#include #include #include "mis40h1.h" #include "mis40h1_ctrl.h" #include "mis40h1_ex.h" #include "xmedia_isp.h" #define MIS40H1_NAME "MIS40H1" #define MIS40H1_SPECS_MAX_NUM 1 #ifdef __linux__ #define MIS40H1_ISP_DEFAULT_SUPPORT #endif #define MIS40H1_4M_1520_BIT_RATE_LINEAR 792 #define MIS40H1_RES_IS_1520P(w, h) ((w) == 2688 && (h) == 1520) #define MIS40H1_ERR_MODE_PRINT(sns_attr) \ do { \ SENSOR_TRACE(MODULE_DBG_ERR, "Not support! Width:%d, Height:%d, WDRMode:%d\n", sns_attr->width, \ sns_attr->height, sns_attr->wdr_mode); \ } while (0) // awb static param for Fuji Lens New IR_Cut #define MIS40H1_CALIBRATE_STATIC_TEMP 5000 #define MIS40H1_CALIBRATE_STATIC_WB_R_GAIN 488 #define MIS40H1_CALIBRATE_STATIC_WB_GR_GAIN 256 #define MIS40H1_CALIBRATE_STATIC_WB_GB_GAIN 256 #define MIS40H1_CALIBRATE_STATIC_WB_B_GAIN 440 // Calibration results for Auto WB Planck #define MIS40H1_CALIBRATE_AWB_P1 38 #define MIS40H1_CALIBRATE_AWB_P2 160 #define MIS40H1_CALIBRATE_AWB_Q1 -58 #define MIS40H1_CALIBRATE_AWB_A1 214888 #define MIS40H1_CALIBRATE_AWB_B1 128 #define MIS40H1_CALIBRATE_AWB_C1 (-164091) // Rgain and Bgain of the golden sample #define MIS40H1_GOLDEN_RGAIN 0 #define MIS40H1_GOLDEN_BGAIN 0 #define MIS40H1_AGAIN_MIN (1024) #define MIS40H1_AGAIN_MAX (1024 * 32) // the max again is 77660 mean 75.84 recommend #define SENSOR_LCG_TO_HCG 85 #define SENSOR_LCG_TO_HCG1 80 #define SENSOR_LCG_TO_HCG_OFFSET 5 #define MIS40H1_MAX_GAIN (MIS40H1_AGAIN_MAX * SENSOR_LCG_TO_HCG1) static xmedia_u8 g_dcg_data = 2; sensor_context *g_mis40h1_ctx[XMEDIA_SENSOR_DEV_MAX_NUM] = { XMEDIA_NULL }; #define MIS40H1_GET_CTX(dev, ctx) ctx = g_mis40h1_ctx[dev] #define MIS40H1_SET_CTX(dev, ctx) g_mis40h1_ctx[dev] = ctx static xmedia_u32 g_mis40h1_exposure[XMEDIA_SENSOR_DEV_MAX_NUM] = { 0 }; static xmedia_u16 g_mis40h1_sample_r_gain[XMEDIA_SENSOR_DEV_MAX_NUM] = { 0 }; static xmedia_u16 g_mis40h1_sample_b_gain[XMEDIA_SENSOR_DEV_MAX_NUM] = { 0 }; static xmedia_u16 g_mis40h1_wb_gain[XMEDIA_SENSOR_DEV_MAX_NUM][SENSOR_AWB_CHN_GIAN_MAX_NUM] = { { 0 } }; static xmedia_s32 g_mis40h1_dev_map[XMEDIA_SENSOR_DEV_MAX_NUM] = { [0 ... XMEDIA_SENSOR_DEV_MAX_NUM - 1] = SENSOR_DEV_INVALID }; static const xmedia_sensor_property g_mis40h1_property[MIS40H1_SPECS_MAX_NUM] = { { // width, height, wdr_mode 2688, 1520, XMEDIA_VIDEO_WDR_MODE_NONE, // wdr_format, max_fps, input_clock XMEDIA_VIDEO_WDR_FMT_NONE, 30, XMEDIA_SENSOR_CLOCK_FREQ_24MHZ, // output_intf, pixel_format, bit_width XMEDIA_INTF_TYPE_MIPI_CSI, XMEDIA_VIDEO_PIXEL_FMT_RAW, XMEDIA_VIDEO_DATA_WIDTH_10, // bayer_format - mirror&flip /mirror /flip /normal { XMEDIA_VIDEO_BAYER_FMT_BGGR, XMEDIA_VIDEO_BAYER_FMT_GRBG, XMEDIA_VIDEO_BAYER_FMT_GBRG, XMEDIA_VIDEO_BAYER_FMT_RGGB }, // vcid, bit_rate (TODO: bit_rate to be confirmed) { 0 }, MIS40H1_4M_1520_BIT_RATE_LINEAR, }, }; static const xmedia_sensor_capability g_mis40h1_capability = { .max_width = 2688, .max_height = 1520, .max_fps = 30, .output_intf = XMEDIA_INTF_TYPE_MIPI_CSI, .init_mclk = XMEDIA_SENSOR_CLOCK_FREQ_24MHZ, .wdr_mode = XMEDIA_VIDEO_WDR_MODE_NONE, .wdr_format = XMEDIA_VIDEO_WDR_FMT_VC, .bit_width = XMEDIA_VIDEO_DATA_WIDTH_10, .reset_time = 200, // TODO: 待后续确认复位所需时间 .mipi_lanes_supported = XMEDIA_SENSOR_MIPI_LANES_2L, .standby_info = { .standby_supported = XMEDIA_FALSE, .addr_byte_num = MIS40H1_ADDR_BYTE, .data_byte_num = MIS40H1_DATA_BYTE, .standby_reg_num = 0, .resume_reg_num = 0, }, }; static xmedia_s32 mis40h1_ctx_init(xmedia_u32 dev) { sensor_context *mis40h1_ctx = XMEDIA_NULL; MIS40H1_GET_CTX(dev, mis40h1_ctx); if (mis40h1_ctx != XMEDIA_NULL) { SENSOR_TRACE(MODULE_DBG_ERR, " sensor-[%d] ctx already malloc!\n", dev); return XMEDIA_ERRCODE_EXIST; } mis40h1_ctx = (sensor_context *)malloc(sizeof(sensor_context)); if (mis40h1_ctx == XMEDIA_NULL) { SENSOR_TRACE(MODULE_DBG_ERR, " sensor-[%d] ctx malloc memory failed!\n", dev); return XMEDIA_ERRCODE_NOT_ENOUGH_MEMORY; } memset(mis40h1_ctx, 0, sizeof(sensor_context)); mis40h1_ctx->i2c_addr = MIS40H1_I2C_ADDR; mis40h1_ctx->lanes = XMEDIA_SENSOR_MIPI_LANES_2L; mis40h1_ctx->work_mode = XMEDIA_SENSOR_WORK_MODE_NORMAL; mis40h1_ctx->bus_info.i2c_dev = SENSOR_I2C_INVALID; mis40h1_ctx->size.width = 2688; mis40h1_ctx->size.height = 1520; mis40h1_ctx->fps = g_mis40h1_property[0].max_fps; mis40h1_ctx->wdr_mode = XMEDIA_VIDEO_WDR_MODE_NONE; mis40h1_ctx->img_mode = MIS40H1_4M_1520_10BIT_LINEAR_MODE; mis40h1_ctx->fl_std = MIS40H1_VMAX_4M_1520_LINEAR; mis40h1_ctx->fl[SENSOR_CUR_FRAME] = MIS40H1_VMAX_4M_1520_LINEAR; mis40h1_ctx->fl[SENSOR_PRE_FRAME] = MIS40H1_VMAX_4M_1520_LINEAR; MIS40H1_SET_CTX(dev, mis40h1_ctx); return XMEDIA_SUCCESS; } static xmedia_void mis40h1_ctx_exit(xmedia_u32 dev) { sensor_context *mis40h1_ctx = XMEDIA_NULL; MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_FREE(mis40h1_ctx); MIS40H1_SET_CTX(dev, XMEDIA_NULL); } static xmedia_s32 mis40h1_get_property(xmedia_u32 dev, xmedia_sensor_property *property) { xmedia_u8 i; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(property); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); for (i = 0; i < MIS40H1_SPECS_MAX_NUM; i++) { if (g_mis40h1_property[i].width == mis40h1_ctx->size.width && g_mis40h1_property[i].height == mis40h1_ctx->size.height && g_mis40h1_property[i].wdr_mode == mis40h1_ctx->wdr_mode) { memcpy(property, &g_mis40h1_property[i], sizeof(xmedia_sensor_property)); return XMEDIA_SUCCESS; } } SENSOR_TRACE(MODULE_DBG_ERR, "Not support! Width: %d, Height: %d, Wdr_mode: %d !\n", mis40h1_ctx->size.width, mis40h1_ctx->size.height, mis40h1_ctx->wdr_mode); return XMEDIA_ERRCODE_NOT_SUPPORT; } static xmedia_s32 mis40h1_set_work_mode(xmedia_u32 dev, xmedia_sensor_work_mode work_mode) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); mis40h1_ctx->work_mode = work_mode; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_set_mipi_lanes(xmedia_u32 dev, xmedia_sensor_mipi_lanes mipi_lanes) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); if (mipi_lanes != XMEDIA_SENSOR_MIPI_LANES_2L) { SENSOR_TRACE(MODULE_DBG_ERR, "No support mipi lanes [%d]! \n", mipi_lanes); return XMEDIA_ERRCODE_NOT_SUPPORT; } mis40h1_ctx->lanes = mipi_lanes; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_set_bus_info(xmedia_u32 dev, const xmedia_sensor_commbus *sns_bus_info) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(sns_bus_info); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); if (sns_bus_info->type == XMEDIA_SENSOR_BUS_TYPE_I2C) { mis40h1_ctx->bus_info.i2c_dev = sns_bus_info->i2c_dev; } else if (sns_bus_info->type == XMEDIA_SENSOR_BUS_TYPE_SPI) { mis40h1_ctx->bus_info.spi_info.spi_dev = sns_bus_info->spi_info.spi_dev; mis40h1_ctx->bus_info.spi_info.spi_cs = sns_bus_info->spi_info.spi_cs; } else { SENSOR_TRACE(MODULE_DBG_ERR, "Not support [%d], the value of bus type is {%d-i2c, %d-spi}, please check input type!\n", sns_bus_info->type, XMEDIA_SENSOR_BUS_TYPE_I2C, XMEDIA_SENSOR_BUS_TYPE_SPI); return XMEDIA_ERRCODE_NOT_SUPPORT; } return XMEDIA_SUCCESS; } // one i2c dev shared by multiple sensors static xmedia_s32 mis40h1_set_dev_addr(xmedia_u32 dev, xmedia_u32 slave_addr) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); mis40h1_ctx->i2c_addr = slave_addr; ret = mis40h1_set_slave_addr(dev, slave_addr); SENSOR_CHECK_RET_RETURN(ret); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_dev_addr(xmedia_u32 dev, xmedia_u32 *slave_addr) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(slave_addr); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); *slave_addr = mis40h1_ctx->i2c_addr; return XMEDIA_SUCCESS; } static xmedia_s32 ctx_dcg_check(xmedia_u32 dev, xmedia_u8 *dcg_data) { xmedia_u32 reg0x2003; mis40h1_read_reg(dev, 0x2003, ®0x2003); if (reg0x2003 == 0 || reg0x2003 == 0xFF) { *dcg_data = SENSOR_LCG_TO_HCG; return XMEDIA_SUCCESS; } *dcg_data = (reg0x2003 & 0x0f) * 10; mis40h1_read_reg(dev, 0x2004, ®0x2003); *dcg_data += ((reg0x2003 & 0xfc) >> 2); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_init(xmedia_u32 dev, xmedia_sensor_init_mode init_mode) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); mis40h1_ctx->init_mode = init_mode; ret = mis40h1_i2c_init(dev, mis40h1_ctx->bus_info.i2c_dev, mis40h1_ctx->i2c_addr); SENSOR_CHECK_RET_RETURN(ret); ctx_dcg_check(dev, &g_dcg_data); mis40h1_ctx->init = XMEDIA_TRUE; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_exit(xmedia_u32 dev) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); ret = mis40h1_i2c_exit(dev); SENSOR_CHECK_RET_RETURN(ret); mis40h1_ctx->init = XMEDIA_FALSE; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_mirror(xmedia_u32 dev, xmedia_bool mirror_en) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); mis40h1_ctx->mirror_en = mirror_en; ret = mis40h1_set_mirror_flip(dev, mirror_en, mis40h1_ctx->flip_en); SENSOR_CHECK_RET_RETURN(ret); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_flip(xmedia_u32 dev, xmedia_bool flip_en) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); mis40h1_ctx->flip_en = flip_en; ret = mis40h1_set_mirror_flip(dev, mis40h1_ctx->mirror_en, flip_en); SENSOR_CHECK_RET_RETURN(ret); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_set_image_mode(sensor_context *mis40h1_ctx, xmedia_u8 *image_mode, const xmedia_sensor_attr *sns_attr) { SENSOR_CHECK_PTR_RETURN(image_mode); if (mis40h1_ctx->wdr_mode == XMEDIA_VIDEO_WDR_MODE_NONE) { if (MIS40H1_RES_IS_1520P(sns_attr->width, sns_attr->height)) { *image_mode = MIS40H1_4M_1520_10BIT_LINEAR_MODE; mis40h1_ctx->fl_std = MIS40H1_VMAX_4M_1520_LINEAR; } else { MIS40H1_ERR_MODE_PRINT(sns_attr); return XMEDIA_ERRCODE_NOT_SUPPORT; } } else { MIS40H1_ERR_MODE_PRINT(sns_attr); return XMEDIA_ERRCODE_NOT_SUPPORT; } mis40h1_ctx->size.width = sns_attr->width; mis40h1_ctx->size.height = sns_attr->height; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_set_wdr_mode(xmedia_u32 dev, xmedia_u8 wdr_mode) { sensor_context *mis40h1_ctx = XMEDIA_NULL; MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); switch (wdr_mode) { case XMEDIA_VIDEO_WDR_MODE_NONE: mis40h1_ctx->wdr_mode = XMEDIA_VIDEO_WDR_MODE_NONE; SENSOR_PRINT("linear mode\n"); break; default: SENSOR_TRACE(MODULE_DBG_ERR, "NOT support this mode!\n"); return XMEDIA_ERRCODE_NOT_SUPPORT; } memset(mis40h1_ctx->wdr_int_time, 0, sizeof(mis40h1_ctx->wdr_int_time)); return XMEDIA_SUCCESS; } #define MIS40H1_LINEAR_REG_INFO_MAX_NUM MIS40H1_REG_MAX_NUM static xmedia_void mis40h1_init_common_reg_info(sensor_context *mis40h1_ctx) { mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_EXP_H].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_EXP_H].reg_addr = MIS40H1_REG_ADDR_EXP_H; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_EXP_L].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_EXP_L].reg_addr = MIS40H1_REG_ADDR_EXP_L; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_AGAIN_H].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_AGAIN_H].reg_addr = MIS40H1_REG_ADDR_AGAIN_H; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_AGAIN_L].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_AGAIN_L].reg_addr = MIS40H1_REG_ADDR_AGAIN_L; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_H].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_H].reg_addr = MIS40H1_REG_ADDR_VMAX_H; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_L].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_L].reg_addr = MIS40H1_REG_ADDR_VMAX_L; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_NUM1].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_NUM1].reg_addr = MIS40H1_REG_ADDR_NUM1; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_DGAIN_H].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_DGAIN_H].reg_addr = MIS40H1_REG_ADDR_DGAIN_H; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_DGAIN_L].delay_frame_num = 2; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_DGAIN_L].reg_addr = MIS40H1_REG_ADDR_DGAIN_L; return; } static xmedia_s32 mis40h1_init_reg_info(xmedia_u32 dev) { xmedia_u32 i; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].com_bus.i2c_dev = mis40h1_ctx->bus_info.i2c_dev; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].cfg_to_valid_delay_max = 2; // maximum delay valid frames mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].reg_num = MIS40H1_LINEAR_REG_INFO_MAX_NUM; for (i = 0; i < mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].reg_num; i++) { mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].update = XMEDIA_TRUE; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].dev_addr = mis40h1_ctx->i2c_addr; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].addr_byte_num = MIS40H1_ADDR_BYTE; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].data_byte_num = MIS40H1_DATA_BYTE; } // init general register - The registers should init both in linear and 2to1 wdr mode mis40h1_init_common_reg_info(mis40h1_ctx); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_set_attr(xmedia_u32 dev, const xmedia_sensor_attr *sns_attr) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(sns_attr); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); // Set wdr mode ret = mis40h1_set_wdr_mode(dev, sns_attr->wdr_mode); SENSOR_CHECK_RET_RETURN(ret); // Set image mode ret = mis40h1_set_image_mode(mis40h1_ctx, &mis40h1_ctx->img_mode, sns_attr); SENSOR_CHECK_RET_RETURN(ret); mis40h1_ctx->fl[SENSOR_CUR_FRAME] = mis40h1_ctx->fl_std; mis40h1_ctx->fl[SENSOR_PRE_FRAME] = mis40h1_ctx->fl[SENSOR_CUR_FRAME]; ret = mis40h1_init_reg_info(dev); SENSOR_CHECK_RET_RETURN(ret); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_isp_default(xmedia_u32 dev, xmedia_sensor_isp_default *isp_default) { SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(isp_default); memset(isp_default, 0, sizeof(xmedia_sensor_isp_default)); #ifdef MIS40H1_ISP_DEFAULT_SUPPORT // TO-DO: alg add param isp_default->blc = &g_mis40h1_blc_attr; isp_default->bnr = &g_mis40h1_bnr; isp_default->clut_attr = &g_mis40h1_clut_attr; isp_default->crosstalk = XMEDIA_NULL; isp_default->csc = XMEDIA_NULL; isp_default->dehaze = &g_mis40h1_dehaze_attr; isp_default->demosaic = &g_mis40h1_demosaic_attr; isp_default->dpc_dynamic = XMEDIA_NULL; isp_default->dpc_static = XMEDIA_NULL; isp_default->drc = XMEDIA_NULL; isp_default->expander = XMEDIA_NULL; isp_default->fpn = XMEDIA_NULL; isp_default->gamma = &g_mis40h1_gamma_attr; isp_default->gcac = XMEDIA_NULL; isp_default->hlc = XMEDIA_NULL; isp_default->lce = &g_mis40h1_lce_attr; isp_default->mlsc_attr = XMEDIA_NULL; isp_default->mlsc_lut = XMEDIA_NULL; isp_default->radial_crop = XMEDIA_NULL; isp_default->rgbir = XMEDIA_NULL; isp_default->rlsc_attr = XMEDIA_NULL; isp_default->rlsc_lut = XMEDIA_NULL; isp_default->sharpen = XMEDIA_NULL; isp_default->stnr = XMEDIA_NULL; isp_default->wdr = XMEDIA_NULL; return XMEDIA_SUCCESS; #else SENSOR_TRACE(MODULE_DBG_WARN, "Not support isp getting default param from mis40h1!\n "); return XMEDIA_ERRCODE_NOT_SUPPORT; #endif } static xmedia_s32 mis40h1_get_isp_black_level(xmedia_u32 dev, xmedia_sensor_black_level *black_level) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(black_level); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); // Don't need to update black level when iso change black_level->update = XMEDIA_FALSE; if (mis40h1_ctx->wdr_mode == XMEDIA_VIDEO_WDR_MODE_NONE) { black_level->black_level[XMEDIA_SENSOR_BAYER_CHN_R] = 252; black_level->black_level[XMEDIA_SENSOR_BAYER_CHN_GR] = 252; black_level->black_level[XMEDIA_SENSOR_BAYER_CHN_GB] = 252; black_level->black_level[XMEDIA_SENSOR_BAYER_CHN_B] = 252; } return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_bayer_pattern(xmedia_u32 dev, xmedia_video_bayer_format *bayer_pattern) { xmedia_u8 i; xmedia_sensor_mirror_flip_type type; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(bayer_pattern); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); if (mis40h1_ctx->mirror_en && mis40h1_ctx->flip_en) { type = XMEDIA_SENSOR_MIRROR_FLIP_TYPE_MIRROR_FLIP; } else if (mis40h1_ctx->mirror_en && (!mis40h1_ctx->flip_en)) { type = XMEDIA_SENSOR_MIRROR_FLIP_TYPE_MIRROR; } else if ((!mis40h1_ctx->mirror_en) && mis40h1_ctx->flip_en) { type = XMEDIA_SENSOR_MIRROR_FLIP_TYPE_FLIP; } else { type = XMEDIA_SENSOR_MIRROR_FLIP_TYPE_NORMAL; } for (i = 0; i < MIS40H1_SPECS_MAX_NUM; i++) { if (g_mis40h1_property[i].width == mis40h1_ctx->size.width && g_mis40h1_property[i].height == mis40h1_ctx->size.height && g_mis40h1_property[i].wdr_mode == mis40h1_ctx->wdr_mode) { *bayer_pattern = g_mis40h1_property[i].bayer_format[type]; break; } } if (i >= MIS40H1_SPECS_MAX_NUM) { *bayer_pattern = XMEDIA_VIDEO_BAYER_MAX; SENSOR_TRACE(MODULE_DBG_ERR, "ERR! Get bayer pattern failed!\n"); return XMEDIA_ERRCODE_NOT_SUPPORT; } return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_capability(xmedia_sensor_capability *capability) { SENSOR_CHECK_PTR_RETURN(capability); memcpy(capability, &g_mis40h1_capability, sizeof(xmedia_sensor_capability)); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_set_ae_wdr_attr(xmedia_u32 dev, xmedia_isp_ae_wdr_mode ae_wdr_mode) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); if (ae_wdr_mode >= XMEDIA_ISP_AE_WDR_MODE_MAX) { SENSOR_TRACE(MODULE_DBG_ERR, "Not supported AE wdr mode!\n"); return XMEDIA_ERRCODE_NOT_SUPPORT; } mis40h1_ctx->ae_wdr_mode = ae_wdr_mode; return XMEDIA_SUCCESS; } // 用户期望第一帧生效的参数,且AE/AWB头几帧计算的基础 static xmedia_s32 mis40h1_set_init_param(xmedia_u32 dev, const xmedia_sensor_init_param *init_param) { SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(init_param); g_mis40h1_exposure[dev] = init_param->exposure; g_mis40h1_sample_r_gain[dev] = init_param->sample_rgain; g_mis40h1_sample_b_gain[dev] = init_param->sample_bgain; g_mis40h1_wb_gain[dev][SENSOR_AWB_CHN_GIAN_R] = init_param->wb_rgain; g_mis40h1_wb_gain[dev][SENSOR_AWB_CHN_GIAN_G] = init_param->wb_ggain; g_mis40h1_wb_gain[dev][SENSOR_AWB_CHN_GIAN_B] = init_param->wb_bgain; return XMEDIA_SUCCESS; } xmedia_s32 mis40h1_get_max_fps(xmedia_u8 img_mode, xmedia_float *max_fps) { switch (img_mode) { case MIS40H1_4M_1520_10BIT_LINEAR_MODE: *max_fps = 30.0; break; default: SENSOR_TRACE(MODULE_DBG_ERR, "Not support img mode: %d\n", img_mode); return XMEDIA_ERRCODE_NOT_SUPPORT; } return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_ae_common_default(xmedia_u32 dev, sensor_context *sns_ctx, xmedia_isp_ae_sensor_default *ae_sns_dft) { xmedia_s32 ret; xmedia_float max_fps; ret = mis40h1_get_max_fps(sns_ctx->img_mode, &max_fps); SENSOR_CHECK_RET_RETURN(ret); ae_sns_dft->full_lines_std = sns_ctx->fl_std; ae_sns_dft->flicker_freq = 50 * 256; ae_sns_dft->full_lines_max = MIS40H1_FULL_LINES_MAX; ae_sns_dft->again_accu.accu_type = XMEDIA_ISP_AE_ACCURACY_TYPE_LINEAR; ae_sns_dft->again_accu.accuracy = 0.0009765625; // 1 / 1024 ae_sns_dft->dgain_accu.accu_type = XMEDIA_ISP_AE_ACCURACY_TYPE_LINEAR; ae_sns_dft->dgain_accu.accuracy = 0.015625; // 1/64 ae_sns_dft->ispdgain_shift = 8; ae_sns_dft->min_ispdgain_target = 1 << ae_sns_dft->ispdgain_shift; ae_sns_dft->max_ispdgain_target = 32 << ae_sns_dft->ispdgain_shift; ae_sns_dft->ispdgain_sep_thd = 16 << ae_sns_dft->ispdgain_shift; ae_sns_dft->max_iris_f_no = XMEDIA_ISP_IRIS_F_NO_1_0; ae_sns_dft->min_iris_f_no = XMEDIA_ISP_IRIS_F_NO_32_0; ae_sns_dft->ae_route_ex_valid = XMEDIA_FALSE; ae_sns_dft->ae_route_attr.total_num = 0; ae_sns_dft->ae_ext_route_attr.total_num = 0; // lines per second: VTS * max_fps ae_sns_dft->lines_per_500ms = (sns_ctx->fl_std * max_fps) / 2; ae_sns_dft->man_ratio_enable = XMEDIA_FALSE; SENSOR_PRINT("man_ratio_enable: %d,\n", ae_sns_dft->man_ratio_enable); return XMEDIA_SUCCESS; } static xmedia_void mis40h1_get_ae_linear_default(xmedia_u32 dev, sensor_context *sns_ctx, xmedia_isp_ae_sensor_default *ae_sns_dft) { ae_sns_dft->int_time_accu.accu_type = XMEDIA_ISP_AE_ACCURACY_TYPE_LINEAR; ae_sns_dft->int_time_accu.accuracy = 1; ae_sns_dft->int_time_accu.offset = 0; ae_sns_dft->max_again = MIS40H1_AGAIN_MAX * 8.5; ae_sns_dft->min_again = MIS40H1_AGAIN_MIN; ae_sns_dft->max_again_target = ae_sns_dft->max_again; ae_sns_dft->min_again_target = ae_sns_dft->min_again; ae_sns_dft->max_dgain = 64; /* if Dgain enable,please set ispdgain bigger than 1 */ ae_sns_dft->min_dgain = 64; ae_sns_dft->max_dgain_target = ae_sns_dft->max_dgain; ae_sns_dft->min_dgain_target = ae_sns_dft->min_dgain; ae_sns_dft->ae_compensation = 0x40; ae_sns_dft->ae_exp_mode = XMEDIA_ISP_AE_STRATEGY_EXP_HIGHLIGHT_PRIOR; ae_sns_dft->init_exposure = g_mis40h1_exposure[dev] ? g_mis40h1_exposure[dev] : 148859; ae_sns_dft->max_int_time = sns_ctx->fl_std - MIS40H1_EXP_OFFSET_LINEAR; ae_sns_dft->min_int_time = 1; ae_sns_dft->max_int_time_target = 65535; ae_sns_dft->min_int_time_target = 1; return; } static xmedia_s32 mis40h1_get_ae_default(xmedia_u32 dev, xmedia_isp_ae_sensor_default *ae_sns_dft) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(ae_sns_dft); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); memset(&ae_sns_dft->ae_route_attr, 0, sizeof(xmedia_isp_ae_route)); ret = mis40h1_get_ae_common_default(dev, mis40h1_ctx, ae_sns_dft); SENSOR_CHECK_RET_RETURN(ret); switch (mis40h1_ctx->wdr_mode) { case XMEDIA_VIDEO_WDR_MODE_NONE: mis40h1_get_ae_linear_default(dev, mis40h1_ctx, ae_sns_dft); break; default: SENSOR_TRACE(MODULE_DBG_ERR, "No support %d ! \n", mis40h1_ctx->wdr_mode); return XMEDIA_ERRCODE_NOT_SUPPORT; } return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_update_inttime(xmedia_u32 dev, xmedia_u32 int_time) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); int_time = (int_time > MIS40H1_FULL_LINES_MAX) ? MIS40H1_FULL_LINES_MAX : int_time; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_EXP_H].data = SENSOR_HIGH_8BITS(int_time); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_EXP_L].data = SENSOR_LOW_8BITS(int_time); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_NUM1].data = 1; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_calc_again(xmedia_u32 dev, xmedia_u32 *again_lin, xmedia_u32 *again_db) { SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(again_lin); SENSOR_CHECK_PTR_RETURN(again_db); *again_db = *again_lin; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_calc_dgain(xmedia_u32 dev, xmedia_u32 *dgain_lin, xmedia_u32 *dgain_db) { return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_update_gains(xmedia_u32 dev, xmedia_u32 again, xmedia_u32 dgain) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); static xmedia_u32 again1 = 0, dgain1 = 0x100; if (again < 1024) { again = 1024; } else if (again > MIS40H1_MAX_GAIN ) { again = MIS40H1_MAX_GAIN; } if (again < (g_dcg_data) * 1024 / 10) { mis40h1_write_reg(dev, 0x310c, 0x0); again1 = 1024 - (1024 << 10) / again; } else if(again > (g_dcg_data ) * 1024 / 10) { if (again > (g_dcg_data * MIS40H1_AGAIN_MAX / 10)) { dgain1 = again * 256 / (g_dcg_data * MIS40H1_AGAIN_MAX / 10); again1 = 992;//32倍对应寄存器的值 } else { again1 = 1024 - ((1024 << 10) * g_dcg_data ) / again / 10; dgain1 = 0x100; } mis40h1_write_reg(dev, 0x310c, 0x1); } dgain1 = 0x100; //默认配置为1倍 mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_DGAIN_H].data = ((dgain1 >> 8) & 0x3); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_DGAIN_L].data = SENSOR_LOW_8BITS(dgain1); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_AGAIN_H].data = ((again1 >> 8) & 0x3); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_AGAIN_L].data = SENSOR_LOW_8BITS(again1); return XMEDIA_SUCCESS; } // AWB static xmedia_s32 mis40h1_get_awb_default(xmedia_u32 dev, xmedia_isp_awb_sensor_default *awb_sns_dft) { sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(awb_sns_dft); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); memset(awb_sns_dft, 0, sizeof(xmedia_isp_awb_sensor_default)); awb_sns_dft->wb_ref_temp = MIS40H1_CALIBRATE_STATIC_TEMP; awb_sns_dft->gain_offset[XMEDIA_SENSOR_BAYER_CHN_R] = MIS40H1_CALIBRATE_STATIC_WB_R_GAIN; awb_sns_dft->gain_offset[XMEDIA_SENSOR_BAYER_CHN_GR] = MIS40H1_CALIBRATE_STATIC_WB_GR_GAIN; awb_sns_dft->gain_offset[XMEDIA_SENSOR_BAYER_CHN_GB] = MIS40H1_CALIBRATE_STATIC_WB_GB_GAIN; awb_sns_dft->gain_offset[XMEDIA_SENSOR_BAYER_CHN_B] = MIS40H1_CALIBRATE_STATIC_WB_B_GAIN; // 0 ~ 5: point index on the awb curve param awb_sns_dft->wb_para[0] = MIS40H1_CALIBRATE_AWB_P1; awb_sns_dft->wb_para[1] = MIS40H1_CALIBRATE_AWB_P2; awb_sns_dft->wb_para[2] = MIS40H1_CALIBRATE_AWB_Q1; awb_sns_dft->wb_para[3] = MIS40H1_CALIBRATE_AWB_A1; awb_sns_dft->wb_para[4] = MIS40H1_CALIBRATE_AWB_B1; awb_sns_dft->wb_para[5] = MIS40H1_CALIBRATE_AWB_C1; awb_sns_dft->golden_rgain = MIS40H1_GOLDEN_RGAIN; awb_sns_dft->golden_bgain = MIS40H1_GOLDEN_BGAIN; awb_sns_dft->awb_runinterval = 2; switch (mis40h1_ctx->wdr_mode) { case XMEDIA_VIDEO_WDR_MODE_NONE: memcpy(&awb_sns_dft->ccm, &g_mis40h1_awb_ccm, sizeof(xmedia_isp_awb_ccm)); memcpy(&awb_sns_dft->agc_tbl, &g_mis40h1_awb_agc_table, sizeof(xmedia_isp_awb_agc_table)); break; default: SENSOR_TRACE(MODULE_DBG_ERR, "No support %d ! \n", mis40h1_ctx->wdr_mode); return XMEDIA_ERRCODE_NOT_SUPPORT; } awb_sns_dft->init_rgain = g_mis40h1_wb_gain[dev][SENSOR_AWB_CHN_GIAN_R]; awb_sns_dft->init_ggain = g_mis40h1_wb_gain[dev][SENSOR_AWB_CHN_GIAN_G]; awb_sns_dft->init_bgain = g_mis40h1_wb_gain[dev][SENSOR_AWB_CHN_GIAN_B]; awb_sns_dft->sample_rgain = g_mis40h1_sample_r_gain[dev]; awb_sns_dft->sample_bgain = g_mis40h1_sample_b_gain[dev]; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_standby(xmedia_u32 dev) { return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_resume(xmedia_u32 dev) { return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_config_init_param(xmedia_u32 dev) { xmedia_u32 i; sensor_context *mis40h1_ctx = XMEDIA_NULL; xmedia_s32 ret = XMEDIA_SUCCESS; xmedia_u32 reg_data_sum = 0; MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); // exceptional process for AE unregister for (i = 0; i < mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].reg_num; i++) { reg_data_sum += mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].data; } if (reg_data_sum == 0) { return XMEDIA_SUCCESS; } for (i = 0; i < mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].reg_num; i++) { ret |= mis40h1_write_reg(dev, mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].reg_addr, mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].data); } if (ret != XMEDIA_SUCCESS) { SENSOR_TRACE(MODULE_DBG_ERR, "sensor dev[%d] config init param failed!\n", dev); } return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_start(xmedia_u32 dev) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); if (mis40h1_ctx->init_mode == XMEDIA_SENSOR_INIT_MODE_NORMAL) { ret = mis40h1_init_image(dev, mis40h1_ctx->img_mode, mis40h1_ctx->work_mode); SENSOR_CHECK_RET_RETURN(ret); } ret = mis40h1_config_init_param(dev); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_set_mirror_flip(dev, mis40h1_ctx->mirror_en, mis40h1_ctx->flip_en); SENSOR_CHECK_RET_RETURN(ret); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_stop(xmedia_u32 dev) { xmedia_s32 ret; SENSOR_CHECK_DEV_RETURN(dev); ret = mis40h1_standby(dev); SENSOR_CHECK_RET_RETURN(ret); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_search_dev(xmedia_u32 pipe, xmedia_u32 *dev) { xmedia_u32 index; SENSOR_CHECK_PTR_RETURN(dev); for (index = 0; index < XMEDIA_SENSOR_DEV_MAX_NUM; index++) { if (g_mis40h1_dev_map[index] == SENSOR_DEV_INVALID) { g_mis40h1_dev_map[index] = pipe; *dev = index; return XMEDIA_SUCCESS; } } SENSOR_TRACE(MODULE_DBG_ERR, "all sensor dev are registered!\n"); return XMEDIA_ERRCODE_BINDED; } static xmedia_s32 mis40h1_match_dev(xmedia_u32 pipe, xmedia_u32 *dev) { xmedia_u32 index; SENSOR_CHECK_PTR_RETURN(dev); for (index = 0; index < XMEDIA_SENSOR_DEV_MAX_NUM; index++) { if (g_mis40h1_dev_map[index] == pipe) { *dev = index; return XMEDIA_SUCCESS; } } SENSOR_TRACE(MODULE_DBG_ERR, "There is no sensor dev to match pipe[%d]!\n", pipe); return XMEDIA_ERRCODE_NOT_BIND; } static xmedia_s32 mis40h1_get_min_fps(xmedia_u8 img_mode, xmedia_float *min_fps) { // TO-DO:min fps is to be confirmed. switch (img_mode) { case MIS40H1_4M_1520_10BIT_LINEAR_MODE: *min_fps = 2.75; break; default: SENSOR_TRACE(MODULE_DBG_ERR, "Not support img mode: %d\n", img_mode); return XMEDIA_ERRCODE_NOT_SUPPORT; } return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_vmax(xmedia_u8 img_mode, xmedia_u32 *vmax) { switch (img_mode) { case MIS40H1_4M_1520_10BIT_LINEAR_MODE: *vmax = MIS40H1_VMAX_4M_1520_LINEAR; break; default: SENSOR_TRACE(MODULE_DBG_ERR, "Not support img mode: %d\n", img_mode); return XMEDIA_ERRCODE_NOT_SUPPORT; } return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_reg_info(xmedia_u32 dev, xmedia_sensor_regs_info *sns_regs_info) { xmedia_s32 i; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(sns_regs_info); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); for (i = 0; i < mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].reg_num; i++) { if (mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].data == mis40h1_ctx->regs_info[SENSOR_PRE_FRAME].i2c_data[i].data) { mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].update = XMEDIA_FALSE; } else { mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[i].update = XMEDIA_TRUE; } } mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_NUM1].update = XMEDIA_TRUE; memcpy(sns_regs_info, &mis40h1_ctx->regs_info[SENSOR_CUR_FRAME], sizeof(xmedia_sensor_regs_info)); memcpy(&mis40h1_ctx->regs_info[SENSOR_PRE_FRAME], &mis40h1_ctx->regs_info[SENSOR_CUR_FRAME], sizeof(xmedia_sensor_regs_info)); mis40h1_ctx->fl[SENSOR_PRE_FRAME] = mis40h1_ctx->fl[SENSOR_CUR_FRAME]; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_calc_fps(xmedia_float fps, sensor_context *sns_ctx, xmedia_u32 *full_lines) { xmedia_s32 ret; xmedia_float max_fps; xmedia_float min_fps; xmedia_u32 vmax; ret = mis40h1_get_max_fps(sns_ctx->img_mode, &max_fps); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_get_min_fps(sns_ctx->img_mode, &min_fps); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_get_vmax(sns_ctx->img_mode, &vmax); SENSOR_CHECK_RET_RETURN(ret); if ((fps > max_fps) || (fps < min_fps)) { SENSOR_TRACE(MODULE_DBG_ERR, "Not support Fps: %f, range of fps is (%f, %f]\n", fps, min_fps, max_fps); return XMEDIA_ERRCODE_NOT_SUPPORT; } *full_lines = vmax * max_fps / SENSOR_DIV_0_TO_1_FLOAT(fps); *full_lines = SENSOR_MIN(*full_lines, MIS40H1_FULL_LINES_MAX); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_set_fps(xmedia_u32 dev, xmedia_float fps, xmedia_isp_ae_sensor_default *ae_sns_dft) { xmedia_u32 full_lines; xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(ae_sns_dft); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); ret = mis40h1_calc_fps(fps, mis40h1_ctx, &full_lines); SENSOR_CHECK_RET_RETURN(ret); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_H].data = SENSOR_HIGH_8BITS(full_lines); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_L].data = SENSOR_LOW_8BITS(full_lines); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_NUM1].data = 1; mis40h1_ctx->fl[SENSOR_CUR_FRAME] = full_lines; mis40h1_ctx->fl_std = mis40h1_ctx->fl[SENSOR_CUR_FRAME]; mis40h1_ctx->fps = fps; ae_sns_dft->fps = fps; ae_sns_dft->full_lines_std = mis40h1_ctx->fl_std; ae_sns_dft->full_lines = mis40h1_ctx->fl_std; if (mis40h1_ctx->wdr_mode == XMEDIA_VIDEO_WDR_MODE_NONE) { ae_sns_dft->max_int_time = mis40h1_ctx->fl[SENSOR_CUR_FRAME] - MIS40H1_EXP_OFFSET_LINEAR; } SENSOR_PRINT("dev[%d]- mis40h1 set fps: %f\n", dev, fps); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_min_fps_vmax(xmedia_u8 img_mode, xmedia_u32 *vmax) { xmedia_float max_fps; xmedia_float min_fps; xmedia_u32 vmax_max_fps; xmedia_s32 ret; ret = mis40h1_get_max_fps(img_mode, &max_fps); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_get_min_fps(img_mode, &min_fps); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_get_vmax(img_mode, &vmax_max_fps); SENSOR_CHECK_RET_RETURN(ret); *vmax = vmax_max_fps * max_fps / min_fps; return XMEDIA_SUCCESS; } // line wdr模式下,根据AE期望曝光比,返回不同模式下长短帧的最大/最小曝光时间 static xmedia_s32 mis40h1_get_max_inttime(xmedia_u32 dev, xmedia_sensor_ae_inttime_attr *inttime_attr) { SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(inttime_attr); return XMEDIA_SUCCESS; } /* * 线性:full_lines, AE期望的曝光时间, VMAX = full_lines + EXP_OFFSET_LINEAR * 2TO1 WDR: full_lines, AE期望的长帧+短帧的曝光时间, VMAX = full_lines + EXP_OFFSET_WDR * 注意:2to1 wdr模式下,曝光比和ae wdr mode 由AE传入,调用本接口前,AE需先调用mis40h1_get_wdr_max_inttime */ static xmedia_s32 mis40h1_set_slow_framerate(xmedia_u32 dev, xmedia_u32 full_lines, xmedia_isp_ae_sensor_default *ae_sns_dft) { sensor_context *mis40h1_ctx = XMEDIA_NULL; xmedia_u32 vmax_min_fps; xmedia_s32 ret; xmedia_float min_fps; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(ae_sns_dft); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); if (mis40h1_ctx->work_mode != XMEDIA_SENSOR_WORK_MODE_NORMAL) { SENSOR_TRACE(MODULE_DBG_ERR, "work mode[%d] param invalid!\n", mis40h1_ctx->work_mode); return XMEDIA_ERRCODE_NOT_SUPPORT; } if (mis40h1_ctx->wdr_mode == XMEDIA_VIDEO_WDR_MODE_NONE) { full_lines = full_lines + MIS40H1_EXP_OFFSET_LINEAR; } ret = mis40h1_get_min_fps_vmax(mis40h1_ctx->img_mode, &vmax_min_fps); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_get_min_fps(mis40h1_ctx->img_mode, &min_fps); SENSOR_CHECK_RET_RETURN(ret); full_lines = (full_lines > vmax_min_fps) ? vmax_min_fps : full_lines; mis40h1_ctx->fl[SENSOR_CUR_FRAME] = full_lines; mis40h1_ctx->fps = min_fps * vmax_min_fps / full_lines; mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_H].data = SENSOR_HIGH_8BITS(full_lines); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_VMAX_L].data = SENSOR_LOW_8BITS(full_lines); mis40h1_ctx->regs_info[SENSOR_CUR_FRAME].i2c_data[MIS40H1_REG_NUM1].data = 1; ae_sns_dft->full_lines = mis40h1_ctx->fl[SENSOR_CUR_FRAME]; ae_sns_dft->max_int_time = mis40h1_ctx->fl[SENSOR_CUR_FRAME] - MIS40H1_EXP_OFFSET_LINEAR; SENSOR_PRINT("dev[%d]- mis40h1 set fps: %f\n", dev, mis40h1_ctx->fps); return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_get_fps(xmedia_u32 dev, xmedia_float *fps, xmedia_float *min_fps, xmedia_float *max_fps) { xmedia_s32 ret; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_DEV_RETURN(dev); SENSOR_CHECK_PTR_RETURN(fps); SENSOR_CHECK_PTR_RETURN(min_fps); SENSOR_CHECK_PTR_RETURN(max_fps); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); ret = mis40h1_get_min_fps(mis40h1_ctx->img_mode, min_fps); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_get_max_fps(mis40h1_ctx->img_mode, max_fps); SENSOR_CHECK_RET_RETURN(ret); *fps = mis40h1_ctx->fps; return XMEDIA_SUCCESS; } static xmedia_s32 mis40h1_init_register_func(xmedia_sensor_register_info *info) { SENSOR_CHECK_PTR_RETURN(info); memcpy(info->sensor_name, MIS40H1_NAME, sizeof(MIS40H1_NAME)); // Called by user info->isp_func.pfn_sensor_get_property = mis40h1_get_property; info->isp_func.pfn_sensor_set_work_mode = mis40h1_set_work_mode; info->isp_func.pfn_sensor_set_mipi_lanes = mis40h1_set_mipi_lanes; info->isp_func.pfn_sensor_mirror = mis40h1_mirror; info->isp_func.pfn_sensor_flip = mis40h1_flip; info->isp_func.pfn_sensor_set_bus_info = mis40h1_set_bus_info; info->isp_func.pfn_sensor_set_dev_addr = mis40h1_set_dev_addr; info->isp_func.pfn_sensor_set_init_param = mis40h1_set_init_param; info->isp_func.pfn_sensor_start = mis40h1_start; info->isp_func.pfn_sensor_stop = mis40h1_stop; info->isp_func.pfn_sensor_standby = mis40h1_standby; info->isp_func.pfn_sensor_resume = mis40h1_resume; info->isp_func.pfn_sensor_write_reg = mis40h1_write_reg; info->isp_func.pfn_sensor_read_reg = mis40h1_read_reg; info->isp_func.pfn_sensor_init = mis40h1_init; info->isp_func.pfn_sensor_exit = mis40h1_exit; info->isp_func.pfn_sensor_set_attr = mis40h1_set_attr; // called by ISP info->isp_func.pfn_sensor_get_isp_default = mis40h1_get_isp_default; info->isp_func.pfn_sensor_get_isp_black_level = mis40h1_get_isp_black_level; info->isp_func.pfn_sensor_get_reg_info = mis40h1_get_reg_info; info->isp_func.pfn_sensor_get_bayer_pattern = mis40h1_get_bayer_pattern; info->isp_func.pfn_sensor_get_capability = mis40h1_get_capability; info->isp_func.pfn_sensor_get_dev_addr = mis40h1_get_dev_addr; info->isp_func.pfn_sensor_get_fps = mis40h1_get_fps; // AE info->ae_func.pfn_sensor_get_ae_default = mis40h1_get_ae_default; info->ae_func.pfn_sensor_set_fps = mis40h1_set_fps; info->ae_func.pfn_sensor_set_slow_framerate = mis40h1_set_slow_framerate; info->ae_func.pfn_sensor_get_max_inttime = mis40h1_get_max_inttime; info->ae_func.pfn_sensor_update_inttime = mis40h1_update_inttime; info->ae_func.pfn_sensor_calc_again = mis40h1_calc_again; info->ae_func.pfn_sensor_calc_dgain = mis40h1_calc_dgain; info->ae_func.pfn_sensor_update_gains = mis40h1_update_gains; info->ae_func.pfn_sensor_set_ae_wdr_attr = mis40h1_set_ae_wdr_attr; // AWB info->awb_func.pfn_sensor_get_awb_default = mis40h1_get_awb_default; return XMEDIA_SUCCESS; } xmedia_s32 mis40h1_register(xmedia_u32 pipe) { xmedia_s32 ret; xmedia_u32 dev; xmedia_sensor_register_info info; SENSOR_CHECK_PIPE_RETURN(pipe); ret = mis40h1_search_dev(pipe, &dev); SENSOR_CHECK_RET_RETURN(ret); ret = mis40h1_ctx_init(dev); SENSOR_CHECK_RET_RETURN(ret); memset(&info, 0, sizeof(xmedia_sensor_register_info)); info.dev_id = dev; ret = mis40h1_init_register_func(&info); SENSOR_CHECK_RET_RETURN(ret); ret = xmedia_isp_register_sensor(pipe, &info); if (ret != XMEDIA_SUCCESS) { SENSOR_TRACE(MODULE_DBG_ERR, "MIS40H1 register failed! error code = %d.\n", ret); return ret; } return XMEDIA_SUCCESS; } xmedia_s32 mis40h1_unregister(xmedia_u32 pipe) { xmedia_s32 ret; xmedia_u32 dev; sensor_context *mis40h1_ctx = XMEDIA_NULL; SENSOR_CHECK_PIPE_RETURN(pipe); ret = mis40h1_match_dev(pipe, &dev); SENSOR_CHECK_RET_RETURN(ret); MIS40H1_GET_CTX(dev, mis40h1_ctx); SENSOR_CHECK_PTR_RETURN(mis40h1_ctx); if (mis40h1_ctx->init == XMEDIA_TRUE) { SENSOR_PRINT("Operation not allowed, please EXIT at first!\n"); return XMEDIA_ERRCODE_NOT_PERMITTED; } ret = xmedia_isp_unregister_sensor(pipe, dev); if (ret != XMEDIA_SUCCESS) { SENSOR_TRACE(MODULE_DBG_ERR, "MIS40H1 unregister function failed!\n"); return ret; } mis40h1_ctx_exit(dev); g_mis40h1_dev_map[dev] = SENSOR_DEV_INVALID; return XMEDIA_SUCCESS; }