_lines;
int mid_img = 0;
dev_dbg(dev, "\nStarting ccdc_setwin...");
/*
* ppc - per pixel count. indicates how many pixels per cell
* output to SDRAM. example, for ycbcr, it is one y and one c, so 2.
* raw capture this is 1
*/
horz_start = image_win->left << (ppc - 1);
horz_nr_pixels = ((image_win->width) << (ppc - 1)) - 1;
/* Writing the horizontal info into the registers */
regw(horz_start, SPH);
regw(horz_nr_pixels, NPH);
vert_start = image_win->top;
if (frm_fmt == CCDC_FRMFMT_INTERLACED) {
vert_nr_lines = (image_win->height >> 1) - 1;
vert_start >>= 1;
/* Since first line doesn't have any data */
vert_start += 1;
/* configure VDINT0 and VDINT1 */
regw(vert_start, VDINT0);
} else {
/* Since first line doesn't have any data */
vert_start += 1;
vert_nr_lines = image_win->height - 1;
/* configure VDINT0 and VDINT1 */
mid_img = vert_start + (image_win->height / 2);
regw(vert_start, VDINT0);
regw(mid_img, VDINT1);
}
regw(vert_start & CCDC_START_VER_ONE_MASK, SLV0);
regw(vert_start & CCDC_START_VER_TWO_MASK, SLV1);
regw(vert_nr_lines & CCDC_NUM_LINES_VER, NLV);
dev_dbg(dev, "\nEnd of ccdc_setwin...");
}
static int validate_ccdc_param(struct ccdc_config_params_raw *ccdcparam)
{
if (ccdcparam->datasft < CCDC_DATA_NO_SHIFT ||
ccdcparam->datasft > CCDC_DATA_SHIFT_6BIT) {
dev_dbg(dev, "Invalid value of data shift\n");
return -EINVAL;
}
if (ccdcparam->mfilt1 < CCDC_NO_MEDIAN_FILTER1 ||
ccdcparam->mfilt1 > CCDC_MEDIAN_FILTER1) {
dev_dbg(dev, "Invalid value of median filter1\n");
return -EINVAL;
}
if (ccdcparam->mfilt2 < CCDC_NO_MEDIAN_FILTER2 ||
ccdcparam->mfilt2 > CCDC_MEDIAN_FILTER2) {
dev_dbg(dev, "Invalid value of median filter2\n");
return -EINVAL;
}
if ((ccdcparam->med_filt_thres < 0) ||
(ccdcparam->med_filt_thres > CCDC_MED_FILT_THRESH)) {
dev_dbg(dev, "Invalid value of median filter thresold\n");
return -EINVAL;
}
if (ccdcparam->data_sz < CCDC_DATA_16BITS ||
ccdcparam->data_sz > CCDC_DATA_8BITS) {
dev_dbg(dev, "Invalid value of data size\n");
return -EINVAL;
}
if (ccdcparam->alaw.enable) {
if (ccdcparam->alaw.gama_wd < CCDC_GAMMA_BITS_13_4 ||
ccdcparam->alaw.gama_wd > CCDC_GAMMA_BITS_09_0) {
dev_dbg(dev, "Invalid value of ALAW\n");
return -EINVAL;
}
}
if (ccdcparam->blk_clamp.b_clamp_enable) {
if (ccdcparam->blk_clamp.sample_pixel < CCDC_SAMPLE_1PIXELS ||
ccdcparam->blk_clamp.sample_pixel > CCDC_SAMPLE_16PIXELS) {
dev_dbg(dev, "Invalid value of sample pixel\n");
return -EINVAL;
}
if (ccdcparam->blk_clamp.sample_ln < CCDC_SAMPLE_1LINES ||
ccdcparam->blk_clamp.sample_ln > CCDC_SAMPLE_16LINES) {
dev_dbg(dev, "Invalid value of sample lines\n");
return -EINVAL;
}
}
return 0;
}
/* Parameter operations */
static int ccdc_set_params(void __user *params)
{
struct ccdc_config_params_raw ccdc_raw_params;
int x;
/* only raw module parameters can be set through the IOCTL */
if (ccdc_if_type != VPFE_RAW_BAYER)
return -EINVAL;
x = copy_from_user(&ccdc_raw_params, params, sizeof(ccdc_raw_params));
if (x) {
dev_dbg(dev, "ccdc_set_params: error in copying ccdc"
"params, %d\n", x);
return -EFAULT;
}
if (!validate_ccdc_param(&ccdc_raw_params)) {
memcpy(&ccdc_hw_params_raw.config_params,
&ccdc_raw_params,
sizeof(ccdc_raw_params));
return 0;
}
return -EINVAL;
}
/* This function will configure CCDC for YCbCr video capture */
static void ccdc_config_ycbcr(void)
{
struct ccdc_params_ycbcr *params = &ccdc_hw_params_ycbcr;
u32 temp;
/* first set the CCDC power on defaults values in all registers */
dev_dbg(dev, "\nStarting ccdc_config_ycbcr...");
ccdc_restore_defaults();
/* configure pixel format & video frame format */
temp = (((params->pix_fmt & CCDC_INPUT_MODE_MASK) <<
CCDC_INPUT_MODE_SHIFT) |
((params->frm_fmt & CCDC_FRM_FMT_MASK) <<
CCDC_FRM_FMT_SHIFT));
/* setup BT.656 sync mode */
if (params->bt656_enable) {
regw(CCDC_REC656IF_BT656_EN, REC656IF);
/*
* configure the FID, VD, HD pin polarity fld,hd pol positive,
* vd negative, 8-bit pack mode
*/
temp |= CCDC_VD_POL_NEGATIVE;
} else { /* y/c external sync mode */
temp |= (((params->fid_pol & CCDC_FID_POL_MASK) <<
CCDC_FID_POL_SHIFT) |
((params->hd_pol & CCDC_HD_POL_MASK) <<
CCDC_HD_POL_SHIFT) |
((params->vd_pol & CCDC_VD_POL_MASK) <<
CCDC_VD_POL_SHIFT));
}
/* pack the data to 8-bit */
temp |= CCDC_DATA_PACK_ENABLE;
regw(temp, MODESET);
/* configure video window */
ccdc_setwin(&params->win, params->frm_fmt, 2);
/* configure the order of y cb cr in SD-RAM */
temp = (params->pix_order << CCDC_Y8POS_SHIFT);
temp |= CCDC_LATCH_ON_VSYNC_DISABLE | CCDC_CCDCFG_FIDMD_NO_LATCH_VSYNC;
regw(temp, CCDCFG);
/*
* configure the horizontal line offset. This is done by rounding up
* width to a multiple of 16 pixels and multiply by two to account for
* y:cb:cr 4:2:2 data
*/
regw(((params->win.width * 2 + 31) >> 5), HSIZE);
/* configure the memory line offset */
if (params->buf_type == CCDC_BUFTYPE_FLD_INTERLEAVED) {
/* two fields are interleaved in memory */
regw(CCDC_SDOFST_FIELD_INTERLEAVED, SDOFST);
}
dev_dbg(dev, "\nEnd of ccdc_config_ycbcr...\n");
}
/*
* ccdc_config_black_clamp()
* configure parameters for Optical Black Clamp
*/
static void ccdc_config_black_clamp(struct ccdc_black_clamp *bclamp)
{
u32 val;
if (!bclamp->b_clamp_enable) {
/* configure DCSub */
regw(bclamp->dc_sub & CCDC_BLK_DC_SUB_MASK, DCSUB);
regw(0x0000, CLAMP);
return;
}
/* Enable the Black clamping, set sample lines and pixels */
val = (bclamp->start_pixel & CCDC_BLK_ST_PXL_MASK) |
((bclamp->sample_pixel & CCDC_BLK_SAMPLE_LN_MASK) <<
CCDC_BLK_SAMPLE_LN_SHIFT) | CCDC_BLK_CLAMP_ENABLE;
regw(val, CLAMP);
/* If Black clamping is enable then make dcsub 0 */
val = (bclamp->sample_ln & CCDC_NUM_LINE_CALC_MASK)
<< CCDC_NUM_LINE_CALC_SHIFT;
regw(val, DCSUB);
}
/*
* ccdc_config_black_compense()
* configure parameters for Black Compensation
*/
static void ccdc_config_black_compense(struct ccdc_black_compensation *bcomp)
{
u32 val;
val = (bcomp->b & CCDC_BLK_COMP_MASK) |
((bcomp->gb & CCDC_BLK_COMP_MASK) <<
CCDC_BLK_COMP_GB_COMP_SHIFT);
regw(val, BLKCMP1);
val = ((bcomp->gr & CCDC_BLK_COMP_MASK) <<
CCDC_BLK_COMP_GR_COMP_SHIFT) |
((bcomp->r & CCDC_BLK_COMP_MASK) <<
CCDC_BLK_COMP_R_COMP_SHIFT);
regw(val, BLKCMP0);
}
/*
* ccdc_write_dfc_entry()
* write an entry in the dfc table.
*/
int ccdc_write_dfc_entry(int index, struct ccdc_vertical_dft *dfc)
{
/* TODO This is to be re-visited and adjusted */
#define DFC_WRITE_WAIT_COUNT 1000
u32 val, count = DFC_WRITE_WAIT_COUNT;
regw(dfc->dft_corr_vert[index], DFCMEM0);
regw(dfc->dft_corr_horz[index], DFCMEM1);
regw(dfc->dft_corr_sub1[index], DFCMEM2);
regw(dfc->dft_corr_sub2[index], DFCMEM3);
regw(dfc->dft_corr_sub3[index], DFCMEM4);
/* set WR bit to write */
val = regr(DFCMEMCTL) | CCDC_DFCMEMCTL_DFCMWR_MASK;
regw(val, DFCMEMCTL);
/*
* Assume, it is very short. If we get an error, we need to
* adjust this value
*/
while (regr(DFCMEMCTL) & CCDC_DFCMEMCTL_DFCMWR_MASK)
count--;
/*
* TODO We expect the count to be non-zero to be successful. Adjust
* the count if write requires more time
*/
if (count) {
dev_err(dev, "defect table write timeout !!!\n");
return -1;
}
return 0;
}
/*
* ccdc_config_vdfc()
* configure parameters for Vertical Defect Correction
*/
static int ccdc_config_vdfc(struct ccdc_vertical_dft *dfc)
{
u32 val;
int i;
/* Configure General Defect Correction. The table used is from IPIPE */
val = dfc->gen_dft_en & CCDC_DFCCTL_GDFCEN_MASK;
/* Configure Vertical Defect Correction if needed */
if (!dfc->ver_dft_en) {
/* Enable only General Defect Correction */
regw(val, DFCCTL);
return 0;
}
if (dfc->table_size > CCDC_DFT_TABLE_SIZE)
return -EINVAL;
val |= CCDC_DFCCTL_VDFC_DISABLE;
val |= (dfc->dft_corr_ctl.vdfcsl & CCDC_DFCCTL_VDFCSL_MASK) <<
CCDC_DFCCTL_VDFCSL_SHIFT;
val |= (dfc->dft_corr_ctl.vdfcuda & CCDC_DFCCTL_VDFCUDA_MASK) <<
CCDC_DFCCTL_VDFCUDA_SHIFT;
val |= (dfc->dft_corr_ctl.vdflsft & CCDC_DFCCTL_VDFLSFT_MASK) <<
CCDC_DFCCTL_VDFLSFT_SHIFT;
regw(val , DFCCTL);
/* clear address ptr to offset 0 */
val = CCDC_DFCMEMCTL_DFCMARST_MASK << CCDC_DFCMEMCTL_DFCMARST_SHIFT;
/* write defect table entries */
for (i = 0; i < dfc->table_size; i++) {
/* increment address for non zero index */
if (i != 0)
val = CCDC_DFCMEMCTL_INC_ADDR;
regw(val, DFCMEMCTL);
if (ccdc_write_dfc_entry(i, dfc) < 0)
return -EFAULT;
}
/* update saturation level and enable dfc */
regw(dfc->saturation_ctl & CCDC_VDC_DFCVSAT_MASK, DFCVSAT);
val = regr(DFCCTL) | (CCDC_DFCCTL_VDFCEN_MASK <<
CCDC_DFCCTL_VDFCEN_SHIFT);
regw(val, DFCCTL);
return 0;
}
/*
* ccdc_config_csc()
* configure parameters for color space conversion
* Each register CSCM0-7 has two values in S8Q5 format.
*/
static void ccdc_config_csc(struct ccdc_csc *csc)
{
u32 val1, val2;
int i;
if (!csc->enable)
return;
/* Enable the CSC sub-module */
regw(CCDC_CSC_ENABLE, CSCCTL);
/* Converting the co-eff as per the format of the register */
for (i = 0; i < CCDC_CSC_COEFF_TABLE_SIZE; i++) {
if ((i % 2) == 0) {
/* CSCM - LSB */
val1 = (csc->coeff[i].integer &
CCDC_CSC_COEF_INTEG_MASK)
<< CCDC_CSC_COEF_INTEG_SHIFT;
/*
* convert decimal part to binary. Use 2 decimal
* precision, user values range from .00 - 0.99
*/
val1 |= (((csc->coeff[i].decimal &
CCDC_CSC_COEF_DECIMAL_MASK) *
CCDC_CSC_DEC_MAX) / 100);
} else {
/* CSCM - MSB */
val2 = (csc->coeff[i].integer &
CCDC_CSC_COEF_INTEG_MASK)
<< CCDC_CSC_COEF_INTEG_SHIFT;
val2 |= (((csc->coeff[i].decimal &
CCDC_CSC_COEF_DECIMAL_MASK) *
CCDC_CSC_DEC_MAX) / 100);
val2 <<= CCDC_CSCM_MSB_SHIFT;
val2 |= val1;
regw(val2, (CSCM0 + ((i - 1) << 1)));
}
}
}
/*
* ccdc_config_color_patterns()
* configure parameters for color patterns
*/
static void ccdc_config_color_patterns(struct ccdc_col_pat *pat0,
struct ccdc_col_pat *pat1)
{
u32 val;
val = (pat0->olop | (pat0->olep << 2) | (pat0->elop << 4) |
(pat0->elep << 6) | (pat1->olop << 8) | (pat1->olep << 10) |
(pat1->elop << 12) | (pat1->elep << 14));
regw(val, COLPTN);
}
/* This function will configure CCDC for Raw mode image capture */
static int ccdc_config_raw(void)
{
struct ccdc_params_raw *params = &ccdc_hw_params_raw;
struct ccdc_config_params_raw *config_params =
&ccdc_hw_params_raw.config_params;
unsigned int val;
dev_dbg(dev, "\nStarting ccdc_config_raw...");
/* restore power on defaults to register */
ccdc_restore_defaults();
/* CCDCFG register:
* set CCD Not to swap input since input is RAW data
* set FID detection function to Latch at V-Sync
* set WENLOG - ccdc valid area to AND
* set TRGSEL to WENBIT
* set EXTRG to DISABLE
* disable latching function on VSYNC - shadowed registers
*/
regw(CCDC_YCINSWP_RAW | CCDC_CCDCFG_FIDMD_LATCH_VSYNC |
CCDC_CCDCFG_WENLOG_AND | CCDC_CCDCFG_TRGSEL_WEN |
CCDC_CCDCFG_EXTRG_DISABLE | CCDC_LATCH_ON_VSYNC_DISABLE, CCDCFG);
/*
* Set VDHD direction to input, input type to raw input
* normal data polarity, do not use external WEN
*/
val = (CCDC_VDHDOUT_INPUT | CCDC_RAW_IP_MODE | CCDC_DATAPOL_NORMAL |
CCDC_EXWEN_DISABLE);
/*
* Configure the vertical sync polarity (MODESET.VDPOL), horizontal
* sync polarity (MODESET.HDPOL), field id polarity (MODESET.FLDPOL),
* frame format(progressive or interlace), & pixel format (Input mode)
*/
val |= (((params->vd_pol & CCDC_VD_POL_MASK) << CCDC_VD_POL_SHIFT) |
((params->hd_pol & CCDC_HD_POL_MASK) << CCDC_HD_POL_SHIFT) |
((params->fid_pol & CCDC_FID_POL_MASK) << CCDC_FID_POL_SHIFT) |
((params->frm_fmt & CCDC_FRM_FMT_MASK) << CCDC_FRM_FMT_SHIFT) |
((params->pix_fmt & CCDC_PIX_FMT_MASK) << CCDC_PIX_FMT_SHIFT));
/* set pack for alaw compression */
if ((config_params->data_sz == CCDC_DATA_8BITS) ||
config_params->alaw.enable)
val |= CCDC_DATA_PACK_ENABLE;
/* Configure for LPF */
if (config_params->lpf_enable)
val |= (config_params->lpf_enable & CCDC_LPF_MASK) <<
CCDC_LPF_SHIFT;
/* Configure the data shift */
val |= (config_params->datasft & CCDC_DATASFT_MASK) <<
CCDC_DATASFT_SHIFT;
regw(val , MODESET);
dev_dbg(dev, "\nWriting 0x%x to MODESET...\n", val);
/* Configure the Median Filter threshold */
regw((config_params->med_filt_thres) & CCDC_MED_FILT_THRESH, MEDFILT);
/* Configure GAMMAWD register. defaur 11-2, and Mosaic cfa pattern */
val = CCDC_GAMMA_BITS_11_2 << CCDC_GAMMAWD_INPUT_SHIFT |
CCDC_CFA_MOSAIC;
/* Enable and configure aLaw register if needed */
if (config_params->alaw.enable) {
val |= (CCDC_ALAW_ENABLE |
((config_params->alaw.gama_wd &
CCDC_ALAW_GAMA_WD_MASK) <<
CCDC_GAMMAWD_INPUT_SHIFT));
}
/* Configure Median filter1 & filter2 */
val |= ((config_params->mfilt1 << CCDC_MFILT1_SHIFT) |
(config_params->mfilt2 << CCDC_MFILT2_SHIFT));
regw(val, GAMMAWD);
dev_dbg(dev, "\nWriting 0x%x to GAMMAWD...\n", val);
/* configure video window */
ccdc_setwin(&params->win, params->frm_fmt, 1);
/* Optical Clamp Averaging */
ccdc_config_black_clamp(&config_params->blk_clamp);
/* Black level compensation */
ccdc_config_black_compense(&config_params->blk_comp);
/* Vertical Defect Correction if needed */
if (ccdc_config_vdfc(&config_params->vertical_dft) < 0)
return -EFAULT;
/* color space conversion */
ccdc_config_csc(&config_params->csc);
/* color pattern */
ccdc_config_color_patterns(&config_params->col_pat_field0,
&config_params->col_pat_field1);
/* Configure the Gain & offset control */
ccdc_config_gain_offset();
dev_dbg(dev, "\nWriting %x to COLPTN...\n", val);
/* Configure DATAOFST register */
val = (config_params->data_offset.horz_offset & CCDC_DATAOFST_MASK) <<
CCDC_DATAOFST_H_SHIFT;
val |= (config_params->data_offset.vert_offset & CCDC_DATAOFST_MASK) <<
CCDC_DATAOFST_V_SHIFT;
regw(val, DATAOFST);
/* configuring HSIZE register */
val = (params->horz_flip_enable & CCDC_HSIZE_FLIP_MASK) <<
CCDC_HSIZE_FLIP_SHIFT;
/* If pack 8 is enable then 1 pixel will take 1 byte */
if ((config_params->data_sz == CCDC_DATA_8BITS) ||
config_params->alaw.enable) {
val |= (((params->win.width) + 31) >> 5) &
CCDC_HSIZE_VAL_MASK;
/* adjust to multiple of 32 */
dev_dbg(dev, "\nWriting 0x%x to HSIZE...\n",
(((params->win.width) + 31) >> 5) &
CCDC_HSIZE_VAL_MASK);
} else {
/* else one pixel will take 2 byte */
val |= (((params->win.width * 2) + 31) >> 5) &
CCDC_HSIZE_VAL_MASK;
dev_dbg(dev, "\nWriting 0x%x to HSIZE...\n",
(((params->win.width * 2) + 31) >> 5) &
CCDC_HSIZE_VAL_MASK);
}
regw(val, HSIZE);
/* Configure SDOFST register */
if (params->frm_fmt == CCDC_FRMFMT_INTERLACED) {
if (params->image_invert_enable) {
/* For interlace inverse mode */
regw(CCDC_SDOFST_INTERLACE_INVERSE, SDOFST);
dev_dbg(dev, "\nWriting %x to SDOFST...\n",
CCDC_SDOFST_INTERLACE_INVERSE);
} else {
/* For interlace non inverse mode */
regw(CCDC_SDOFST_INTERLACE_NORMAL, SDOFST);
dev_dbg(dev, "\nWriting %x to SDOFST...\n",
CCDC_SDOFST_INTERLACE_NORMAL);
}
} else if (params->frm_fmt == CCDC_FRMFMT_PROGRESSIVE) {
if (params->image_invert_enable) {
/* For progessive inverse mode */
regw(CCDC_SDOFST_PROGRESSIVE_INVERSE, SDOFST);
dev_dbg(dev, "\nWriting %x to SDOFST...\n",
CCDC_SDOFST_PROGRESSIVE_INVERSE);
} else {
/* For progessive non inverse mode */
regw(CCDC_SDOFST_PROGRESSIVE_NORMAL, SDOFST);
dev_dbg(dev, "\nWriting %x to SDOFST...\n",
CCDC_SDOFST_PROGRESSIVE_NORMAL);
}
}
dev_dbg(dev, "\nend of ccdc_config_raw...");
return 0;
}
static int ccdc_configure(void)
{
if (ccdc_if_type == VPFE_RAW_BAYER)
return ccdc_config_raw();
else
ccdc_config_ycbcr();
return 0;
}
static int ccdc_set_buftype(enum ccdc_buftype buf_type)
{
if (ccdc_if_type == VPFE_RAW_BAYER)
ccdc_hw_params_raw.buf_type = buf_type;
else
ccdc_hw_params_ycbcr.buf_type = buf_type;
return 0;
}
static enum ccdc_buftype ccdc_get_buftype(void)
{
if (ccdc_if_type == VPFE_RAW_BAYER)
return ccdc_hw_params_raw.buf_type;
return ccdc_hw_params_ycbcr.buf_type;
}
static int ccdc_enum_pix(u32 *pix, int i)
{
int ret = -EINVAL;
if (ccdc_if_type == VPFE_RAW_BAYER) {
if (i < ARRAY_SIZE(ccdc_raw_bayer_pix_formats)) {
*pix = ccdc_raw_bayer_pix_formats[i];
ret = 0;
}
} else {
if (i < ARRAY_SIZE(ccdc_raw_yuv_pix_formats)) {
*pix = ccdc_raw_yuv_pix_formats[i];
ret = 0;
}
}
return ret;
}
static int ccdc_set_pixel_format(u32 pixfmt)
{
struct ccdc_a_law *alaw =
&ccdc_hw_params_raw.config_params.alaw;
if (ccdc_if_type == VPFE_RAW_BAYER) {
ccdc_hw_params_raw.pix_fmt = CCDC_PIXFMT_RAW;
if (pixfmt == V4L2_PIX_FMT_SBGGR8)
alaw->enable = 1;
else if (pixfmt != V4L2_PIX_FMT_SBGGR16)
return -EINVAL;
} else {
if (pixfmt == V4L2_PIX_FMT_YUYV)
ccdc_hw_params_ycbcr.pix_order = CCDC_PIXORDER_YCBYCR;
else if (pixfmt == V4L2_PIX_FMT_UYVY)
ccdc_hw_params_ycbcr.pix_order = CCDC_PIXORDER_CBYCRY;
else
return -EINVAL;
}
return 0;
}
static u32 ccdc_get_pixel_format(void)
{
struct ccdc_a_law *alaw =
&ccdc_hw_params_raw.config_params.alaw;
u32 pixfmt;
if (ccdc_if_type == VPFE_RAW_BAYER)
if (alaw->enable)
pixfmt = V4L2_PIX_FMT_SBGGR8;
else
pixfmt = V4L2_PIX_FMT_SBGGR16;
else {
if (ccdc_hw_params_ycbcr.pix_order == CCDC_PIXORDER_YCBYCR)
pixfmt = V4L2_PIX_FMT_YUYV;
else
pixfmt = V4L2_PIX_FMT_UYVY;
}
return pixfmt;
}
static int ccdc_set_image_window(struct v4l2_rect *win)
{
if (ccdc_if_type == VPFE_RAW_BAYER)
ccdc_hw_params_raw.win = *win;
else
ccdc_hw_params_ycbcr.win = *win;
return 0;
}
static void ccdc_get_image_window(struct v4l2_rect *win)
{
if (ccdc_if_type == VPFE_RAW_BAYER)
*win = ccdc_hw_params_raw.win;
else
*win = ccdc_hw_params_ycbcr.win;
}
static unsigned int ccdc_get_line_length(void)
{
struct ccdc_config_params_raw *config_params =
&ccdc_hw_params_raw.config_params;
unsigned int len;
if (ccdc_if_type == VPFE_RAW_BAYER) {
if ((config_params->alaw.enable) ||
(config_params->data_sz == CCDC_DATA_8BITS))
len = ccdc_hw_params_raw.win.width;
else
len = ccdc_hw_params_raw.win.width * 2;
} else
len = ccdc_hw_params_ycbcr.win.width * 2;
return ALIGN(len, 32);
}
static int ccdc_set_frame_format(enum ccdc_frmfmt frm_fmt)
{
if (ccdc_if_type == VPFE_RAW_BAYER)
ccdc_hw_params_raw.frm_fmt = frm_fmt;
else
ccdc_hw_params_ycbcr.frm_fmt = frm_fmt;
return 0;
}
static enum ccdc_frmfmt ccdc_get_frame_format(void)
{
if (ccdc_if_type == VPFE_RAW_BAYER)
return ccdc_hw_params_raw.frm_fmt;
else
return ccdc_hw_params_ycbcr.frm_fmt;
}
static int ccdc_getfid(void)
{
return (regr(MODESET) >> 15) & 1;
}
/* misc operations */
static inline void ccdc_setfbaddr(unsigned long addr)
{
regw((addr >> 21) & 0x007f, STADRH);
regw((addr >> 5) & 0x0ffff, STADRL);
}
static int ccdc_set_hw_if_params(struct vpfe_hw_if_param *params)
{
ccdc_if_type = params->if_type;
switch (params->if_type) {
case VPFE_BT656:
case VPFE_YCBCR_SYNC_16:
case VPFE_YCBCR_SYNC_8:
ccdc_hw_params_ycbcr.vd_pol = params->vdpol;
ccdc_hw_params_ycbcr.hd_pol = params->hdpol;
break;
default:
/* TODO add support for raw bayer here */
return -EINVAL;
}
return 0;
}
static struct ccdc_hw_device ccdc_hw_dev = {
.name = "DM355 CCDC",
.owner = THIS_MODULE,
.hw_ops = {
.open = ccdc_open,
.close = ccdc_close,
.set_ccdc_base = ccdc_set_ccdc_base,
.enable = ccdc_enable,
.enable_out_to_sdram = ccdc_enable_output_to_sdram,
.set_hw_if_params = ccdc_set_hw_if_params,
.set_params = ccdc_set_params,
.configure = ccdc_configure,
.set_buftype = ccdc_set_buftype,
.get_buftype = ccdc_get_buftype,
.enum_pix = ccdc_enum_pix,
.set_pixel_format = ccdc_set_pixel_format,
.get_pixel_format = ccdc_get_pixel_format,
.set_frame_format = ccdc_set_frame_format,
.get_frame_format = ccdc_get_frame_format,
.set_image_window = ccdc_set_image_window,
.get_image_window = ccdc_get_image_window,
.get_line_length = ccdc_get_line_length,
.setfbaddr = ccdc_setfbaddr,
.getfid = ccdc_getfid,
},
};
static int dm355_ccdc_init(void)
{
printk(KERN_NOTICE "dm355_ccdc_init\n");
if (vpfe_register_ccdc_device(&ccdc_hw_dev) < 0)
return -1;
printk(KERN_NOTICE "%s is registered with vpfe.\n",
ccdc_hw_dev.name);
return 0;
}
static void dm355_ccdc_exit(void)
{
vpfe_unregister_ccdc_device(&ccdc_hw_dev);
}
module_init(dm355_ccdc_init);
module_exit(dm355_ccdc_exit);

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/*
* Copyright (C) 2005-2009 Texas Instruments Inc
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2 of the License, or
* (at your option) any later version.
*
* 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., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*/
#ifndef _DM355_CCDC_REGS_H
#define _DM355_CCDC_REGS_H
/**************************************************************************\
* Register OFFSET Definitions
\**************************************************************************/
#define SYNCEN 0x00
#define MODESET 0x04
#define HDWIDTH 0x08
#define VDWIDTH 0x0c
#define PPLN 0x10
#define LPFR 0x14
#define SPH 0x18
#define NPH 0x1c
#define SLV0 0x20
#define SLV1 0x24
#define NLV 0x28
#define CULH 0x2c
#define CULV 0x30
#define HSIZE 0x34
#define SDOFST 0x38
#define STADRH 0x3c
#define STADRL 0x40
#define CLAMP 0x44
#define DCSUB 0x48
#define COLPTN 0x4c
#define BLKCMP0 0x50
#define BLKCMP1 0x54
#define MEDFILT 0x58
#define RYEGAIN 0x5c
#define GRCYGAIN 0x60
#define GBGGAIN 0x64
#define BMGGAIN 0x68
#define OFFSET 0x6c
#define OUTCLIP 0x70
#define VDINT0 0x74
#define VDINT1 0x78
#define RSV0 0x7c
#define GAMMAWD 0x80
#define REC656IF 0x84
#define CCDCFG 0x88
#define FMTCFG 0x8c
#define FMTPLEN 0x90
#define FMTSPH 0x94
#define FMTLNH 0x98
#define FMTSLV 0x9c
#define FMTLNV 0xa0
#define FMTRLEN 0xa4
#define FMTHCNT 0xa8
#define FMT_ADDR_PTR_B 0xac
#define FMT_ADDR_PTR(i) (FMT_ADDR_PTR_B + (i * 4))
#define FMTPGM_VF0 0xcc
#define FMTPGM_VF1 0xd0
#define FMTPGM_AP0 0xd4
#define FMTPGM_AP1 0xd8
#define FMTPGM_AP2 0xdc
#define FMTPGM_AP3 0xe0
#define FMTPGM_AP4 0xe4
#define FMTPGM_AP5 0xe8
#define FMTPGM_AP6 0xec
#define FMTPGM_AP7 0xf0
#define LSCCFG1 0xf4
#define LSCCFG2 0xf8
#define LSCH0 0xfc
#define LSCV0 0x100
#define LSCKH 0x104
#define LSCKV 0x108
#define LSCMEMCTL 0x10c
#define LSCMEMD 0x110
#define LSCMEMQ 0x114
#define DFCCTL 0x118
#define DFCVSAT 0x11c
#define DFCMEMCTL 0x120
#define DFCMEM0 0x124
#define DFCMEM1 0x128
#define DFCMEM2 0x12c
#define DFCMEM3 0x130
#define DFCMEM4 0x134
#define CSCCTL 0x138
#define CSCM0 0x13c
#define CSCM1 0x140
#define CSCM2 0x144
#define CSCM3 0x148
#define CSCM4 0x14c
#define CSCM5 0x150
#define CSCM6 0x154
#define CSCM7 0x158
#define DATAOFST 0x15c
#define CCDC_REG_LAST DATAOFST
/**************************************************************
* Define for various register bit mask and shifts for CCDC
*
**************************************************************/
#define CCDC_RAW_IP_MODE 0
#define CCDC_VDHDOUT_INPUT 0
#define CCDC_YCINSWP_RAW (0 << 4)
#define CCDC_EXWEN_DISABLE 0
#define CCDC_DATAPOL_NORMAL 0
#define CCDC_CCDCFG_FIDMD_LATCH_VSYNC 0
#define CCDC_CCDCFG_FIDMD_NO_LATCH_VSYNC (1 << 6)
#define CCDC_CCDCFG_WENLOG_AND 0
#define CCDC_CCDCFG_TRGSEL_WEN 0
#define CCDC_CCDCFG_EXTRG_DISABLE 0
#define CCDC_CFA_MOSAIC 0
#define CCDC_Y8POS_SHIFT 11
#define CCDC_VDC_DFCVSAT_MASK 0x3fff
#define CCDC_DATAOFST_MASK 0x0ff
#define CCDC_DATAOFST_H_SHIFT 0
#define CCDC_DATAOFST_V_SHIFT 8
#define CCDC_GAMMAWD_CFA_MASK 1
#define CCDC_GAMMAWD_CFA_SHIFT 5
#define CCDC_GAMMAWD_INPUT_SHIFT 2
#define CCDC_FID_POL_MASK 1
#define CCDC_FID_POL_SHIFT 4
#define CCDC_HD_POL_MASK 1
#define CCDC_HD_POL_SHIFT 3
#define CCDC_VD_POL_MASK 1
#define CCDC_VD_POL_SHIFT 2
#define CCDC_VD_POL_NEGATIVE (1 << 2)
#define CCDC_FRM_FMT_MASK 1
#define CCDC_FRM_FMT_SHIFT 7
#define CCDC_DATA_SZ_MASK 7
#define CCDC_DATA_SZ_SHIFT 8
#define CCDC_VDHDOUT_MASK 1
#define CCDC_VDHDOUT_SHIFT 0
#define CCDC_EXWEN_MASK 1
#define CCDC_EXWEN_SHIFT 5
#define CCDC_INPUT_MODE_MASK 3
#define CCDC_INPUT_MODE_SHIFT 12
#define CCDC_PIX_FMT_MASK 3
#define CCDC_PIX_FMT_SHIFT 12
#define CCDC_DATAPOL_MASK 1
#define CCDC_DATAPOL_SHIFT 6
#define CCDC_WEN_ENABLE (1 << 1)
#define CCDC_VDHDEN_ENABLE (1 << 16)
#define CCDC_LPF_ENABLE (1 << 14)
#define CCDC_ALAW_ENABLE 1
#define CCDC_ALAW_GAMA_WD_MASK 7
#define CCDC_REC656IF_BT656_EN 3
#define CCDC_FMTCFG_FMTMODE_MASK 3
#define CCDC_FMTCFG_FMTMODE_SHIFT 1
#define CCDC_FMTCFG_LNUM_MASK 3
#define CCDC_FMTCFG_LNUM_SHIFT 4
#define CCDC_FMTCFG_ADDRINC_MASK 7
#define CCDC_FMTCFG_ADDRINC_SHIFT 8
#define CCDC_CCDCFG_FIDMD_SHIFT 6
#define CCDC_CCDCFG_WENLOG_SHIFT 8
#define CCDC_CCDCFG_TRGSEL_SHIFT 9
#define CCDC_CCDCFG_EXTRG_SHIFT 10
#define CCDC_CCDCFG_MSBINVI_SHIFT 13
#define CCDC_HSIZE_FLIP_SHIFT 12
#define CCDC_HSIZE_FLIP_MASK 1
#define CCDC_HSIZE_VAL_MASK 0xFFF
#define CCDC_SDOFST_FIELD_INTERLEAVED 0x249
#define CCDC_SDOFST_INTERLACE_INVERSE 0x4B6D
#define CCDC_SDOFST_INTERLACE_NORMAL 0x0B6D
#define CCDC_SDOFST_PROGRESSIVE_INVERSE 0x4000
#define CCDC_SDOFST_PROGRESSIVE_NORMAL 0
#define CCDC_START_PX_HOR_MASK 0x7FFF
#define CCDC_NUM_PX_HOR_MASK 0x7FFF
#define CCDC_START_VER_ONE_MASK 0x7FFF
#define CCDC_START_VER_TWO_MASK 0x7FFF
#define CCDC_NUM_LINES_VER 0x7FFF
#define CCDC_BLK_CLAMP_ENABLE (1 << 15)
#define CCDC_BLK_SGAIN_MASK 0x1F
#define CCDC_BLK_ST_PXL_MASK 0x1FFF
#define CCDC_BLK_SAMPLE_LN_MASK 3
#define CCDC_BLK_SAMPLE_LN_SHIFT 13
#define CCDC_NUM_LINE_CALC_MASK 3
#define CCDC_NUM_LINE_CALC_SHIFT 14
#define CCDC_BLK_DC_SUB_MASK 0x3FFF
#define CCDC_BLK_COMP_MASK 0xFF
#define CCDC_BLK_COMP_GB_COMP_SHIFT 8
#define CCDC_BLK_COMP_GR_COMP_SHIFT 0
#define CCDC_BLK_COMP_R_COMP_SHIFT 8
#define CCDC_LATCH_ON_VSYNC_DISABLE (1 << 15)
#define CCDC_LATCH_ON_VSYNC_ENABLE (0 << 15)
#define CCDC_FPC_ENABLE (1 << 15)
#define CCDC_FPC_FPC_NUM_MASK 0x7FFF
#define CCDC_DATA_PACK_ENABLE (1 << 11)
#define CCDC_FMT_HORZ_FMTLNH_MASK 0x1FFF
#define CCDC_FMT_HORZ_FMTSPH_MASK 0x1FFF
#define CCDC_FMT_HORZ_FMTSPH_SHIFT 16
#define CCDC_FMT_VERT_FMTLNV_MASK 0x1FFF
#define CCDC_FMT_VERT_FMTSLV_MASK 0x1FFF
#define CCDC_FMT_VERT_FMTSLV_SHIFT 16
#define CCDC_VP_OUT_VERT_NUM_MASK 0x3FFF
#define CCDC_VP_OUT_VERT_NUM_SHIFT 17
#define CCDC_VP_OUT_HORZ_NUM_MASK 0x1FFF
#define CCDC_VP_OUT_HORZ_NUM_SHIFT 4
#define CCDC_VP_OUT_HORZ_ST_MASK 0xF
#define CCDC_CSC_COEF_INTEG_MASK 7
#define CCDC_CSC_COEF_DECIMAL_MASK 0x1f
#define CCDC_CSC_COEF_INTEG_SHIFT 5
#define CCDC_CSCM_MSB_SHIFT 8
#define CCDC_CSC_ENABLE 1
#define CCDC_CSC_DEC_MAX 32
#define CCDC_MFILT1_SHIFT 10
#define CCDC_MFILT2_SHIFT 8
#define CCDC_MED_FILT_THRESH 0x3FFF
#define CCDC_LPF_MASK 1
#define CCDC_LPF_SHIFT 14
#define CCDC_OFFSET_MASK 0x3FF
#define CCDC_DATASFT_MASK 7
#define CCDC_DATASFT_SHIFT 8
#define CCDC_DF_ENABLE 1
#define CCDC_FMTPLEN_P0_MASK 0xF
#define CCDC_FMTPLEN_P1_MASK 0xF
#define CCDC_FMTPLEN_P2_MASK 7
#define CCDC_FMTPLEN_P3_MASK 7
#define CCDC_FMTPLEN_P0_SHIFT 0
#define CCDC_FMTPLEN_P1_SHIFT 4
#define CCDC_FMTPLEN_P2_SHIFT 8
#define CCDC_FMTPLEN_P3_SHIFT 12
#define CCDC_FMTSPH_MASK 0x1FFF
#define CCDC_FMTLNH_MASK 0x1FFF
#define CCDC_FMTSLV_MASK 0x1FFF
#define CCDC_FMTLNV_MASK 0x7FFF
#define CCDC_FMTRLEN_MASK 0x1FFF
#define CCDC_FMTHCNT_MASK 0x1FFF
#define CCDC_ADP_INIT_MASK 0x1FFF
#define CCDC_ADP_LINE_SHIFT 13
#define CCDC_ADP_LINE_MASK 3
#define CCDC_FMTPGN_APTR_MASK 7
#define CCDC_DFCCTL_GDFCEN_MASK 1
#define CCDC_DFCCTL_VDFCEN_MASK 1
#define CCDC_DFCCTL_VDFC_DISABLE (0 << 4)
#define CCDC_DFCCTL_VDFCEN_SHIFT 4
#define CCDC_DFCCTL_VDFCSL_MASK 3
#define CCDC_DFCCTL_VDFCSL_SHIFT 5
#define CCDC_DFCCTL_VDFCUDA_MASK 1
#define CCDC_DFCCTL_VDFCUDA_SHIFT 7
#define CCDC_DFCCTL_VDFLSFT_MASK 3
#define CCDC_DFCCTL_VDFLSFT_SHIFT 8
#define CCDC_DFCMEMCTL_DFCMARST_MASK 1
#define CCDC_DFCMEMCTL_DFCMARST_SHIFT 2
#define CCDC_DFCMEMCTL_DFCMWR_MASK 1
#define CCDC_DFCMEMCTL_DFCMWR_SHIFT 0
#define CCDC_DFCMEMCTL_INC_ADDR (0 << 2)
#define CCDC_LSCCFG_GFTSF_MASK 7
#define CCDC_LSCCFG_GFTSF_SHIFT 1
#define CCDC_LSCCFG_GFTINV_MASK 0xf
#define CCDC_LSCCFG_GFTINV_SHIFT 4
#define CCDC_LSC_GFTABLE_SEL_MASK 3
#define CCDC_LSC_GFTABLE_EPEL_SHIFT 8
#define CCDC_LSC_GFTABLE_OPEL_SHIFT 10
#define CCDC_LSC_GFTABLE_EPOL_SHIFT 12
#define CCDC_LSC_GFTABLE_OPOL_SHIFT 14
#define CCDC_LSC_GFMODE_MASK 3
#define CCDC_LSC_GFMODE_SHIFT 4
#define CCDC_LSC_DISABLE 0
#define CCDC_LSC_ENABLE 1
#define CCDC_LSC_TABLE1_SLC 0
#define CCDC_LSC_TABLE2_SLC 1
#define CCDC_LSC_TABLE3_SLC 2
#define CCDC_LSC_MEMADDR_RESET (1 << 2)
#define CCDC_LSC_MEMADDR_INCR (0 << 2)
#define CCDC_LSC_FRAC_MASK_T1 0xFF
#define CCDC_LSC_INT_MASK 3
#define CCDC_LSC_FRAC_MASK 0x3FFF
#define CCDC_LSC_CENTRE_MASK 0x3FFF
#define CCDC_LSC_COEF_MASK 0xff
#define CCDC_LSC_COEFL_SHIFT 0
#define CCDC_LSC_COEFU_SHIFT 8
#define CCDC_GAIN_MASK 0x7FF
#define CCDC_SYNCEN_VDHDEN_MASK (1 << 0)
#define CCDC_SYNCEN_WEN_MASK (1 << 1)
#define CCDC_SYNCEN_WEN_SHIFT 1
/* Power on Defaults in hardware */
#define MODESET_DEFAULT 0x200
#define CULH_DEFAULT 0xFFFF
#define CULV_DEFAULT 0xFF
#define GAIN_DEFAULT 256
#define OUTCLIP_DEFAULT 0x3FFF
#define LSCCFG2_DEFAULT 0xE
#endif

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include/media/davinci/dm355_ccdc.h Normal file
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/*
* Copyright (C) 2005-2009 Texas Instruments Inc
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2 of the License, or
* (at your option) any later version.
*
* 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., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*/
#ifndef _DM355_CCDC_H
#define _DM355_CCDC_H
#include <media/davinci/ccdc_types.h>
#include <media/davinci/vpfe_types.h>
/* enum for No of pixel per line to be avg. in Black Clamping */
enum ccdc_sample_length {
CCDC_SAMPLE_1PIXELS,
CCDC_SAMPLE_2PIXELS,
CCDC_SAMPLE_4PIXELS,
CCDC_SAMPLE_8PIXELS,
CCDC_SAMPLE_16PIXELS
};
/* enum for No of lines in Black Clamping */
enum ccdc_sample_line {
CCDC_SAMPLE_1LINES,
CCDC_SAMPLE_2LINES,
CCDC_SAMPLE_4LINES,
CCDC_SAMPLE_8LINES,
CCDC_SAMPLE_16LINES
};
/* enum for Alaw gama width */
enum ccdc_gamma_width {
CCDC_GAMMA_BITS_13_4,
CCDC_GAMMA_BITS_12_3,
CCDC_GAMMA_BITS_11_2,
CCDC_GAMMA_BITS_10_1,
CCDC_GAMMA_BITS_09_0
};
enum ccdc_colpats {
CCDC_RED,
CCDC_GREEN_RED,
CCDC_GREEN_BLUE,
CCDC_BLUE
};
struct ccdc_col_pat {
enum ccdc_colpats olop;
enum ccdc_colpats olep;
enum ccdc_colpats elop;
enum ccdc_colpats elep;
};
enum ccdc_datasft {
CCDC_DATA_NO_SHIFT,
CCDC_DATA_SHIFT_1BIT,
CCDC_DATA_SHIFT_2BIT,
CCDC_DATA_SHIFT_3BIT,
CCDC_DATA_SHIFT_4BIT,
CCDC_DATA_SHIFT_5BIT,
CCDC_DATA_SHIFT_6BIT
};
enum ccdc_data_size {
CCDC_DATA_16BITS,
CCDC_DATA_15BITS,
CCDC_DATA_14BITS,
CCDC_DATA_13BITS,
CCDC_DATA_12BITS,
CCDC_DATA_11BITS,
CCDC_DATA_10BITS,
CCDC_DATA_8BITS
};
enum ccdc_mfilt1 {
CCDC_NO_MEDIAN_FILTER1,
CCDC_AVERAGE_FILTER1,
CCDC_MEDIAN_FILTER1
};
enum ccdc_mfilt2 {
CCDC_NO_MEDIAN_FILTER2,
CCDC_AVERAGE_FILTER2,
CCDC_MEDIAN_FILTER2
};
/* structure for ALaw */
struct ccdc_a_law {
/* Enable/disable A-Law */
unsigned char enable;
/* Gama Width Input */
enum ccdc_gamma_width gama_wd;
};
/* structure for Black Clamping */
struct ccdc_black_clamp {
/* only if bClampEnable is TRUE */
unsigned char b_clamp_enable;
/* only if bClampEnable is TRUE */
enum ccdc_sample_length sample_pixel;
/* only if bClampEnable is TRUE */
enum ccdc_sample_line sample_ln;
/* only if bClampEnable is TRUE */
unsigned short start_pixel;
/* only if bClampEnable is FALSE */
unsigned short sgain;
unsigned short dc_sub;
};
/* structure for Black Level Compensation */
struct ccdc_black_compensation {
/* Constant value to subtract from Red component */
unsigned char r;
/* Constant value to subtract from Gr component */
unsigned char gr;
/* Constant value to subtract from Blue component */
unsigned char b;
/* Constant value to subtract from Gb component */
unsigned char gb;
};
struct ccdc_float {
int integer;
unsigned int decimal;
};
#define CCDC_CSC_COEFF_TABLE_SIZE 16
/* structure for color space converter */
struct ccdc_csc {
unsigned char enable;
/*
* S8Q5. Use 2 decimal precision, user values range from -3.00 to 3.99.
* example - to use 1.03, set integer part as 1, and decimal part as 3
* to use -1.03, set integer part as -1 and decimal part as 3
*/
struct ccdc_float coeff[CCDC_CSC_COEFF_TABLE_SIZE];
};
/* Structures for Vertical Defect Correction*/
enum ccdc_vdf_csl {
CCDC_VDF_NORMAL,
CCDC_VDF_HORZ_INTERPOL_SAT,
CCDC_VDF_HORZ_INTERPOL
};
enum ccdc_vdf_cuda {
CCDC_VDF_WHOLE_LINE_CORRECT,
CCDC_VDF_UPPER_DISABLE
};
enum ccdc_dfc_mwr {
CCDC_DFC_MWR_WRITE_COMPLETE,
CCDC_DFC_WRITE_REG
};
enum ccdc_dfc_mrd {
CCDC_DFC_READ_COMPLETE,
CCDC_DFC_READ_REG
};
enum ccdc_dfc_ma_rst {
CCDC_DFC_INCR_ADDR,
CCDC_DFC_CLR_ADDR
};
enum ccdc_dfc_mclr {
CCDC_DFC_CLEAR_COMPLETE,
CCDC_DFC_CLEAR
};
struct ccdc_dft_corr_ctl {
enum ccdc_vdf_csl vdfcsl;
enum ccdc_vdf_cuda vdfcuda;
unsigned int vdflsft;
};
struct ccdc_dft_corr_mem_ctl {
enum ccdc_dfc_mwr dfcmwr;
enum ccdc_dfc_mrd dfcmrd;
enum ccdc_dfc_ma_rst dfcmarst;
enum ccdc_dfc_mclr dfcmclr;
};
#define CCDC_DFT_TABLE_SIZE 16
/*
* Main Structure for vertical defect correction. Vertical defect
* correction can correct upto 16 defects if defects less than 16
* then pad the rest with 0
*/
struct ccdc_vertical_dft {
unsigned char ver_dft_en;
unsigned char gen_dft_en;
unsigned int saturation_ctl;
struct ccdc_dft_corr_ctl dft_corr_ctl;
struct ccdc_dft_corr_mem_ctl dft_corr_mem_ctl;
int table_size;
unsigned int dft_corr_horz[CCDC_DFT_TABLE_SIZE];
unsigned int dft_corr_vert[CCDC_DFT_TABLE_SIZE];
unsigned int dft_corr_sub1[CCDC_DFT_TABLE_SIZE];
unsigned int dft_corr_sub2[CCDC_DFT_TABLE_SIZE];
unsigned int dft_corr_sub3[CCDC_DFT_TABLE_SIZE];
};
struct ccdc_data_offset {
unsigned char horz_offset;
unsigned char vert_offset;
};
/*
* Structure for CCDC configuration parameters for raw capture mode passed
* by application
*/
struct ccdc_config_params_raw {
/* data shift to be applied before storing */
enum ccdc_datasft datasft;
/* data size value from 8 to 16 bits */
enum ccdc_data_size data_sz;
/* median filter for sdram */
enum ccdc_mfilt1 mfilt1;
enum ccdc_mfilt2 mfilt2;
/* low pass filter enable/disable */
unsigned char lpf_enable;
/* Threshold of median filter */
int med_filt_thres;
/*
* horz and vertical data offset. Appliable for defect correction
* and lsc
*/
struct ccdc_data_offset data_offset;
/* Structure for Optional A-Law */
struct ccdc_a_law alaw;
/* Structure for Optical Black Clamp */
struct ccdc_black_clamp blk_clamp;
/* Structure for Black Compensation */
struct ccdc_black_compensation blk_comp;
/* struture for vertical Defect Correction Module Configuration */
struct ccdc_vertical_dft vertical_dft;
/* structure for color space converter Module Configuration */
struct ccdc_csc csc;
/* color patters for bayer capture */
struct ccdc_col_pat col_pat_field0;
struct ccdc_col_pat col_pat_field1;
};
#ifdef __KERNEL__
#include <linux/io.h>
#define CCDC_WIN_PAL {0, 0, 720, 576}
#define CCDC_WIN_VGA {0, 0, 640, 480}
struct ccdc_params_ycbcr {
/* pixel format */
enum ccdc_pixfmt pix_fmt;
/* progressive or interlaced frame */
enum ccdc_frmfmt frm_fmt;
/* video window */
struct v4l2_rect win;
/* field id polarity */
enum vpfe_pin_pol fid_pol;
/* vertical sync polarity */
enum vpfe_pin_pol vd_pol;
/* horizontal sync polarity */
enum vpfe_pin_pol hd_pol;
/* enable BT.656 embedded sync mode */
int bt656_enable;
/* cb:y:cr:y or y:cb:y:cr in memory */
enum ccdc_pixorder pix_order;
/* interleaved or separated fields */
enum ccdc_buftype buf_type;
};
/* Gain applied to Raw Bayer data */
struct ccdc_gain {
unsigned short r_ye;
unsigned short gr_cy;
unsigned short gb_g;
unsigned short b_mg;
};
/* Structure for CCDC configuration parameters for raw capture mode */
struct ccdc_params_raw {
/* pixel format */
enum ccdc_pixfmt pix_fmt;
/* progressive or interlaced frame */
enum ccdc_frmfmt frm_fmt;
/* video window */
struct v4l2_rect win;
/* field id polarity */
enum vpfe_pin_pol fid_pol;
/* vertical sync polarity */
enum vpfe_pin_pol vd_pol;
/* horizontal sync polarity */
enum vpfe_pin_pol hd_pol;
/* interleaved or separated fields */
enum ccdc_buftype buf_type;
/* Gain values */
struct ccdc_gain gain;
/* offset */
unsigned int ccdc_offset;
/* horizontal flip enable */
unsigned char horz_flip_enable;
/*
* enable to store the image in inverse order in memory
* (bottom to top)
*/
unsigned char image_invert_enable;
/* Configurable part of raw data */
struct ccdc_config_params_raw config_params;
};
#endif
#endif /* DM355_CCDC_H */