#include "typesdef.h" #include "list.h" #include "errno.h" #include "dev.h" #include "devid.h" #include "hal/dual_org.h" int32 dual_init(struct dual_device *p_dual) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->init) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->init(p_dual); } return RET_ERR; } int32 dual_deinit(struct dual_device *p_dual) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->deinit) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->deinit(p_dual); } return RET_ERR; } int32 dual_open(struct dual_device *p_dual) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->open) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->open(p_dual); } return RET_ERR; } int32 dual_close(struct dual_device *p_dual) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->close) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->close(p_dual); } return RET_ERR; } int32 dual_request_irq(struct dual_device *p_dual, uint32 irq_flags, dual_irq_hdl irq_hdl, uint32 irq_data) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->request_irq) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->request_irq(p_dual, irq_flags, irq_hdl, irq_data); } return RET_ERR; } int32 dual_release_irq(struct dual_device *p_dual, uint32 irq_flags) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->release_irq) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->release_irq(p_dual, irq_flags); } return RET_ERR; } int32 dual_input_type(struct dual_device *p_dual,uint8 src,uint8 type){ if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_INPUT_TYPE, src, type); } return RET_ERR; } //0:WR0/1 + RD0/1 //1:WR0 //2:WR1 //3:RD0 //4:RD1 int32 dual_work_mode(struct dual_device *p_dual,uint8 mode){ if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_WORK_MODE, mode, 0); } return RET_ERR; } int32 dual_input_src_num(struct dual_device *p_dual,uint8 num){ if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_INPUT_NUM, num, 0); } return RET_ERR; } int32 dual_open_hdr(struct dual_device *p_dual,uint8 en){ if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_OPEN_HDR, en, 0); } return RET_ERR; } int32 dual_timer_cfg(struct dual_device *p_dual,uint32_t fs_clk_num,uint32_t hs_timer,uint32_t vs_timer){ uint32_t time_buf[3]; if(hs_timer == 1){ time_buf[0] = fs_clk_num/4; time_buf[1] = 15; //sys_240MHz, 1us/per_15 time_buf[2] = 256; }else{ time_buf[0] = fs_clk_num/4; time_buf[1] = hs_timer*(DEFAULT_SYS_CLK/1000000)/16; time_buf[2] = vs_timer*(DEFAULT_SYS_CLK/1000000)/256; } if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_TIMER_CFG, (uint32)time_buf, 0); } return RET_ERR; } int32 dual_size_cfg(struct dual_device *p_dual,uint32_t src0_w,uint32_t src1_w,uint32_t src0_raw_num,uint32_t src1_raw_num){ uint32_t cfgbuf[4]; cfgbuf[0] = src0_w; cfgbuf[1] = src1_w; cfgbuf[2] = src0_raw_num; cfgbuf[3] = src1_raw_num; if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_SIZE_CFG, (uint32)cfgbuf, 0); } return RET_ERR; } int32 dual_fs_trig(struct dual_device *p_dual,uint32 fs_trig_num){ if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_FS_TRIG, fs_trig_num, 0); } return RET_ERR; } int32 dual_rd_trig(struct dual_device *p_dual,uint32 rd0_trig,uint32 rd1_trig){ if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_RD_TRIG, rd0_trig, rd1_trig); } return RET_ERR; } int32 dual_wr_cnt_cfg(struct dual_device *p_dual,uint32 src0_w,uint32 src0_h,uint32 src1_w,uint32 src1_h,uint32 src0_raw_num,uint32 src1_raw_num){ uint32_t cfgbuf[6]; cfgbuf[0] = src0_w; cfgbuf[1] = src0_h; cfgbuf[2] = src1_w; cfgbuf[3] = src1_h; cfgbuf[4] = src0_raw_num; cfgbuf[5] = src1_raw_num; if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_WR_CNT_CFG, (uint32)cfgbuf, 0); } return RET_ERR; } int32 dual_set_addr(struct dual_device *p_dual,uint32 psram_Src0,uint32 psram_Src1){ if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SET_PSRAM_ADDR, psram_Src0, psram_Src1); } return RET_ERR; } int32 dual_save_cfg(struct dual_device *p_dual, uint32 channel, uint32 img_size) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SAVE_CFG, channel, img_size); } return RET_ERR; } int32 dual_recover_cfg(struct dual_device *p_dual) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_RECOVER_CFG, 0, 0); } return RET_ERR; } int32 dual_save_status(struct dual_device *p_dual) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_SAVE_STA, 0, 0); } return RET_ERR; } int32 dual_kick_read(struct dual_device *p_dual) { if (p_dual && ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl) { return ((const struct dual_hal_ops *)p_dual->dev.ops)->ioctl(p_dual, DUAL_IOCTL_KICK_READ, 0, 0); } return RET_ERR; }