Move camerad to system/ (#24836)

* mv camerad

* add hardware symlink

* fix unit tests
old-commit-hash: 6123ab3d1c
This commit is contained in:
Adeeb Shihadeh
2022-06-19 14:43:49 -07:00
committed by GitHub
parent 61e4dc0552
commit d9d83b0225
61 changed files with 53 additions and 52 deletions
+23
View File
@@ -0,0 +1,23 @@
Import('env', 'arch', 'cereal', 'messaging', 'common', 'gpucommon', 'visionipc', 'USE_WEBCAM')
libs = ['m', 'pthread', common, 'jpeg', 'OpenCL', 'yuv', cereal, messaging, 'zmq', 'capnp', 'kj', visionipc, gpucommon]
cameras = []
if arch == "larch64":
libs += ['atomic']
cameras = ['cameras/camera_qcom2.cc']
env.Program('camerad', [
'main.cc',
'cameras/camera_common.cc',
'transforms/rgb_to_yuv.cc',
'imgproc/utils.cc',
cameras,
], LIBS=libs)
if GetOption("test"):
env.Program('test/ae_gray_test', [
'test/ae_gray_test.cc',
'cameras/camera_common.cc',
'transforms/rgb_to_yuv.cc',
], LIBS=libs)
View File
+417
View File
@@ -0,0 +1,417 @@
#include "system/camerad/cameras/camera_common.h"
#include <unistd.h>
#include <cassert>
#include <cstdio>
#include <chrono>
#include <thread>
#include "libyuv.h"
#include <jpeglib.h>
#include "system/camerad/imgproc/utils.h"
#include "common/clutil.h"
#include "common/modeldata.h"
#include "common/swaglog.h"
#include "common/util.h"
#include "system/hardware/hw.h"
#include "msm_media_info.h"
#ifdef QCOM2
#include "CL/cl_ext_qcom.h"
#include "system/camerad/cameras/camera_qcom2.h"
#else
#include "system/camerad/test/camera_test.h"
#endif
ExitHandler do_exit;
class Debayer {
public:
Debayer(cl_device_id device_id, cl_context context, const CameraBuf *b, const CameraState *s, int buf_width, int uv_offset) {
char args[4096];
const CameraInfo *ci = &s->ci;
hdr_ = ci->hdr;
snprintf(args, sizeof(args),
"-cl-fast-relaxed-math -cl-denorms-are-zero "
"-DFRAME_WIDTH=%d -DFRAME_HEIGHT=%d -DFRAME_STRIDE=%d -DFRAME_OFFSET=%d "
"-DRGB_WIDTH=%d -DRGB_HEIGHT=%d -DRGB_STRIDE=%d -DYUV_STRIDE=%d -DUV_OFFSET=%d "
"-DBAYER_FLIP=%d -DHDR=%d -DCAM_NUM=%d%s",
ci->frame_width, ci->frame_height, ci->frame_stride, ci->frame_offset,
b->rgb_width, b->rgb_height, b->rgb_stride, buf_width, uv_offset,
ci->bayer_flip, ci->hdr, s->camera_num, s->camera_num==1 ? " -DVIGNETTING" : "");
const char *cl_file = "cameras/real_debayer.cl";
cl_program prg_debayer = cl_program_from_file(context, device_id, cl_file, args);
krnl_ = CL_CHECK_ERR(clCreateKernel(prg_debayer, "debayer10", &err));
CL_CHECK(clReleaseProgram(prg_debayer));
}
void queue(cl_command_queue q, cl_mem cam_buf_cl, cl_mem buf_cl, int width, int height, cl_event *debayer_event) {
CL_CHECK(clSetKernelArg(krnl_, 0, sizeof(cl_mem), &cam_buf_cl));
CL_CHECK(clSetKernelArg(krnl_, 1, sizeof(cl_mem), &buf_cl));
const size_t globalWorkSize[] = {size_t(width / 2), size_t(height / 2)};
const int debayer_local_worksize = 16;
const size_t localWorkSize[] = {debayer_local_worksize, debayer_local_worksize};
CL_CHECK(clEnqueueNDRangeKernel(q, krnl_, 2, NULL, globalWorkSize, localWorkSize, 0, 0, debayer_event));
}
~Debayer() {
CL_CHECK(clReleaseKernel(krnl_));
}
private:
cl_kernel krnl_;
bool hdr_;
};
void CameraBuf::init(cl_device_id device_id, cl_context context, CameraState *s, VisionIpcServer * v, int frame_cnt, VisionStreamType init_rgb_type, VisionStreamType init_yuv_type, release_cb init_release_callback) {
vipc_server = v;
this->rgb_type = init_rgb_type;
this->yuv_type = init_yuv_type;
this->release_callback = init_release_callback;
const CameraInfo *ci = &s->ci;
camera_state = s;
frame_buf_count = frame_cnt;
// RAW frame
const int frame_size = (ci->frame_height + ci->extra_height) * ci->frame_stride;
camera_bufs = std::make_unique<VisionBuf[]>(frame_buf_count);
camera_bufs_metadata = std::make_unique<FrameMetadata[]>(frame_buf_count);
for (int i = 0; i < frame_buf_count; i++) {
camera_bufs[i].allocate(frame_size);
camera_bufs[i].init_cl(device_id, context);
}
LOGD("allocated %d CL buffers", frame_buf_count);
rgb_width = ci->frame_width;
rgb_height = ci->frame_height;
yuv_transform = get_model_yuv_transform(ci->bayer);
vipc_server->create_buffers(rgb_type, UI_BUF_COUNT, true, rgb_width, rgb_height);
rgb_stride = vipc_server->get_buffer(rgb_type)->stride;
LOGD("created %d UI vipc buffers with size %dx%d", UI_BUF_COUNT, rgb_width, rgb_height);
int nv12_width = VENUS_Y_STRIDE(COLOR_FMT_NV12, rgb_width);
int nv12_height = VENUS_Y_SCANLINES(COLOR_FMT_NV12, rgb_height);
assert(nv12_width == VENUS_UV_STRIDE(COLOR_FMT_NV12, rgb_width));
assert(nv12_height/2 == VENUS_UV_SCANLINES(COLOR_FMT_NV12, rgb_height));
size_t nv12_size = 2346 * nv12_width; // comes from v4l2_format.fmt.pix_mp.plane_fmt[0].sizeimage
size_t nv12_uv_offset = nv12_width * nv12_height;
vipc_server->create_buffers_with_sizes(yuv_type, YUV_BUFFER_COUNT, false, rgb_width, rgb_height, nv12_size, nv12_width, nv12_uv_offset);
LOGD("created %d YUV vipc buffers with size %dx%d", YUV_BUFFER_COUNT, nv12_width, nv12_height);
if (ci->bayer) {
debayer = new Debayer(device_id, context, this, s, nv12_width, nv12_uv_offset);
}
rgb2yuv = std::make_unique<Rgb2Yuv>(context, device_id, rgb_width, rgb_height, rgb_stride);
#ifdef __APPLE__
q = CL_CHECK_ERR(clCreateCommandQueue(context, device_id, 0, &err));
#else
const cl_queue_properties props[] = {0}; //CL_QUEUE_PRIORITY_KHR, CL_QUEUE_PRIORITY_HIGH_KHR, 0};
q = CL_CHECK_ERR(clCreateCommandQueueWithProperties(context, device_id, props, &err));
#endif
}
CameraBuf::~CameraBuf() {
for (int i = 0; i < frame_buf_count; i++) {
camera_bufs[i].free();
}
if (debayer) delete debayer;
if (q) CL_CHECK(clReleaseCommandQueue(q));
}
bool CameraBuf::acquire() {
if (!safe_queue.try_pop(cur_buf_idx, 1)) return false;
if (camera_bufs_metadata[cur_buf_idx].frame_id == -1) {
LOGE("no frame data? wtf");
release();
return false;
}
cur_frame_data = camera_bufs_metadata[cur_buf_idx];
cur_rgb_buf = vipc_server->get_buffer(rgb_type);
cur_yuv_buf = vipc_server->get_buffer(yuv_type);
cl_mem camrabuf_cl = camera_bufs[cur_buf_idx].buf_cl;
cl_event event;
double start_time = millis_since_boot();
cur_camera_buf = &camera_bufs[cur_buf_idx];
if (debayer) {
debayer->queue(q, camrabuf_cl, cur_yuv_buf->buf_cl, rgb_width, rgb_height, &event);
} else {
assert(rgb_stride == camera_state->ci.frame_stride);
rgb2yuv->queue(q, camrabuf_cl, cur_rgb_buf->buf_cl);
}
clWaitForEvents(1, &event);
CL_CHECK(clReleaseEvent(event));
cur_frame_data.processing_time = (millis_since_boot() - start_time) / 1000.0;
VisionIpcBufExtra extra = {
cur_frame_data.frame_id,
cur_frame_data.timestamp_sof,
cur_frame_data.timestamp_eof,
};
cur_yuv_buf->set_frame_id(cur_frame_data.frame_id);
vipc_server->send(cur_yuv_buf, &extra);
return true;
}
void CameraBuf::release() {
if (release_callback) {
release_callback((void*)camera_state, cur_buf_idx);
}
}
void CameraBuf::queue(size_t buf_idx) {
safe_queue.push(buf_idx);
}
// common functions
void fill_frame_data(cereal::FrameData::Builder &framed, const FrameMetadata &frame_data) {
framed.setFrameId(frame_data.frame_id);
framed.setTimestampEof(frame_data.timestamp_eof);
framed.setTimestampSof(frame_data.timestamp_sof);
framed.setFrameLength(frame_data.frame_length);
framed.setIntegLines(frame_data.integ_lines);
framed.setGain(frame_data.gain);
framed.setHighConversionGain(frame_data.high_conversion_gain);
framed.setMeasuredGreyFraction(frame_data.measured_grey_fraction);
framed.setTargetGreyFraction(frame_data.target_grey_fraction);
framed.setLensPos(frame_data.lens_pos);
framed.setLensErr(frame_data.lens_err);
framed.setLensTruePos(frame_data.lens_true_pos);
framed.setProcessingTime(frame_data.processing_time);
}
kj::Array<uint8_t> get_frame_image(const CameraBuf *b) {
static const int x_min = util::getenv("XMIN", 0);
static const int y_min = util::getenv("YMIN", 0);
static const int env_xmax = util::getenv("XMAX", -1);
static const int env_ymax = util::getenv("YMAX", -1);
static const int scale = util::getenv("SCALE", 1);
assert(b->cur_rgb_buf);
const int x_max = env_xmax != -1 ? env_xmax : b->rgb_width - 1;
const int y_max = env_ymax != -1 ? env_ymax : b->rgb_height - 1;
const int new_width = (x_max - x_min + 1) / scale;
const int new_height = (y_max - y_min + 1) / scale;
const uint8_t *dat = (const uint8_t *)b->cur_rgb_buf->addr;
kj::Array<uint8_t> frame_image = kj::heapArray<uint8_t>(new_width*new_height*3);
uint8_t *resized_dat = frame_image.begin();
int goff = x_min*3 + y_min*b->rgb_stride;
for (int r=0;r<new_height;r++) {
for (int c=0;c<new_width;c++) {
memcpy(&resized_dat[(r*new_width+c)*3], &dat[goff+r*b->rgb_stride*scale+c*3*scale], 3*sizeof(uint8_t));
}
}
return kj::mv(frame_image);
}
kj::Array<uint8_t> get_raw_frame_image(const CameraBuf *b) {
const uint8_t *dat = (const uint8_t *)b->cur_camera_buf->addr;
kj::Array<uint8_t> frame_image = kj::heapArray<uint8_t>(b->cur_camera_buf->len);
uint8_t *resized_dat = frame_image.begin();
memcpy(resized_dat, dat, b->cur_camera_buf->len);
return kj::mv(frame_image);
}
static kj::Array<capnp::byte> yuv420_to_jpeg(const CameraBuf *b, int thumbnail_width, int thumbnail_height) {
int downscale = b->cur_yuv_buf->width / thumbnail_width;
assert(downscale * thumbnail_height == b->cur_yuv_buf->height);
int in_stride = b->cur_yuv_buf->stride;
// make the buffer big enough. jpeg_write_raw_data requires 16-pixels aligned height to be used.
std::unique_ptr<uint8[]> buf(new uint8_t[(thumbnail_width * ((thumbnail_height + 15) & ~15) * 3) / 2]);
uint8_t *y_plane = buf.get();
uint8_t *u_plane = y_plane + thumbnail_width * thumbnail_height;
uint8_t *v_plane = u_plane + (thumbnail_width * thumbnail_height) / 4;
{
// subsampled conversion from nv12 to yuv
for (int hy = 0; hy < thumbnail_height/2; hy++) {
for (int hx = 0; hx < thumbnail_width/2; hx++) {
int ix = hx * downscale + (downscale-1)/2;
int iy = hy * downscale + (downscale-1)/2;
y_plane[(hy*2 + 0)*thumbnail_width + (hx*2 + 0)] = b->cur_yuv_buf->y[(iy*2 + 0) * in_stride + ix*2 + 0];
y_plane[(hy*2 + 0)*thumbnail_width + (hx*2 + 1)] = b->cur_yuv_buf->y[(iy*2 + 0) * in_stride + ix*2 + 1];
y_plane[(hy*2 + 1)*thumbnail_width + (hx*2 + 0)] = b->cur_yuv_buf->y[(iy*2 + 1) * in_stride + ix*2 + 0];
y_plane[(hy*2 + 1)*thumbnail_width + (hx*2 + 1)] = b->cur_yuv_buf->y[(iy*2 + 1) * in_stride + ix*2 + 1];
u_plane[hy*thumbnail_width/2 + hx] = b->cur_yuv_buf->uv[iy*in_stride + ix*2 + 0];
v_plane[hy*thumbnail_width/2 + hx] = b->cur_yuv_buf->uv[iy*in_stride + ix*2 + 1];
}
}
}
struct jpeg_compress_struct cinfo;
struct jpeg_error_mgr jerr;
cinfo.err = jpeg_std_error(&jerr);
jpeg_create_compress(&cinfo);
uint8_t *thumbnail_buffer = nullptr;
size_t thumbnail_len = 0;
jpeg_mem_dest(&cinfo, &thumbnail_buffer, &thumbnail_len);
cinfo.image_width = thumbnail_width;
cinfo.image_height = thumbnail_height;
cinfo.input_components = 3;
jpeg_set_defaults(&cinfo);
jpeg_set_colorspace(&cinfo, JCS_YCbCr);
// configure sampling factors for yuv420.
cinfo.comp_info[0].h_samp_factor = 2; // Y
cinfo.comp_info[0].v_samp_factor = 2;
cinfo.comp_info[1].h_samp_factor = 1; // U
cinfo.comp_info[1].v_samp_factor = 1;
cinfo.comp_info[2].h_samp_factor = 1; // V
cinfo.comp_info[2].v_samp_factor = 1;
cinfo.raw_data_in = TRUE;
jpeg_set_quality(&cinfo, 50, TRUE);
jpeg_start_compress(&cinfo, TRUE);
JSAMPROW y[16], u[8], v[8];
JSAMPARRAY planes[3]{y, u, v};
for (int line = 0; line < cinfo.image_height; line += 16) {
for (int i = 0; i < 16; ++i) {
y[i] = y_plane + (line + i) * cinfo.image_width;
if (i % 2 == 0) {
int offset = (cinfo.image_width / 2) * ((i + line) / 2);
u[i / 2] = u_plane + offset;
v[i / 2] = v_plane + offset;
}
}
jpeg_write_raw_data(&cinfo, planes, 16);
}
jpeg_finish_compress(&cinfo);
jpeg_destroy_compress(&cinfo);
kj::Array<capnp::byte> dat = kj::heapArray<capnp::byte>(thumbnail_buffer, thumbnail_len);
free(thumbnail_buffer);
return dat;
}
static void publish_thumbnail(PubMaster *pm, const CameraBuf *b) {
auto thumbnail = yuv420_to_jpeg(b, b->rgb_width / 4, b->rgb_height / 4);
if (thumbnail.size() == 0) return;
MessageBuilder msg;
auto thumbnaild = msg.initEvent().initThumbnail();
thumbnaild.setFrameId(b->cur_frame_data.frame_id);
thumbnaild.setTimestampEof(b->cur_frame_data.timestamp_eof);
thumbnaild.setThumbnail(thumbnail);
pm->send("thumbnail", msg);
}
float set_exposure_target(const CameraBuf *b, int x_start, int x_end, int x_skip, int y_start, int y_end, int y_skip) {
int lum_med;
uint32_t lum_binning[256] = {0};
const uint8_t *pix_ptr = b->cur_yuv_buf->y;
unsigned int lum_total = 0;
for (int y = y_start; y < y_end; y += y_skip) {
for (int x = x_start; x < x_end; x += x_skip) {
uint8_t lum = pix_ptr[(y * b->rgb_width) + x];
lum_binning[lum]++;
lum_total += 1;
}
}
// Find mean lumimance value
unsigned int lum_cur = 0;
for (lum_med = 255; lum_med >= 0; lum_med--) {
lum_cur += lum_binning[lum_med];
if (lum_cur >= lum_total / 2) {
break;
}
}
return lum_med / 256.0;
}
void *processing_thread(MultiCameraState *cameras, CameraState *cs, process_thread_cb callback) {
const char *thread_name = nullptr;
if (cs == &cameras->road_cam) {
thread_name = "RoadCamera";
} else if (cs == &cameras->driver_cam) {
thread_name = "DriverCamera";
} else {
thread_name = "WideRoadCamera";
}
util::set_thread_name(thread_name);
uint32_t cnt = 0;
while (!do_exit) {
if (!cs->buf.acquire()) continue;
callback(cameras, cs, cnt);
if (cs == &(cameras->road_cam) && cameras->pm && cnt % 100 == 3) {
// this takes 10ms???
publish_thumbnail(cameras->pm, &(cs->buf));
}
cs->buf.release();
++cnt;
}
return NULL;
}
std::thread start_process_thread(MultiCameraState *cameras, CameraState *cs, process_thread_cb callback) {
return std::thread(processing_thread, cameras, cs, callback);
}
void camerad_thread() {
cl_device_id device_id = cl_get_device_id(CL_DEVICE_TYPE_DEFAULT);
#ifdef QCOM2
const cl_context_properties props[] = {CL_CONTEXT_PRIORITY_HINT_QCOM, CL_PRIORITY_HINT_HIGH_QCOM, 0};
cl_context context = CL_CHECK_ERR(clCreateContext(props, 1, &device_id, NULL, NULL, &err));
#else
cl_context context = CL_CHECK_ERR(clCreateContext(NULL, 1, &device_id, NULL, NULL, &err));
#endif
MultiCameraState cameras = {};
VisionIpcServer vipc_server("camerad", device_id, context);
cameras_init(&vipc_server, &cameras, device_id, context);
cameras_open(&cameras);
vipc_server.start_listener();
cameras_run(&cameras);
CL_CHECK(clReleaseContext(context));
}
int open_v4l_by_name_and_index(const char name[], int index, int flags) {
for (int v4l_index = 0; /**/; ++v4l_index) {
std::string v4l_name = util::read_file(util::string_format("/sys/class/video4linux/v4l-subdev%d/name", v4l_index));
if (v4l_name.empty()) return -1;
if (v4l_name.find(name) == 0) {
if (index == 0) {
return HANDLE_EINTR(open(util::string_format("/dev/v4l-subdev%d", v4l_index).c_str(), flags));
}
index--;
}
}
}
+148
View File
@@ -0,0 +1,148 @@
#pragma once
#include <cstdint>
#include <cstdlib>
#include <memory>
#include <thread>
#include "cereal/messaging/messaging.h"
#include "cereal/visionipc/visionbuf.h"
#include "cereal/visionipc/visionipc.h"
#include "cereal/visionipc/visionipc_server.h"
#include "system/camerad/transforms/rgb_to_yuv.h"
#include "common/mat.h"
#include "common/queue.h"
#include "common/swaglog.h"
#include "system/hardware/hw.h"
#define CAMERA_ID_IMX298 0
#define CAMERA_ID_IMX179 1
#define CAMERA_ID_S5K3P8SP 2
#define CAMERA_ID_OV8865 3
#define CAMERA_ID_IMX298_FLIPPED 4
#define CAMERA_ID_OV10640 5
#define CAMERA_ID_LGC920 6
#define CAMERA_ID_LGC615 7
#define CAMERA_ID_AR0231 8
#define CAMERA_ID_IMX390 9
#define CAMERA_ID_MAX 10
const int UI_BUF_COUNT = 4;
const int YUV_BUFFER_COUNT = 40;
enum CameraType {
RoadCam = 0,
DriverCam,
WideRoadCam
};
// TODO: remove these once all the internal tools are moved to vipc
const bool env_send_driver = getenv("SEND_DRIVER") != NULL;
const bool env_send_road = getenv("SEND_ROAD") != NULL;
const bool env_send_wide_road = getenv("SEND_WIDE_ROAD") != NULL;
// for debugging
const bool env_disable_road = getenv("DISABLE_ROAD") != NULL;
const bool env_disable_wide_road = getenv("DISABLE_WIDE_ROAD") != NULL;
const bool env_disable_driver = getenv("DISABLE_DRIVER") != NULL;
const bool env_debug_frames = getenv("DEBUG_FRAMES") != NULL;
const bool env_log_raw_frames = getenv("LOG_RAW_FRAMES") != NULL;
typedef void (*release_cb)(void *cookie, int buf_idx);
typedef struct CameraInfo {
uint32_t frame_width, frame_height;
uint32_t frame_stride;
bool bayer;
int bayer_flip;
bool hdr;
uint32_t frame_offset = 0;
uint32_t extra_height = 0;
int registers_offset = -1;
int stats_offset = -1;
} CameraInfo;
typedef struct FrameMetadata {
uint32_t frame_id;
unsigned int frame_length;
// Timestamps
uint64_t timestamp_sof; // only set on tici
uint64_t timestamp_eof;
// Exposure
unsigned int integ_lines;
bool high_conversion_gain;
float gain;
float measured_grey_fraction;
float target_grey_fraction;
// Focus
unsigned int lens_pos;
float lens_err;
float lens_true_pos;
float processing_time;
} FrameMetadata;
typedef struct CameraExpInfo {
int op_id;
float grey_frac;
} CameraExpInfo;
struct MultiCameraState;
struct CameraState;
class Debayer;
class CameraBuf {
private:
VisionIpcServer *vipc_server;
CameraState *camera_state;
Debayer *debayer = nullptr;
std::unique_ptr<Rgb2Yuv> rgb2yuv;
VisionStreamType rgb_type, yuv_type;
int cur_buf_idx;
SafeQueue<int> safe_queue;
int frame_buf_count;
release_cb release_callback;
public:
cl_command_queue q;
FrameMetadata cur_frame_data;
VisionBuf *cur_rgb_buf;
VisionBuf *cur_yuv_buf;
VisionBuf *cur_camera_buf;
std::unique_ptr<VisionBuf[]> camera_bufs;
std::unique_ptr<FrameMetadata[]> camera_bufs_metadata;
int rgb_width, rgb_height, rgb_stride;
mat3 yuv_transform;
CameraBuf() = default;
~CameraBuf();
void init(cl_device_id device_id, cl_context context, CameraState *s, VisionIpcServer * v, int frame_cnt, VisionStreamType rgb_type, VisionStreamType yuv_type, release_cb release_callback=nullptr);
bool acquire();
void release();
void queue(size_t buf_idx);
};
typedef void (*process_thread_cb)(MultiCameraState *s, CameraState *c, int cnt);
void fill_frame_data(cereal::FrameData::Builder &framed, const FrameMetadata &frame_data);
kj::Array<uint8_t> get_frame_image(const CameraBuf *b);
kj::Array<uint8_t> get_raw_frame_image(const CameraBuf *b);
float set_exposure_target(const CameraBuf *b, int x_start, int x_end, int x_skip, int y_start, int y_end, int y_skip);
std::thread start_process_thread(MultiCameraState *cameras, CameraState *cs, process_thread_cb callback);
void cameras_init(VisionIpcServer *v, MultiCameraState *s, cl_device_id device_id, cl_context ctx);
void cameras_open(MultiCameraState *s);
void cameras_run(MultiCameraState *s);
void cameras_close(MultiCameraState *s);
void camera_autoexposure(CameraState *s, float grey_frac);
void camerad_thread();
int open_v4l_by_name_and_index(const char name[], int index = 0, int flags = O_RDWR | O_NONBLOCK);
File diff suppressed because it is too large Load Diff
+110
View File
@@ -0,0 +1,110 @@
#pragma once
#include <cstdint>
#include <map>
#include <utility>
#include <media/cam_req_mgr.h>
#include "system/camerad/cameras/camera_common.h"
#include "common/util.h"
#define FRAME_BUF_COUNT 4
class MemoryManager {
public:
void init(int _video0_fd) { video0_fd = _video0_fd; }
void *alloc(int len, uint32_t *handle);
void free(void *ptr);
~MemoryManager();
private:
std::mutex lock;
std::map<void *, uint32_t> handle_lookup;
std::map<void *, int> size_lookup;
std::map<int, std::queue<void *> > cached_allocations;
int video0_fd;
};
class CameraState {
public:
MultiCameraState *multi_cam_state;
CameraInfo ci;
bool enabled;
std::mutex exp_lock;
int exposure_time;
bool dc_gain_enabled;
float analog_gain_frac;
float cur_ev[3];
float min_ev, max_ev;
float measured_grey_fraction;
float target_grey_fraction;
int gain_idx;
unique_fd sensor_fd;
unique_fd csiphy_fd;
int camera_num;
void handle_camera_event(void *evdat);
void set_camera_exposure(float grey_frac);
void sensors_start();
void camera_open();
void camera_init(MultiCameraState *multi_cam_state, VisionIpcServer * v, int camera_id, int camera_num, unsigned int fps, cl_device_id device_id, cl_context ctx, VisionStreamType rgb_type, VisionStreamType yuv_type, bool enabled);
void camera_close();
std::map<uint16_t, uint16_t> ar0231_parse_registers(uint8_t *data, std::initializer_list<uint16_t> addrs);
int32_t session_handle;
int32_t sensor_dev_handle;
int32_t isp_dev_handle;
int32_t csiphy_dev_handle;
int32_t link_handle;
int buf0_handle;
int buf_handle[FRAME_BUF_COUNT];
int sync_objs[FRAME_BUF_COUNT];
int request_ids[FRAME_BUF_COUNT];
int request_id_last;
int frame_id_last;
int idx_offset;
bool skipped;
int camera_id;
CameraBuf buf;
MemoryManager mm;
private:
void config_isp(int io_mem_handle, int fence, int request_id, int buf0_mem_handle, int buf0_offset);
void enqueue_req_multi(int start, int n, bool dp);
void enqueue_buffer(int i, bool dp);
int clear_req_queue();
int sensors_init();
void sensors_poke(int request_id);
void sensors_i2c(struct i2c_random_wr_payload* dat, int len, int op_code, bool data_word);
// Register parsing
std::map<uint16_t, std::pair<int, int>> ar0231_register_lut;
std::map<uint16_t, std::pair<int, int>> ar0231_build_register_lut(uint8_t *data);
};
typedef struct MultiCameraState {
unique_fd video0_fd;
unique_fd cam_sync_fd;
unique_fd isp_fd;
int device_iommu;
int cdm_iommu;
CameraState road_cam;
CameraState wide_road_cam;
CameraState driver_cam;
PubMaster *pm;
} MultiCameraState;
+158
View File
@@ -0,0 +1,158 @@
#define UV_WIDTH RGB_WIDTH / 2
#define UV_HEIGHT RGB_HEIGHT / 2
#define RGB_TO_Y(r, g, b) ((((mul24(b, 13) + mul24(g, 65) + mul24(r, 33)) + 64) >> 7) + 16)
#define RGB_TO_U(r, g, b) ((mul24(b, 56) - mul24(g, 37) - mul24(r, 19) + 0x8080) >> 8)
#define RGB_TO_V(r, g, b) ((mul24(r, 56) - mul24(g, 47) - mul24(b, 9) + 0x8080) >> 8)
#define AVERAGE(x, y, z, w) ((convert_ushort(x) + convert_ushort(y) + convert_ushort(z) + convert_ushort(w) + 1) >> 1)
float3 color_correct(float3 rgb) {
// color correction
float3 x = rgb.x * (float3)(1.82717181, -0.31231438, 0.07307673);
x += rgb.y * (float3)(-0.5743977, 1.36858544, -0.53183455);
x += rgb.z * (float3)(-0.25277411, -0.05627105, 1.45875782);
// tone mapping params
const float gamma_k = 0.75;
const float gamma_b = 0.125;
const float mp = 0.01; // ideally midpoint should be adaptive
const float rk = 9 - 100*mp;
// poly approximation for s curve
return (x > mp) ?
((rk * (x-mp) * (1-(gamma_k*mp+gamma_b)) * (1+1/(rk*(1-mp))) / (1+rk*(x-mp))) + gamma_k*mp + gamma_b) :
((rk * (x-mp) * (gamma_k*mp+gamma_b) * (1+1/(rk*mp)) / (1-rk*(x-mp))) + gamma_k*mp + gamma_b);
}
float get_vignetting_s(float r) {
if (r < 62500) {
return (1.0f + 0.0000008f*r);
} else if (r < 490000) {
return (0.9625f + 0.0000014f*r);
} else if (r < 1102500) {
return (1.26434f + 0.0000000000016f*r*r);
} else {
return (0.53503625f + 0.0000000000022f*r*r);
}
}
float4 val4_from_12(uchar8 pvs, float gain) {
uint4 parsed = (uint4)(((uint)pvs.s0<<4) + (pvs.s1>>4), // is from the previous 10 bit
((uint)pvs.s2<<4) + (pvs.s4&0xF),
((uint)pvs.s3<<4) + (pvs.s4>>4),
((uint)pvs.s5<<4) + (pvs.s7&0xF));
// normalize and scale
float4 pv = (convert_float4(parsed) - 168.0) / (4096.0 - 168.0);
return clamp(pv*gain, 0.0, 1.0);
}
float get_k(float a, float b, float c, float d) {
return 2.0 - (fabs(a - b) + fabs(c - d));
}
__kernel void debayer10(const __global uchar * in, __global uchar * out)
{
const int gid_x = get_global_id(0);
const int gid_y = get_global_id(1);
const int y_top_mod = (gid_y == 0) ? 2: 0;
const int y_bot_mod = (gid_y == (RGB_HEIGHT/2 - 1)) ? 1: 3;
float3 rgb;
uchar3 rgb_out[4];
int start = (2 * gid_y - 1) * FRAME_STRIDE + (3 * gid_x - 2) + (FRAME_STRIDE * FRAME_OFFSET);
// read in 8x4 chars
uchar8 dat[4];
dat[0] = vload8(0, in + start + FRAME_STRIDE*y_top_mod);
dat[1] = vload8(0, in + start + FRAME_STRIDE*1);
dat[2] = vload8(0, in + start + FRAME_STRIDE*2);
dat[3] = vload8(0, in + start + FRAME_STRIDE*y_bot_mod);
// correct vignetting
#if VIGNETTING
int gx = (gid_x*2 - RGB_WIDTH/2);
int gy = (gid_y*2 - RGB_HEIGHT/2);
const float gain = get_vignetting_s(gx*gx + gy*gy);
#else
const float gain = 1.0;
#endif
// process them to floats
float4 va = val4_from_12(dat[0], gain);
float4 vb = val4_from_12(dat[1], gain);
float4 vc = val4_from_12(dat[2], gain);
float4 vd = val4_from_12(dat[3], gain);
if (gid_x == 0) {
va.s0 = va.s2;
vb.s0 = vb.s2;
vc.s0 = vc.s2;
vd.s0 = vd.s2;
} else if (gid_x == RGB_WIDTH/2 - 1) {
va.s3 = va.s1;
vb.s3 = vb.s1;
vc.s3 = vc.s1;
vd.s3 = vd.s1;
}
// a simplified version of https://opensignalprocessingjournal.com/contents/volumes/V6/TOSIGPJ-6-1/TOSIGPJ-6-1.pdf
const float k01 = get_k(va.s0, vb.s1, va.s2, vb.s1);
const float k02 = get_k(va.s2, vb.s1, vc.s2, vb.s1);
const float k03 = get_k(vc.s0, vb.s1, vc.s2, vb.s1);
const float k04 = get_k(va.s0, vb.s1, vc.s0, vb.s1);
rgb.x = (k02*vb.s2+k04*vb.s0)/(k02+k04); // R_G1
rgb.y = vb.s1; // G1(R)
rgb.z = (k01*va.s1+k03*vc.s1)/(k01+k03); // B_G1
rgb_out[0] = convert_uchar3_sat(color_correct(clamp(rgb, 0.0, 1.0)) * 255.0);
const float k11 = get_k(va.s1, vc.s1, va.s3, vc.s3);
const float k12 = get_k(va.s2, vb.s1, vb.s3, vc.s2);
const float k13 = get_k(va.s1, va.s3, vc.s1, vc.s3);
const float k14 = get_k(va.s2, vb.s3, vc.s2, vb.s1);
rgb.x = vb.s2; // R
rgb.y = (k11*(va.s2+vc.s2)*0.5+k13*(vb.s3+vb.s1)*0.5)/(k11+k13); // G_R
rgb.z = (k12*(va.s3+vc.s1)*0.5+k14*(va.s1+vc.s3)*0.5)/(k12+k14); // B_R
rgb_out[1] = convert_uchar3_sat(color_correct(clamp(rgb, 0.0, 1.0)) * 255.0);
const float k21 = get_k(vb.s0, vd.s0, vb.s2, vd.s2);
const float k22 = get_k(vb.s1, vc.s0, vc.s2, vd.s1);
const float k23 = get_k(vb.s0, vb.s2, vd.s0, vd.s2);
const float k24 = get_k(vb.s1, vc.s2, vd.s1, vc.s0);
rgb.x = (k22*(vb.s2+vd.s0)*0.5+k24*(vb.s0+vd.s2)*0.5)/(k22+k24); // R_B
rgb.y = (k21*(vb.s1+vd.s1)*0.5+k23*(vc.s2+vc.s0)*0.5)/(k21+k23); // G_B
rgb.z = vc.s1; // B
rgb_out[2] = convert_uchar3_sat(color_correct(clamp(rgb, 0.0, 1.0)) * 255.0);
const float k31 = get_k(vb.s1, vc.s2, vb.s3, vc.s2);
const float k32 = get_k(vb.s3, vc.s2, vd.s3, vc.s2);
const float k33 = get_k(vd.s1, vc.s2, vd.s3, vc.s2);
const float k34 = get_k(vb.s1, vc.s2, vd.s1, vc.s2);
rgb.x = (k31*vb.s2+k33*vd.s2)/(k31+k33); // R_G2
rgb.y = vc.s2; // G2(B)
rgb.z = (k32*vc.s3+k34*vc.s1)/(k32+k34); // B_G2
rgb_out[3] = convert_uchar3_sat(color_correct(clamp(rgb, 0.0, 1.0)) * 255.0);
// write ys
uchar2 yy = (uchar2)(
RGB_TO_Y(rgb_out[0].s0, rgb_out[0].s1, rgb_out[0].s2),
RGB_TO_Y(rgb_out[1].s0, rgb_out[1].s1, rgb_out[1].s2)
);
vstore2(yy, 0, out + mad24(gid_y * 2, YUV_STRIDE, gid_x * 2));
yy = (uchar2)(
RGB_TO_Y(rgb_out[2].s0, rgb_out[2].s1, rgb_out[2].s2),
RGB_TO_Y(rgb_out[3].s0, rgb_out[3].s1, rgb_out[3].s2)
);
vstore2(yy, 0, out + mad24(gid_y * 2 + 1, YUV_STRIDE, gid_x * 2));
// write uvs
const short ar = AVERAGE(rgb_out[0].s0, rgb_out[1].s0, rgb_out[2].s0, rgb_out[3].s0);
const short ag = AVERAGE(rgb_out[0].s1, rgb_out[1].s1, rgb_out[2].s1, rgb_out[3].s1);
const short ab = AVERAGE(rgb_out[0].s2, rgb_out[1].s2, rgb_out[2].s2, rgb_out[3].s2);
uchar2 uv = (uchar2)(
RGB_TO_U(ar, ag, ab),
RGB_TO_V(ar, ag, ab)
);
vstore2(uv, 0, out + UV_OFFSET + mad24(gid_y, YUV_STRIDE, gid_x * 2));
}
+161
View File
@@ -0,0 +1,161 @@
struct i2c_random_wr_payload start_reg_array_ar0231[] = {{0x301A, 0x91C}};
struct i2c_random_wr_payload stop_reg_array_ar0231[] = {{0x301A, 0x918}};
struct i2c_random_wr_payload start_reg_array_imx390[] = {{0x0, 0}};
struct i2c_random_wr_payload stop_reg_array_imx390[] = {{0x0, 1}};
struct i2c_random_wr_payload init_array_imx390[] = {
{0x2008, 0xd0}, {0x2009, 0x07}, {0x200a, 0x00}, // MODE_VMAX = time between frames
{0x200C, 0xe4}, {0x200D, 0x0c}, // MODE_HMAX
// crop
{0x3410, 0x88}, {0x3411, 0x7}, // CROP_H_SIZE
{0x3418, 0xb8}, {0x3419, 0x4}, // CROP_V_SIZE
{0x0078, 1}, {0x03c0, 1},
// external trigger (off)
// while images still come in, they are blank with this
{0x3650, 0}, // CU_MODE
// exposure
{0x000c, 0xc0}, {0x000d, 0x07},
{0x0010, 0xc0}, {0x0011, 0x07},
// WUXGA mode
// not in datasheet, from https://github.com/bogsen/STLinux-Kernel/blob/master/drivers/media/platform/tegra/imx185.c
{0x0086, 0xc4}, {0x0087, 0xff}, // WND_SHIFT_V = -60
{0x03c6, 0xc4}, {0x03c7, 0xff}, // SM_WND_SHIFT_V_APL = -60
{0x201c, 0xe1}, {0x201d, 0x12}, // image read amount
{0x21ee, 0xc4}, {0x21ef, 0x04}, // image send amount (1220 is the end)
{0x21f0, 0xc4}, {0x21f1, 0x04}, // image processing amount
// disable a bunch of errors causing blanking
{0x0390, 0x00}, {0x0391, 0x00}, {0x0392, 0x00},
// flip bayer
{0x2D64, 0x64 + 2},
// color correction
{0x0030, 0xf8}, {0x0031, 0x00}, // red gain
{0x0032, 0x9a}, {0x0033, 0x00}, // gr gain
{0x0034, 0x9a}, {0x0035, 0x00}, // gb gain
{0x0036, 0x22}, {0x0037, 0x01}, // blue gain
// hdr enable (noise with this on for now)
{0x00f9, 0}
};
struct i2c_random_wr_payload init_array_ar0231[] = {
{0x301A, 0x0018}, // RESET_REGISTER
// CLOCK Settings
// input clock is 19.2 / 2 * 0x37 = 528 MHz
// pixclk is 528 / 6 = 88 MHz
// full roll time is 1000/(PIXCLK/(LINE_LENGTH_PCK*FRAME_LENGTH_LINES)) = 39.99 ms
// img roll time is 1000/(PIXCLK/(LINE_LENGTH_PCK*Y_OUTPUT_CONTROL)) = 22.85 ms
{0x302A, 0x0006}, // VT_PIX_CLK_DIV
{0x302C, 0x0001}, // VT_SYS_CLK_DIV
{0x302E, 0x0002}, // PRE_PLL_CLK_DIV
{0x3030, 0x0037}, // PLL_MULTIPLIER
{0x3036, 0x000C}, // OP_PIX_CLK_DIV
{0x3038, 0x0001}, // OP_SYS_CLK_DIV
// FORMAT
{0x3040, 0xC000}, // READ_MODE
{0x3004, 0x0000}, // X_ADDR_START_
{0x3008, 0x0787}, // X_ADDR_END_
{0x3002, 0x0000}, // Y_ADDR_START_
{0x3006, 0x04B7}, // Y_ADDR_END_
{0x3032, 0x0000}, // SCALING_MODE
{0x30A2, 0x0001}, // X_ODD_INC_
{0x30A6, 0x0001}, // Y_ODD_INC_
{0x3402, 0x0788}, // X_OUTPUT_CONTROL
{0x3404, 0x04B8}, // Y_OUTPUT_CONTROL
{0x3064, 0x1982}, // SMIA_TEST
{0x30BA, 0x11F2}, // DIGITAL_CTRL
// Enable external trigger and disable GPIO outputs
{0x30CE, 0x0120}, // SLAVE_SH_SYNC_MODE | FRAME_START_MODE
{0x340A, 0xE0}, // GPIO3_INPUT_DISABLE | GPIO2_INPUT_DISABLE | GPIO1_INPUT_DISABLE
{0x340C, 0x802}, // GPIO_HIDRV_EN | GPIO0_ISEL=2
// Readout timing
{0x300C, 0x0672}, // LINE_LENGTH_PCK (valid for 3-exposure HDR)
{0x300A, 0x0855}, // FRAME_LENGTH_LINES
{0x3042, 0x0000}, // EXTRA_DELAY
// Readout Settings
{0x31AE, 0x0204}, // SERIAL_FORMAT, 4-lane MIPI
{0x31AC, 0x0C0C}, // DATA_FORMAT_BITS, 12 -> 12
{0x3342, 0x1212}, // MIPI_F1_PDT_EDT
{0x3346, 0x1212}, // MIPI_F2_PDT_EDT
{0x334A, 0x1212}, // MIPI_F3_PDT_EDT
{0x334E, 0x1212}, // MIPI_F4_PDT_EDT
{0x3344, 0x0011}, // MIPI_F1_VDT_VC
{0x3348, 0x0111}, // MIPI_F2_VDT_VC
{0x334C, 0x0211}, // MIPI_F3_VDT_VC
{0x3350, 0x0311}, // MIPI_F4_VDT_VC
{0x31B0, 0x0053}, // FRAME_PREAMBLE
{0x31B2, 0x003B}, // LINE_PREAMBLE
{0x301A, 0x001C}, // RESET_REGISTER
// Noise Corrections
{0x3092, 0x0C24}, // ROW_NOISE_CONTROL
{0x337A, 0x0C80}, // DBLC_SCALE0
{0x3370, 0x03B1}, // DBLC
{0x3044, 0x0400}, // DARK_CONTROL
// Enable temperature sensor
{0x30B4, 0x0007}, // TEMPSENS0_CTRL_REG
{0x30B8, 0x0007}, // TEMPSENS1_CTRL_REG
// Enable dead pixel correction using
// the 1D line correction scheme
{0x31E0, 0x0003},
// HDR Settings
{0x3082, 0x0004}, // OPERATION_MODE_CTRL
{0x3238, 0x0444}, // EXPOSURE_RATIO
{0x1008, 0x0361}, // FINE_INTEGRATION_TIME_MIN
{0x100C, 0x0589}, // FINE_INTEGRATION_TIME2_MIN
{0x100E, 0x07B1}, // FINE_INTEGRATION_TIME3_MIN
{0x1010, 0x0139}, // FINE_INTEGRATION_TIME4_MIN
// TODO: do these have to be lower than LINE_LENGTH_PCK?
{0x3014, 0x08CB}, // FINE_INTEGRATION_TIME_
{0x321E, 0x0894}, // FINE_INTEGRATION_TIME2
{0x31D0, 0x0000}, // COMPANDING, no good in 10 bit?
{0x33DA, 0x0000}, // COMPANDING
{0x318E, 0x0200}, // PRE_HDR_GAIN_EN
// DLO Settings
{0x3100, 0x4000}, // DLO_CONTROL0
{0x3280, 0x0CCC}, // T1 G1
{0x3282, 0x0CCC}, // T1 R
{0x3284, 0x0CCC}, // T1 B
{0x3286, 0x0CCC}, // T1 G2
{0x3288, 0x0FA0}, // T2 G1
{0x328A, 0x0FA0}, // T2 R
{0x328C, 0x0FA0}, // T2 B
{0x328E, 0x0FA0}, // T2 G2
// Initial Gains
{0x3022, 0x0001}, // GROUPED_PARAMETER_HOLD_
{0x3366, 0xFF77}, // ANALOG_GAIN (1x)
{0x3060, 0x3333}, // ANALOG_COLOR_GAIN
{0x3362, 0x0000}, // DC GAIN
{0x305A, 0x00F8}, // red gain
{0x3058, 0x0122}, // blue gain
{0x3056, 0x009A}, // g1 gain
{0x305C, 0x009A}, // g2 gain
{0x3022, 0x0000}, // GROUPED_PARAMETER_HOLD_
// Initial Integration Time
{0x3012, 0x0005},
};
+110
View File
@@ -0,0 +1,110 @@
// const __constant float3 rgb_weights = (0.299, 0.587, 0.114); // opencv rgb2gray weights
// const __constant float3 bgr_weights = (0.114, 0.587, 0.299); // bgr2gray weights
// convert input rgb image to single channel then conv
__kernel void rgb2gray_conv2d(
const __global uchar * input,
__global short * output,
__constant short * filter,
__local uchar3 * cached
)
{
const int rowOffset = get_global_id(1) * IMAGE_W;
const int my = get_global_id(0) + rowOffset;
const int localRowLen = TWICE_HALF_FILTER_SIZE + get_local_size(0);
const int localRowOffset = ( get_local_id(1) + HALF_FILTER_SIZE ) * localRowLen;
const int myLocal = localRowOffset + get_local_id(0) + HALF_FILTER_SIZE;
// cache local pixels
cached[ myLocal ].x = input[ my * 3 ]; // r
cached[ myLocal ].y = input[ my * 3 + 1]; // g
cached[ myLocal ].z = input[ my * 3 + 2]; // b
// pad
if (
get_global_id(0) < HALF_FILTER_SIZE ||
get_global_id(0) > IMAGE_W - HALF_FILTER_SIZE - 1 ||
get_global_id(1) < HALF_FILTER_SIZE ||
get_global_id(1) > IMAGE_H - HALF_FILTER_SIZE - 1
)
{
barrier(CLK_LOCAL_MEM_FENCE);
return;
}
else
{
int localColOffset = -1;
int globalColOffset = -1;
// cache extra
if ( get_local_id(0) < HALF_FILTER_SIZE )
{
localColOffset = get_local_id(0);
globalColOffset = -HALF_FILTER_SIZE;
cached[ localRowOffset + get_local_id(0) ].x = input[ my * 3 - HALF_FILTER_SIZE * 3 ];
cached[ localRowOffset + get_local_id(0) ].y = input[ my * 3 - HALF_FILTER_SIZE * 3 + 1];
cached[ localRowOffset + get_local_id(0) ].z = input[ my * 3 - HALF_FILTER_SIZE * 3 + 2];
}
else if ( get_local_id(0) >= get_local_size(0) - HALF_FILTER_SIZE )
{
localColOffset = get_local_id(0) + TWICE_HALF_FILTER_SIZE;
globalColOffset = HALF_FILTER_SIZE;
cached[ myLocal + HALF_FILTER_SIZE ].x = input[ my * 3 + HALF_FILTER_SIZE * 3 ];
cached[ myLocal + HALF_FILTER_SIZE ].y = input[ my * 3 + HALF_FILTER_SIZE * 3 + 1];
cached[ myLocal + HALF_FILTER_SIZE ].z = input[ my * 3 + HALF_FILTER_SIZE * 3 + 2];
}
if ( get_local_id(1) < HALF_FILTER_SIZE )
{
cached[ get_local_id(1) * localRowLen + get_local_id(0) + HALF_FILTER_SIZE ].x = input[ my * 3 - HALF_FILTER_SIZE_IMAGE_W * 3 ];
cached[ get_local_id(1) * localRowLen + get_local_id(0) + HALF_FILTER_SIZE ].y = input[ my * 3 - HALF_FILTER_SIZE_IMAGE_W * 3 + 1];
cached[ get_local_id(1) * localRowLen + get_local_id(0) + HALF_FILTER_SIZE ].z = input[ my * 3 - HALF_FILTER_SIZE_IMAGE_W * 3 + 2];
if (localColOffset > 0)
{
cached[ get_local_id(1) * localRowLen + localColOffset ].x = input[ my * 3 - HALF_FILTER_SIZE_IMAGE_W * 3 + globalColOffset * 3];
cached[ get_local_id(1) * localRowLen + localColOffset ].y = input[ my * 3 - HALF_FILTER_SIZE_IMAGE_W * 3 + globalColOffset * 3 + 1];
cached[ get_local_id(1) * localRowLen + localColOffset ].z = input[ my * 3 - HALF_FILTER_SIZE_IMAGE_W * 3 + globalColOffset * 3 + 2];
}
}
else if ( get_local_id(1) >= get_local_size(1) -HALF_FILTER_SIZE )
{
int offset = ( get_local_id(1) + TWICE_HALF_FILTER_SIZE ) * localRowLen;
cached[ offset + get_local_id(0) + HALF_FILTER_SIZE ].x = input[ my * 3 + HALF_FILTER_SIZE_IMAGE_W * 3 ];
cached[ offset + get_local_id(0) + HALF_FILTER_SIZE ].y = input[ my * 3 + HALF_FILTER_SIZE_IMAGE_W * 3 + 1];
cached[ offset + get_local_id(0) + HALF_FILTER_SIZE ].z = input[ my * 3 + HALF_FILTER_SIZE_IMAGE_W * 3 + 2];
if (localColOffset > 0)
{
cached[ offset + localColOffset ].x = input[ my * 3 + HALF_FILTER_SIZE_IMAGE_W * 3 + globalColOffset * 3];
cached[ offset + localColOffset ].y = input[ my * 3 + HALF_FILTER_SIZE_IMAGE_W * 3 + globalColOffset * 3 + 1];
cached[ offset + localColOffset ].z = input[ my * 3 + HALF_FILTER_SIZE_IMAGE_W * 3 + globalColOffset * 3 + 2];
}
}
// sync
barrier(CLK_LOCAL_MEM_FENCE);
// perform convolution
int fIndex = 0;
short sum = 0;
for (int r = -HALF_FILTER_SIZE; r <= HALF_FILTER_SIZE; r++)
{
int curRow = r * localRowLen;
for (int c = -HALF_FILTER_SIZE; c <= HALF_FILTER_SIZE; c++, fIndex++)
{
if (!FLIP_RB){
// sum += dot(rgb_weights, cached[ myLocal + curRow + c ]) * filter[ fIndex ];
sum += (cached[ myLocal + curRow + c ].x / 3 + cached[ myLocal + curRow + c ].y / 2 + cached[ myLocal + curRow + c ].z / 9) * filter[ fIndex ];
} else {
// sum += dot(bgr_weights, cached[ myLocal + curRow + c ]) * filter[ fIndex ];
sum += (cached[ myLocal + curRow + c ].x / 9 + cached[ myLocal + curRow + c ].y / 2 + cached[ myLocal + curRow + c ].z / 3) * filter[ fIndex ];
}
}
}
output[my] = sum;
}
}
+34
View File
@@ -0,0 +1,34 @@
// calculate variance in each subregion
__kernel void var_pool(
const __global char * input,
__global ushort * output // should not be larger than 128*128 so uint16
)
{
const int xidx = get_global_id(0) + ROI_X_MIN;
const int yidx = get_global_id(1) + ROI_Y_MIN;
const int size = X_PITCH * Y_PITCH;
float fsum = 0;
char mean, max;
for (int i = 0; i < size; i++) {
int x_offset = i % X_PITCH;
int y_offset = i / X_PITCH;
fsum += input[xidx*X_PITCH + yidx*Y_PITCH*FULL_STRIDE_X + x_offset + y_offset*FULL_STRIDE_X];
max = input[xidx*X_PITCH + yidx*Y_PITCH*FULL_STRIDE_X + x_offset + y_offset*FULL_STRIDE_X]>max ? input[xidx*X_PITCH + yidx*Y_PITCH*FULL_STRIDE_X + x_offset + y_offset*FULL_STRIDE_X]:max;
}
mean = convert_char_rte(fsum / size);
float fvar = 0;
for (int i = 0; i < size; i++) {
int x_offset = i % X_PITCH;
int y_offset = i / X_PITCH;
fvar += (input[xidx*X_PITCH + yidx*Y_PITCH*FULL_STRIDE_X + x_offset + y_offset*FULL_STRIDE_X] - mean) * (input[xidx*X_PITCH + yidx*Y_PITCH*FULL_STRIDE_X + x_offset + y_offset*FULL_STRIDE_X] - mean);
}
fvar = fvar / size;
output[(xidx-ROI_X_MIN)+(yidx-ROI_Y_MIN)*(ROI_X_MAX-ROI_X_MIN+1)] = convert_ushort_rte(5 * fvar + convert_float_rte(max));
}
+106
View File
@@ -0,0 +1,106 @@
#include "system/camerad/imgproc/utils.h"
#include <algorithm>
#include <cassert>
#include <cstdio>
#include <cmath>
#include <cstring>
const int16_t lapl_conv_krnl[9] = {0, 1, 0,
1, -4, 1,
0, 1, 0};
// calculate score based on laplacians in one area
uint16_t get_lapmap_one(const int16_t *lap, int x_pitch, int y_pitch) {
const int size = x_pitch * y_pitch;
// avg and max of roi
int16_t max = 0;
int sum = 0;
for (int i = 0; i < size; ++i) {
const int16_t v = lap[i];
sum += v;
if (v > max) max = v;
}
const int16_t mean = sum / size;
// var of roi
int var = 0;
for (int i = 0; i < size; ++i) {
var += std::pow(lap[i] - mean, 2);
}
const float fvar = (float)var / size;
return std::min(5 * fvar + max, (float)65535);
}
bool is_blur(const uint16_t *lapmap, const size_t size) {
float bad_sum = 0;
for (int i = 0; i < size; i++) {
if (lapmap[i] < LM_THRESH) {
bad_sum += 1 / (float)size;
}
}
return (bad_sum > LM_PREC_THRESH);
}
static cl_program build_conv_program(cl_device_id device_id, cl_context context, int image_w, int image_h, int filter_size) {
char args[4096];
snprintf(args, sizeof(args),
"-cl-fast-relaxed-math -cl-denorms-are-zero "
"-DIMAGE_W=%d -DIMAGE_H=%d -DFLIP_RB=%d "
"-DFILTER_SIZE=%d -DHALF_FILTER_SIZE=%d -DTWICE_HALF_FILTER_SIZE=%d -DHALF_FILTER_SIZE_IMAGE_W=%d",
image_w, image_h, 1,
filter_size, filter_size/2, (filter_size/2)*2, (filter_size/2)*image_w);
return cl_program_from_file(context, device_id, "imgproc/conv.cl", args);
}
LapConv::LapConv(cl_device_id device_id, cl_context ctx, int rgb_width, int rgb_height, int rgb_stride, int filter_size)
: width(rgb_width / NUM_SEGMENTS_X), height(rgb_height / NUM_SEGMENTS_Y), rgb_stride(rgb_stride),
roi_buf(width * height * 3), result_buf(width * height) {
prg = build_conv_program(device_id, ctx, width, height, filter_size);
krnl = CL_CHECK_ERR(clCreateKernel(prg, "rgb2gray_conv2d", &err));
// TODO: Removed CL_MEM_SVM_FINE_GRAIN_BUFFER, confirm it doesn't matter
roi_cl = CL_CHECK_ERR(clCreateBuffer(ctx, CL_MEM_READ_WRITE, roi_buf.size() * sizeof(roi_buf[0]), NULL, &err));
result_cl = CL_CHECK_ERR(clCreateBuffer(ctx, CL_MEM_READ_WRITE, result_buf.size() * sizeof(result_buf[0]), NULL, &err));
filter_cl = CL_CHECK_ERR(clCreateBuffer(ctx, CL_MEM_READ_ONLY | CL_MEM_COPY_HOST_PTR,
9 * sizeof(int16_t), (void *)&lapl_conv_krnl, &err));
}
LapConv::~LapConv() {
CL_CHECK(clReleaseMemObject(roi_cl));
CL_CHECK(clReleaseMemObject(result_cl));
CL_CHECK(clReleaseMemObject(filter_cl));
CL_CHECK(clReleaseKernel(krnl));
CL_CHECK(clReleaseProgram(prg));
}
uint16_t LapConv::Update(cl_command_queue q, const uint8_t *rgb_buf, const int roi_id) {
// sharpness scores
const int x_offset = ROI_X_MIN + roi_id % (ROI_X_MAX - ROI_X_MIN + 1);
const int y_offset = ROI_Y_MIN + roi_id / (ROI_X_MAX - ROI_X_MIN + 1);
const uint8_t *rgb_offset = rgb_buf + y_offset * height * rgb_stride + x_offset * width * 3;
for (int i = 0; i < height; ++i) {
memcpy(&roi_buf[i * width * 3], &rgb_offset[i * rgb_stride], width * 3);
}
constexpr int local_mem_size = (CONV_LOCAL_WORKSIZE + 2 * (3 / 2)) * (CONV_LOCAL_WORKSIZE + 2 * (3 / 2)) * (3 * sizeof(uint8_t));
const size_t global_work_size[] = {(size_t)width, (size_t)height};
const size_t local_work_size[] = {CONV_LOCAL_WORKSIZE, CONV_LOCAL_WORKSIZE};
CL_CHECK(clEnqueueWriteBuffer(q, roi_cl, CL_TRUE, 0, roi_buf.size() * sizeof(roi_buf[0]), roi_buf.data(), 0, 0, 0));
CL_CHECK(clSetKernelArg(krnl, 0, sizeof(cl_mem), (void *)&roi_cl));
CL_CHECK(clSetKernelArg(krnl, 1, sizeof(cl_mem), (void *)&result_cl));
CL_CHECK(clSetKernelArg(krnl, 2, sizeof(cl_mem), (void *)&filter_cl));
CL_CHECK(clSetKernelArg(krnl, 3, local_mem_size, 0));
cl_event conv_event;
CL_CHECK(clEnqueueNDRangeKernel(q, krnl, 2, NULL, global_work_size, local_work_size, 0, 0, &conv_event));
CL_CHECK(clWaitForEvents(1, &conv_event));
CL_CHECK(clReleaseEvent(conv_event));
CL_CHECK(clEnqueueReadBuffer(q, result_cl, CL_TRUE, 0,
result_buf.size() * sizeof(result_buf[0]), result_buf.data(), 0, 0, 0));
return get_lapmap_one(result_buf.data(), width, height);
}
+37
View File
@@ -0,0 +1,37 @@
#pragma once
#include <cstddef>
#include <cstdint>
#include <vector>
#include "common/clutil.h"
#define NUM_SEGMENTS_X 8
#define NUM_SEGMENTS_Y 6
#define ROI_X_MIN 1
#define ROI_X_MAX 6
#define ROI_Y_MIN 2
#define ROI_Y_MAX 3
#define LM_THRESH 120
#define LM_PREC_THRESH 0.9 // 90 perc is blur
#define CONV_LOCAL_WORKSIZE 16
class LapConv {
public:
LapConv(cl_device_id device_id, cl_context ctx, int rgb_width, int rgb_height, int rgb_stride, int filter_size);
~LapConv();
uint16_t Update(cl_command_queue q, const uint8_t *rgb_buf, const int roi_id);
private:
cl_mem roi_cl, result_cl, filter_cl;
cl_program prg;
cl_kernel krnl;
const int width, height;
const int rgb_stride;
std::vector<uint8_t> roi_buf;
std::vector<int16_t> result_buf;
};
bool is_blur(const uint16_t *lapmap, const size_t size);
+25
View File
@@ -0,0 +1,25 @@
#ifndef __UAPI_CAM_CPAS_H__
#define __UAPI_CAM_CPAS_H__
#include "cam_defs.h"
#define CAM_FAMILY_CAMERA_SS 1
#define CAM_FAMILY_CPAS_SS 2
/**
* struct cam_cpas_query_cap - CPAS query device capability payload
*
* @camera_family : Camera family type
* @reserved : Reserved field for alignment
* @camera_version : Camera platform version
* @cpas_version : Camera CPAS version within camera platform
*
*/
struct cam_cpas_query_cap {
uint32_t camera_family;
uint32_t reserved;
struct cam_hw_version camera_version;
struct cam_hw_version cpas_version;
};
#endif /* __UAPI_CAM_CPAS_H__ */
+477
View File
@@ -0,0 +1,477 @@
#ifndef __UAPI_CAM_DEFS_H__
#define __UAPI_CAM_DEFS_H__
#include <linux/videodev2.h>
#include <linux/types.h>
#include <linux/ioctl.h>
/* camera op codes */
#define CAM_COMMON_OPCODE_BASE 0x100
#define CAM_QUERY_CAP (CAM_COMMON_OPCODE_BASE + 0x1)
#define CAM_ACQUIRE_DEV (CAM_COMMON_OPCODE_BASE + 0x2)
#define CAM_START_DEV (CAM_COMMON_OPCODE_BASE + 0x3)
#define CAM_STOP_DEV (CAM_COMMON_OPCODE_BASE + 0x4)
#define CAM_CONFIG_DEV (CAM_COMMON_OPCODE_BASE + 0x5)
#define CAM_RELEASE_DEV (CAM_COMMON_OPCODE_BASE + 0x6)
#define CAM_SD_SHUTDOWN (CAM_COMMON_OPCODE_BASE + 0x7)
#define CAM_FLUSH_REQ (CAM_COMMON_OPCODE_BASE + 0x8)
#define CAM_COMMON_OPCODE_MAX (CAM_COMMON_OPCODE_BASE + 0x9)
#define CAM_EXT_OPCODE_BASE 0x200
#define CAM_CONFIG_DEV_EXTERNAL (CAM_EXT_OPCODE_BASE + 0x1)
/* camera handle type */
#define CAM_HANDLE_USER_POINTER 1
#define CAM_HANDLE_MEM_HANDLE 2
/* Generic Blob CmdBuffer header properties */
#define CAM_GENERIC_BLOB_CMDBUFFER_SIZE_MASK 0xFFFFFF00
#define CAM_GENERIC_BLOB_CMDBUFFER_SIZE_SHIFT 8
#define CAM_GENERIC_BLOB_CMDBUFFER_TYPE_MASK 0xFF
#define CAM_GENERIC_BLOB_CMDBUFFER_TYPE_SHIFT 0
/* Command Buffer Types */
#define CAM_CMD_BUF_DMI 0x1
#define CAM_CMD_BUF_DMI16 0x2
#define CAM_CMD_BUF_DMI32 0x3
#define CAM_CMD_BUF_DMI64 0x4
#define CAM_CMD_BUF_DIRECT 0x5
#define CAM_CMD_BUF_INDIRECT 0x6
#define CAM_CMD_BUF_I2C 0x7
#define CAM_CMD_BUF_FW 0x8
#define CAM_CMD_BUF_GENERIC 0x9
#define CAM_CMD_BUF_LEGACY 0xA
/**
* enum flush_type_t - Identifies the various flush types
*
* @CAM_FLUSH_TYPE_REQ: Flush specific request
* @CAM_FLUSH_TYPE_ALL: Flush all requests belonging to a context
* @CAM_FLUSH_TYPE_MAX: Max enum to validate flush type
*
*/
enum flush_type_t {
CAM_FLUSH_TYPE_REQ,
CAM_FLUSH_TYPE_ALL,
CAM_FLUSH_TYPE_MAX
};
/**
* struct cam_control - Structure used by ioctl control for camera
*
* @op_code: This is the op code for camera control
* @size: Control command size
* @handle_type: User pointer or shared memory handle
* @reserved: Reserved field for 64 bit alignment
* @handle: Control command payload
*/
struct cam_control {
uint32_t op_code;
uint32_t size;
uint32_t handle_type;
uint32_t reserved;
uint64_t handle;
};
/* camera IOCTL */
#define VIDIOC_CAM_CONTROL \
_IOWR('V', BASE_VIDIOC_PRIVATE, struct cam_control)
/**
* struct cam_hw_version - Structure for HW version of camera devices
*
* @major : Hardware version major
* @minor : Hardware version minor
* @incr : Hardware version increment
* @reserved : Reserved for 64 bit aligngment
*/
struct cam_hw_version {
uint32_t major;
uint32_t minor;
uint32_t incr;
uint32_t reserved;
};
/**
* struct cam_iommu_handle - Structure for IOMMU handles of camera hw devices
*
* @non_secure: Device Non Secure IOMMU handle
* @secure: Device Secure IOMMU handle
*
*/
struct cam_iommu_handle {
int32_t non_secure;
int32_t secure;
};
/* camera secure mode */
#define CAM_SECURE_MODE_NON_SECURE 0
#define CAM_SECURE_MODE_SECURE 1
/* Camera Format Type */
#define CAM_FORMAT_BASE 0
#define CAM_FORMAT_MIPI_RAW_6 1
#define CAM_FORMAT_MIPI_RAW_8 2
#define CAM_FORMAT_MIPI_RAW_10 3
#define CAM_FORMAT_MIPI_RAW_12 4
#define CAM_FORMAT_MIPI_RAW_14 5
#define CAM_FORMAT_MIPI_RAW_16 6
#define CAM_FORMAT_MIPI_RAW_20 7
#define CAM_FORMAT_QTI_RAW_8 8
#define CAM_FORMAT_QTI_RAW_10 9
#define CAM_FORMAT_QTI_RAW_12 10
#define CAM_FORMAT_QTI_RAW_14 11
#define CAM_FORMAT_PLAIN8 12
#define CAM_FORMAT_PLAIN16_8 13
#define CAM_FORMAT_PLAIN16_10 14
#define CAM_FORMAT_PLAIN16_12 15
#define CAM_FORMAT_PLAIN16_14 16
#define CAM_FORMAT_PLAIN16_16 17
#define CAM_FORMAT_PLAIN32_20 18
#define CAM_FORMAT_PLAIN64 19
#define CAM_FORMAT_PLAIN128 20
#define CAM_FORMAT_ARGB 21
#define CAM_FORMAT_ARGB_10 22
#define CAM_FORMAT_ARGB_12 23
#define CAM_FORMAT_ARGB_14 24
#define CAM_FORMAT_DPCM_10_6_10 25
#define CAM_FORMAT_DPCM_10_8_10 26
#define CAM_FORMAT_DPCM_12_6_12 27
#define CAM_FORMAT_DPCM_12_8_12 28
#define CAM_FORMAT_DPCM_14_8_14 29
#define CAM_FORMAT_DPCM_14_10_14 30
#define CAM_FORMAT_NV21 31
#define CAM_FORMAT_NV12 32
#define CAM_FORMAT_TP10 33
#define CAM_FORMAT_YUV422 34
#define CAM_FORMAT_PD8 35
#define CAM_FORMAT_PD10 36
#define CAM_FORMAT_UBWC_NV12 37
#define CAM_FORMAT_UBWC_NV12_4R 38
#define CAM_FORMAT_UBWC_TP10 39
#define CAM_FORMAT_UBWC_P010 40
#define CAM_FORMAT_PLAIN8_SWAP 41
#define CAM_FORMAT_PLAIN8_10 42
#define CAM_FORMAT_PLAIN8_10_SWAP 43
#define CAM_FORMAT_YV12 44
#define CAM_FORMAT_Y_ONLY 45
#define CAM_FORMAT_MAX 46
/* camera rotaion */
#define CAM_ROTATE_CW_0_DEGREE 0
#define CAM_ROTATE_CW_90_DEGREE 1
#define CAM_RORATE_CW_180_DEGREE 2
#define CAM_ROTATE_CW_270_DEGREE 3
/* camera Color Space */
#define CAM_COLOR_SPACE_BASE 0
#define CAM_COLOR_SPACE_BT601_FULL 1
#define CAM_COLOR_SPACE_BT601625 2
#define CAM_COLOR_SPACE_BT601525 3
#define CAM_COLOR_SPACE_BT709 4
#define CAM_COLOR_SPACE_DEPTH 5
#define CAM_COLOR_SPACE_MAX 6
/* camera buffer direction */
#define CAM_BUF_INPUT 1
#define CAM_BUF_OUTPUT 2
#define CAM_BUF_IN_OUT 3
/* camera packet device Type */
#define CAM_PACKET_DEV_BASE 0
#define CAM_PACKET_DEV_IMG_SENSOR 1
#define CAM_PACKET_DEV_ACTUATOR 2
#define CAM_PACKET_DEV_COMPANION 3
#define CAM_PACKET_DEV_EEPOM 4
#define CAM_PACKET_DEV_CSIPHY 5
#define CAM_PACKET_DEV_OIS 6
#define CAM_PACKET_DEV_FLASH 7
#define CAM_PACKET_DEV_FD 8
#define CAM_PACKET_DEV_JPEG_ENC 9
#define CAM_PACKET_DEV_JPEG_DEC 10
#define CAM_PACKET_DEV_VFE 11
#define CAM_PACKET_DEV_CPP 12
#define CAM_PACKET_DEV_CSID 13
#define CAM_PACKET_DEV_ISPIF 14
#define CAM_PACKET_DEV_IFE 15
#define CAM_PACKET_DEV_ICP 16
#define CAM_PACKET_DEV_LRME 17
#define CAM_PACKET_DEV_MAX 18
/* constants */
#define CAM_PACKET_MAX_PLANES 3
/**
* struct cam_plane_cfg - Plane configuration info
*
* @width: Plane width in pixels
* @height: Plane height in lines
* @plane_stride: Plane stride in pixel
* @slice_height: Slice height in line (not used by ISP)
* @meta_stride: UBWC metadata stride
* @meta_size: UBWC metadata plane size
* @meta_offset: UBWC metadata offset
* @packer_config: UBWC packer config
* @mode_config: UBWC mode config
* @tile_config: UBWC tile config
* @h_init: UBWC horizontal initial coordinate in pixels
* @v_init: UBWC vertical initial coordinate in lines
*
*/
struct cam_plane_cfg {
uint32_t width;
uint32_t height;
uint32_t plane_stride;
uint32_t slice_height;
uint32_t meta_stride;
uint32_t meta_size;
uint32_t meta_offset;
uint32_t packer_config;
uint32_t mode_config;
uint32_t tile_config;
uint32_t h_init;
uint32_t v_init;
};
/**
* struct cam_cmd_buf_desc - Command buffer descriptor
*
* @mem_handle: Command buffer handle
* @offset: Command start offset
* @size: Size of the command buffer in bytes
* @length: Used memory in command buffer in bytes
* @type: Type of the command buffer
* @meta_data: Data type for private command buffer
* Between UMD and KMD
*
*/
struct cam_cmd_buf_desc {
int32_t mem_handle;
uint32_t offset;
uint32_t size;
uint32_t length;
uint32_t type;
uint32_t meta_data;
};
/**
* struct cam_buf_io_cfg - Buffer io configuration for buffers
*
* @mem_handle: Mem_handle array for the buffers.
* @offsets: Offsets for each planes in the buffer
* @planes: Per plane information
* @width: Main plane width in pixel
* @height: Main plane height in lines
* @format: Format of the buffer
* @color_space: Color space for the buffer
* @color_pattern: Color pattern in the buffer
* @bpp: Bit per pixel
* @rotation: Rotation information for the buffer
* @resource_type: Resource type associated with the buffer
* @fence: Fence handle
* @early_fence: Fence handle for early signal
* @aux_cmd_buf: An auxiliary command buffer that may be
* used for programming the IO
* @direction: Direction of the config
* @batch_size: Batch size in HFR mode
* @subsample_pattern: Subsample pattern. Used in HFR mode. It
* should be consistent with batchSize and
* CAMIF programming.
* @subsample_period: Subsample period. Used in HFR mode. It
* should be consistent with batchSize and
* CAMIF programming.
* @framedrop_pattern: Framedrop pattern
* @framedrop_period: Framedrop period
* @flag: Flags for extra information
* @direction: Buffer direction: input or output
* @padding: Padding for the structure
*
*/
struct cam_buf_io_cfg {
int32_t mem_handle[CAM_PACKET_MAX_PLANES];
uint32_t offsets[CAM_PACKET_MAX_PLANES];
struct cam_plane_cfg planes[CAM_PACKET_MAX_PLANES];
uint32_t format;
uint32_t color_space;
uint32_t color_pattern;
uint32_t bpp;
uint32_t rotation;
uint32_t resource_type;
int32_t fence;
int32_t early_fence;
struct cam_cmd_buf_desc aux_cmd_buf;
uint32_t direction;
uint32_t batch_size;
uint32_t subsample_pattern;
uint32_t subsample_period;
uint32_t framedrop_pattern;
uint32_t framedrop_period;
uint32_t flag;
uint32_t padding;
};
/**
* struct cam_packet_header - Camera packet header
*
* @op_code: Camera packet opcode
* @size: Size of the camera packet in bytes
* @request_id: Request id for this camera packet
* @flags: Flags for the camera packet
* @padding: Padding
*
*/
struct cam_packet_header {
uint32_t op_code;
uint32_t size;
uint64_t request_id;
uint32_t flags;
uint32_t padding;
};
/**
* struct cam_patch_desc - Patch structure
*
* @dst_buf_hdl: Memory handle for the dest buffer
* @dst_offset: Offset byte in the dest buffer
* @src_buf_hdl: Memory handle for the source buffer
* @src_offset: Offset byte in the source buffer
*
*/
struct cam_patch_desc {
int32_t dst_buf_hdl;
uint32_t dst_offset;
int32_t src_buf_hdl;
uint32_t src_offset;
};
/**
* struct cam_packet - Camera packet structure
*
* @header: Camera packet header
* @cmd_buf_offset: Command buffer start offset
* @num_cmd_buf: Number of the command buffer in the packet
* @io_config_offset: Buffer io configuration start offset
* @num_io_configs: Number of the buffer io configurations
* @patch_offset: Patch offset for the patch structure
* @num_patches: Number of the patch structure
* @kmd_cmd_buf_index: Command buffer index which contains extra
* space for the KMD buffer
* @kmd_cmd_buf_offset: Offset from the beginning of the command
* buffer for KMD usage.
* @payload: Camera packet payload
*
*/
struct cam_packet {
struct cam_packet_header header;
uint32_t cmd_buf_offset;
uint32_t num_cmd_buf;
uint32_t io_configs_offset;
uint32_t num_io_configs;
uint32_t patch_offset;
uint32_t num_patches;
uint32_t kmd_cmd_buf_index;
uint32_t kmd_cmd_buf_offset;
uint64_t payload[1];
};
/**
* struct cam_release_dev_cmd - Control payload for release devices
*
* @session_handle: Session handle for the release
* @dev_handle: Device handle for the release
*/
struct cam_release_dev_cmd {
int32_t session_handle;
int32_t dev_handle;
};
/**
* struct cam_start_stop_dev_cmd - Control payload for start/stop device
*
* @session_handle: Session handle for the start/stop command
* @dev_handle: Device handle for the start/stop command
*
*/
struct cam_start_stop_dev_cmd {
int32_t session_handle;
int32_t dev_handle;
};
/**
* struct cam_config_dev_cmd - Command payload for configure device
*
* @session_handle: Session handle for the command
* @dev_handle: Device handle for the command
* @offset: Offset byte in the packet handle.
* @packet_handle: Packet memory handle for the actual packet:
* struct cam_packet.
*
*/
struct cam_config_dev_cmd {
int32_t session_handle;
int32_t dev_handle;
uint64_t offset;
uint64_t packet_handle;
};
/**
* struct cam_query_cap_cmd - Payload for query device capability
*
* @size: Handle size
* @handle_type: User pointer or shared memory handle
* @caps_handle: Device specific query command payload
*
*/
struct cam_query_cap_cmd {
uint32_t size;
uint32_t handle_type;
uint64_t caps_handle;
};
/**
* struct cam_acquire_dev_cmd - Control payload for acquire devices
*
* @session_handle: Session handle for the acquire command
* @dev_handle: Device handle to be returned
* @handle_type: Resource handle type:
* 1 = user pointer, 2 = mem handle
* @num_resources: Number of the resources to be acquired
* @resources_hdl: Resource handle that refers to the actual
* resource array. Each item in this
* array is device specific resource structure
*
*/
struct cam_acquire_dev_cmd {
int32_t session_handle;
int32_t dev_handle;
uint32_t handle_type;
uint32_t num_resources;
uint64_t resource_hdl;
};
/**
* struct cam_flush_dev_cmd - Control payload for flush devices
*
* @version: Version
* @session_handle: Session handle for the acquire command
* @dev_handle: Device handle to be returned
* @flush_type: Flush type:
* 0 = flush specific request
* 1 = flush all
* @reserved: Reserved for 64 bit aligngment
* @req_id: Request id that needs to cancel
*
*/
struct cam_flush_dev_cmd {
uint64_t version;
int32_t session_handle;
int32_t dev_handle;
uint32_t flush_type;
uint32_t reserved;
int64_t req_id;
};
#endif /* __UAPI_CAM_DEFS_H__ */
+127
View File
@@ -0,0 +1,127 @@
#ifndef __UAPI_CAM_FD_H__
#define __UAPI_CAM_FD_H__
#include "cam_defs.h"
#define CAM_FD_MAX_FACES 35
#define CAM_FD_RAW_RESULT_ENTRIES 512
/* FD Op Codes */
#define CAM_PACKET_OPCODES_FD_FRAME_UPDATE 0x0
/* FD Command Buffer identifiers */
#define CAM_FD_CMD_BUFFER_ID_GENERIC 0x0
#define CAM_FD_CMD_BUFFER_ID_CDM 0x1
#define CAM_FD_CMD_BUFFER_ID_MAX 0x2
/* FD Blob types */
#define CAM_FD_BLOB_TYPE_SOC_CLOCK_BW_REQUEST 0x0
#define CAM_FD_BLOB_TYPE_RAW_RESULTS_REQUIRED 0x1
/* FD Resource IDs */
#define CAM_FD_INPUT_PORT_ID_IMAGE 0x0
#define CAM_FD_INPUT_PORT_ID_MAX 0x1
#define CAM_FD_OUTPUT_PORT_ID_RESULTS 0x0
#define CAM_FD_OUTPUT_PORT_ID_RAW_RESULTS 0x1
#define CAM_FD_OUTPUT_PORT_ID_WORK_BUFFER 0x2
#define CAM_FD_OUTPUT_PORT_ID_MAX 0x3
/**
* struct cam_fd_soc_clock_bw_request - SOC clock, bandwidth request info
*
* @clock_rate : Clock rate required while processing frame
* @bandwidth : Bandwidth required while processing frame
* @reserved : Reserved for future use
*/
struct cam_fd_soc_clock_bw_request {
uint64_t clock_rate;
uint64_t bandwidth;
uint64_t reserved[4];
};
/**
* struct cam_fd_face - Face properties
*
* @prop1 : Property 1 of face
* @prop2 : Property 2 of face
* @prop3 : Property 3 of face
* @prop4 : Property 4 of face
*
* Do not change this layout, this is inline with how HW writes
* these values directly when the buffer is programmed to HW
*/
struct cam_fd_face {
uint32_t prop1;
uint32_t prop2;
uint32_t prop3;
uint32_t prop4;
};
/**
* struct cam_fd_results - FD results layout
*
* @faces : Array of faces with face properties
* @face_count : Number of faces detected
* @reserved : Reserved for alignment
*
* Do not change this layout, this is inline with how HW writes
* these values directly when the buffer is programmed to HW
*/
struct cam_fd_results {
struct cam_fd_face faces[CAM_FD_MAX_FACES];
uint32_t face_count;
uint32_t reserved[3];
};
/**
* struct cam_fd_hw_caps - Face properties
*
* @core_version : FD core version
* @wrapper_version : FD wrapper version
* @raw_results_available : Whether raw results are available on this HW
* @supported_modes : Modes supported by this HW.
* @reserved : Reserved for future use
*/
struct cam_fd_hw_caps {
struct cam_hw_version core_version;
struct cam_hw_version wrapper_version;
uint32_t raw_results_available;
uint32_t supported_modes;
uint64_t reserved;
};
/**
* struct cam_fd_query_cap_cmd - FD Query capabilities information
*
* @device_iommu : FD IOMMU handles
* @cdm_iommu : CDM iommu handles
* @hw_caps : FD HW capabilities
* @reserved : Reserved for alignment
*/
struct cam_fd_query_cap_cmd {
struct cam_iommu_handle device_iommu;
struct cam_iommu_handle cdm_iommu;
struct cam_fd_hw_caps hw_caps;
uint64_t reserved;
};
/**
* struct cam_fd_acquire_dev_info - FD acquire device information
*
* @clk_bw_request : SOC clock, bandwidth request
* @priority : Priority for this acquire
* @mode : Mode in which to run FD HW.
* @get_raw_results : Whether this acquire needs face raw results
* while frame processing
* @reserved : Reserved field for 64 bit alignment
*/
struct cam_fd_acquire_dev_info {
struct cam_fd_soc_clock_bw_request clk_bw_request;
uint32_t priority;
uint32_t mode;
uint32_t get_raw_results;
uint32_t reserved[13];
};
#endif /* __UAPI_CAM_FD_H__ */
+179
View File
@@ -0,0 +1,179 @@
#ifndef __UAPI_CAM_ICP_H__
#define __UAPI_CAM_ICP_H__
#include "cam_defs.h"
/* icp, ipe, bps, cdm(ipe/bps) are used in querycap */
#define CAM_ICP_DEV_TYPE_A5 1
#define CAM_ICP_DEV_TYPE_IPE 2
#define CAM_ICP_DEV_TYPE_BPS 3
#define CAM_ICP_DEV_TYPE_IPE_CDM 4
#define CAM_ICP_DEV_TYPE_BPS_CDM 5
#define CAM_ICP_DEV_TYPE_MAX 5
/* definitions needed for icp aquire device */
#define CAM_ICP_RES_TYPE_BPS 1
#define CAM_ICP_RES_TYPE_IPE_RT 2
#define CAM_ICP_RES_TYPE_IPE 3
#define CAM_ICP_RES_TYPE_MAX 4
/* packet opcode types */
#define CAM_ICP_OPCODE_IPE_UPDATE 0
#define CAM_ICP_OPCODE_BPS_UPDATE 1
/* IPE input port resource type */
#define CAM_ICP_IPE_INPUT_IMAGE_FULL 0x0
#define CAM_ICP_IPE_INPUT_IMAGE_DS4 0x1
#define CAM_ICP_IPE_INPUT_IMAGE_DS16 0x2
#define CAM_ICP_IPE_INPUT_IMAGE_DS64 0x3
#define CAM_ICP_IPE_INPUT_IMAGE_FULL_REF 0x4
#define CAM_ICP_IPE_INPUT_IMAGE_DS4_REF 0x5
#define CAM_ICP_IPE_INPUT_IMAGE_DS16_REF 0x6
#define CAM_ICP_IPE_INPUT_IMAGE_DS64_REF 0x7
/* IPE output port resource type */
#define CAM_ICP_IPE_OUTPUT_IMAGE_DISPLAY 0x8
#define CAM_ICP_IPE_OUTPUT_IMAGE_VIDEO 0x9
#define CAM_ICP_IPE_OUTPUT_IMAGE_FULL_REF 0xA
#define CAM_ICP_IPE_OUTPUT_IMAGE_DS4_REF 0xB
#define CAM_ICP_IPE_OUTPUT_IMAGE_DS16_REF 0xC
#define CAM_ICP_IPE_OUTPUT_IMAGE_DS64_REF 0xD
#define CAM_ICP_IPE_IMAGE_MAX 0xE
/* BPS input port resource type */
#define CAM_ICP_BPS_INPUT_IMAGE 0x0
/* BPS output port resource type */
#define CAM_ICP_BPS_OUTPUT_IMAGE_FULL 0x1
#define CAM_ICP_BPS_OUTPUT_IMAGE_DS4 0x2
#define CAM_ICP_BPS_OUTPUT_IMAGE_DS16 0x3
#define CAM_ICP_BPS_OUTPUT_IMAGE_DS64 0x4
#define CAM_ICP_BPS_OUTPUT_IMAGE_STATS_BG 0x5
#define CAM_ICP_BPS_OUTPUT_IMAGE_STATS_BHIST 0x6
#define CAM_ICP_BPS_OUTPUT_IMAGE_REG1 0x7
#define CAM_ICP_BPS_OUTPUT_IMAGE_REG2 0x8
#define CAM_ICP_BPS_IO_IMAGES_MAX 0x9
/* Command meta types */
#define CAM_ICP_CMD_META_GENERIC_BLOB 0x1
/* Generic blob types */
#define CAM_ICP_CMD_GENERIC_BLOB_CLK 0x1
#define CAM_ICP_CMD_GENERIC_BLOB_CFG_IO 0x2
/**
* struct cam_icp_clk_bw_request
*
* @budget_ns: Time required to process frame
* @frame_cycles: Frame cycles needed to process the frame
* @rt_flag: Flag to indicate real time stream
* @uncompressed_bw: Bandwidth required to process frame
* @compressed_bw: Compressed bandwidth to process frame
*/
struct cam_icp_clk_bw_request {
uint64_t budget_ns;
uint32_t frame_cycles;
uint32_t rt_flag;
uint64_t uncompressed_bw;
uint64_t compressed_bw;
};
/**
* struct cam_icp_dev_ver - Device information for particular hw type
*
* This is used to get device version info of
* ICP, IPE, BPS and CDM related IPE and BPS from firmware
* and use this info in CAM_QUERY_CAP IOCTL
*
* @dev_type: hardware type for the cap info(icp, ipe, bps, cdm(ipe/bps))
* @reserved: reserved field
* @hw_ver: major, minor and incr values of a device version
*/
struct cam_icp_dev_ver {
uint32_t dev_type;
uint32_t reserved;
struct cam_hw_version hw_ver;
};
/**
* struct cam_icp_ver - ICP version info
*
* This strcuture is used for fw and api version
* this is used to get firmware version and api version from firmware
* and use this info in CAM_QUERY_CAP IOCTL
*
* @major: FW version major
* @minor: FW version minor
* @revision: FW version increment
*/
struct cam_icp_ver {
uint32_t major;
uint32_t minor;
uint32_t revision;
uint32_t reserved;
};
/**
* struct cam_icp_query_cap_cmd - ICP query device capability payload
*
* @dev_iommu_handle: icp iommu handles for secure/non secure modes
* @cdm_iommu_handle: iommu handles for secure/non secure modes
* @fw_version: firmware version info
* @api_version: api version info
* @num_ipe: number of ipes
* @num_bps: number of bps
* @dev_ver: returned device capability array
*/
struct cam_icp_query_cap_cmd {
struct cam_iommu_handle dev_iommu_handle;
struct cam_iommu_handle cdm_iommu_handle;
struct cam_icp_ver fw_version;
struct cam_icp_ver api_version;
uint32_t num_ipe;
uint32_t num_bps;
struct cam_icp_dev_ver dev_ver[CAM_ICP_DEV_TYPE_MAX];
};
/**
* struct cam_icp_res_info - ICP output resource info
*
* @format: format of the resource
* @width: width in pixels
* @height: height in lines
* @fps: fps
*/
struct cam_icp_res_info {
uint32_t format;
uint32_t width;
uint32_t height;
uint32_t fps;
};
/**
* struct cam_icp_acquire_dev_info - An ICP device info
*
* @scratch_mem_size: Output param - size of scratch memory
* @dev_type: device type (IPE_RT/IPE_NON_RT/BPS)
* @io_config_cmd_size: size of IO config command
* @io_config_cmd_handle: IO config command for each acquire
* @secure_mode: camera mode (secure/non secure)
* @chain_info: chaining info of FW device handles
* @in_res: resource info used for clock and bandwidth calculation
* @num_out_res: number of output resources
* @out_res: output resource
*/
struct cam_icp_acquire_dev_info {
uint32_t scratch_mem_size;
uint32_t dev_type;
uint32_t io_config_cmd_size;
int32_t io_config_cmd_handle;
uint32_t secure_mode;
int32_t chain_info;
struct cam_icp_res_info in_res;
uint32_t num_out_res;
struct cam_icp_res_info out_res[1];
} __attribute__((__packed__));
#endif /* __UAPI_CAM_ICP_H__ */
+379
View File
@@ -0,0 +1,379 @@
#ifndef __UAPI_CAM_ISP_H__
#define __UAPI_CAM_ISP_H__
#include "cam_defs.h"
#include "cam_isp_vfe.h"
#include "cam_isp_ife.h"
/* ISP driver name */
#define CAM_ISP_DEV_NAME "cam-isp"
/* HW type */
#define CAM_ISP_HW_BASE 0
#define CAM_ISP_HW_CSID 1
#define CAM_ISP_HW_VFE 2
#define CAM_ISP_HW_IFE 3
#define CAM_ISP_HW_ISPIF 4
#define CAM_ISP_HW_MAX 5
/* Color Pattern */
#define CAM_ISP_PATTERN_BAYER_RGRGRG 0
#define CAM_ISP_PATTERN_BAYER_GRGRGR 1
#define CAM_ISP_PATTERN_BAYER_BGBGBG 2
#define CAM_ISP_PATTERN_BAYER_GBGBGB 3
#define CAM_ISP_PATTERN_YUV_YCBYCR 4
#define CAM_ISP_PATTERN_YUV_YCRYCB 5
#define CAM_ISP_PATTERN_YUV_CBYCRY 6
#define CAM_ISP_PATTERN_YUV_CRYCBY 7
#define CAM_ISP_PATTERN_MAX 8
/* Usage Type */
#define CAM_ISP_RES_USAGE_SINGLE 0
#define CAM_ISP_RES_USAGE_DUAL 1
#define CAM_ISP_RES_USAGE_MAX 2
/* Resource ID */
#define CAM_ISP_RES_ID_PORT 0
#define CAM_ISP_RES_ID_CLK 1
#define CAM_ISP_RES_ID_MAX 2
/* Resource Type - Type of resource for the resource id
* defined in cam_isp_vfe.h, cam_isp_ife.h
*/
/* Lane Type in input resource for Port */
#define CAM_ISP_LANE_TYPE_DPHY 0
#define CAM_ISP_LANE_TYPE_CPHY 1
#define CAM_ISP_LANE_TYPE_MAX 2
/* ISP Resurce Composite Group ID */
#define CAM_ISP_RES_COMP_GROUP_NONE 0
#define CAM_ISP_RES_COMP_GROUP_ID_0 1
#define CAM_ISP_RES_COMP_GROUP_ID_1 2
#define CAM_ISP_RES_COMP_GROUP_ID_2 3
#define CAM_ISP_RES_COMP_GROUP_ID_3 4
#define CAM_ISP_RES_COMP_GROUP_ID_4 5
#define CAM_ISP_RES_COMP_GROUP_ID_5 6
#define CAM_ISP_RES_COMP_GROUP_ID_MAX 6
/* ISP packet opcode for ISP */
#define CAM_ISP_PACKET_OP_BASE 0
#define CAM_ISP_PACKET_INIT_DEV 1
#define CAM_ISP_PACKET_UPDATE_DEV 2
#define CAM_ISP_PACKET_OP_MAX 3
/* ISP packet meta_data type for command buffer */
#define CAM_ISP_PACKET_META_BASE 0
#define CAM_ISP_PACKET_META_LEFT 1
#define CAM_ISP_PACKET_META_RIGHT 2
#define CAM_ISP_PACKET_META_COMMON 3
#define CAM_ISP_PACKET_META_DMI_LEFT 4
#define CAM_ISP_PACKET_META_DMI_RIGHT 5
#define CAM_ISP_PACKET_META_DMI_COMMON 6
#define CAM_ISP_PACKET_META_CLOCK 7
#define CAM_ISP_PACKET_META_CSID 8
#define CAM_ISP_PACKET_META_DUAL_CONFIG 9
#define CAM_ISP_PACKET_META_GENERIC_BLOB_LEFT 10
#define CAM_ISP_PACKET_META_GENERIC_BLOB_RIGHT 11
#define CAM_ISP_PACKET_META_GENERIC_BLOB_COMMON 12
/* DSP mode */
#define CAM_ISP_DSP_MODE_NONE 0
#define CAM_ISP_DSP_MODE_ONE_WAY 1
#define CAM_ISP_DSP_MODE_ROUND 2
/* ISP Generic Cmd Buffer Blob types */
#define CAM_ISP_GENERIC_BLOB_TYPE_HFR_CONFIG 0
#define CAM_ISP_GENERIC_BLOB_TYPE_CLOCK_CONFIG 1
#define CAM_ISP_GENERIC_BLOB_TYPE_BW_CONFIG 2
/* Query devices */
/**
* struct cam_isp_dev_cap_info - A cap info for particular hw type
*
* @hw_type: Hardware type for the cap info
* @reserved: reserved field for alignment
* @hw_version: Hardware version
*
*/
struct cam_isp_dev_cap_info {
uint32_t hw_type;
uint32_t reserved;
struct cam_hw_version hw_version;
};
/**
* struct cam_isp_query_cap_cmd - ISP query device capability payload
*
* @device_iommu: returned iommu handles for device
* @cdm_iommu: returned iommu handles for cdm
* @num_dev: returned number of device capabilities
* @reserved: reserved field for alignment
* @dev_caps: returned device capability array
*
*/
struct cam_isp_query_cap_cmd {
struct cam_iommu_handle device_iommu;
struct cam_iommu_handle cdm_iommu;
int32_t num_dev;
uint32_t reserved;
struct cam_isp_dev_cap_info dev_caps[CAM_ISP_HW_MAX];
};
/* Acquire Device */
/**
* struct cam_isp_out_port_info - An output port resource info
*
* @res_type: output resource type defined in file
* cam_isp_vfe.h or cam_isp_ife.h
* @format: output format of the resource
* @wdith: output width in pixels
* @height: output height in lines
* @comp_grp_id: composite group id for the resource.
* @split_point: split point in pixels for the dual VFE.
* @secure_mode: flag to tell if output should be run in secure
* mode or not. See cam_defs.h for definition
* @reserved: reserved field for alignment
*
*/
struct cam_isp_out_port_info {
uint32_t res_type;
uint32_t format;
uint32_t width;
uint32_t height;
uint32_t comp_grp_id;
uint32_t split_point;
uint32_t secure_mode;
uint32_t reserved;
};
/**
* struct cam_isp_in_port_info - An input port resource info
*
* @res_type: input resource type define in file
* cam_isp_vfe.h or cam_isp_ife.h
* @lane_type: lane type: c-phy or d-phy.
* @lane_num: active lane number
* @lane_cfg: lane configurations: 4 bits per lane
* @vc: input virtual channel number
* @dt: input data type number
* @format: input format
* @test_pattern: test pattern for the testgen
* @usage_type: whether dual vfe is required
* @left_start: left input start offset in pixels
* @left_stop: left input stop offset in pixels
* @left_width: left input width in pixels
* @right_start: right input start offset in pixels.
* Only for Dual VFE
* @right_stop: right input stop offset in pixels.
* Only for Dual VFE
* @right_width: right input width in pixels.
* Only for dual VFE
* @line_start: top of the line number
* @line_stop: bottome of the line number
* @height: input height in lines
* @pixel_clk; sensor output clock
* @batch_size: batch size for HFR mode
* @dsp_mode: DSP stream mode (Defines as CAM_ISP_DSP_MODE_*)
* @hbi_cnt: HBI count for the camif input
* @reserved: Reserved field for alignment
* @num_out_res: number of the output resource associated
* @data: payload that contains the output resources
*
*/
struct cam_isp_in_port_info {
uint32_t res_type;
uint32_t lane_type;
uint32_t lane_num;
uint32_t lane_cfg;
uint32_t vc;
uint32_t dt;
uint32_t format;
uint32_t test_pattern;
uint32_t usage_type;
uint32_t left_start;
uint32_t left_stop;
uint32_t left_width;
uint32_t right_start;
uint32_t right_stop;
uint32_t right_width;
uint32_t line_start;
uint32_t line_stop;
uint32_t height;
uint32_t pixel_clk;
uint32_t batch_size;
uint32_t dsp_mode;
uint32_t hbi_cnt;
uint32_t custom_csid;
uint32_t reserved;
uint32_t num_out_res;
struct cam_isp_out_port_info data[1];
};
/**
* struct cam_isp_resource - A resource bundle
*
* @resoruce_id: resource id for the resource bundle
* @length: length of the while resource blob
* @handle_type: type of the resource handle
* @reserved: reserved field for alignment
* @res_hdl: resource handle that points to the
* resource array;
*
*/
struct cam_isp_resource {
uint32_t resource_id;
uint32_t length;
uint32_t handle_type;
uint32_t reserved;
uint64_t res_hdl;
};
/**
* struct cam_isp_port_hfr_config - HFR configuration for this port
*
* @resource_type: Resource type
* @subsample_pattern: Subsample pattern. Used in HFR mode. It
* should be consistent with batchSize and
* CAMIF programming.
* @subsample_period: Subsample period. Used in HFR mode. It
* should be consistent with batchSize and
* CAMIF programming.
* @framedrop_pattern: Framedrop pattern
* @framedrop_period: Framedrop period
* @reserved: Reserved for alignment
*/
struct cam_isp_port_hfr_config {
uint32_t resource_type;
uint32_t subsample_pattern;
uint32_t subsample_period;
uint32_t framedrop_pattern;
uint32_t framedrop_period;
uint32_t reserved;
} __attribute__((packed));
/**
* struct cam_isp_resource_hfr_config - Resource HFR configuration
*
* @num_ports: Number of ports
* @reserved: Reserved for alignment
* @port_hfr_config: HFR configuration for each IO port
*/
struct cam_isp_resource_hfr_config {
uint32_t num_ports;
uint32_t reserved;
struct cam_isp_port_hfr_config port_hfr_config[1];
} __attribute__((packed));
/**
* struct cam_isp_dual_split_params - dual isp spilt parameters
*
* @split_point: Split point information x, where (0 < x < width)
* left ISP's input ends at x + righ padding and
* Right ISP's input starts at x - left padding
* @right_padding: Padding added past the split point for left
* ISP's input
* @left_padding: Padding added before split point for right
* ISP's input
* @reserved: Reserved filed for alignment
*
*/
struct cam_isp_dual_split_params {
uint32_t split_point;
uint32_t right_padding;
uint32_t left_padding;
uint32_t reserved;
};
/**
* struct cam_isp_dual_stripe_config - stripe config per bus client
*
* @offset: Start horizontal offset relative to
* output buffer
* In UBWC mode, this value indicates the H_INIT
* value in pixel
* @width: Width of the stripe in bytes
* @tileconfig Ubwc meta tile config. Contain the partial
* tile info
* @port_id: port id of ISP output
*
*/
struct cam_isp_dual_stripe_config {
uint32_t offset;
uint32_t width;
uint32_t tileconfig;
uint32_t port_id;
};
/**
* struct cam_isp_dual_config - dual isp configuration
*
* @num_ports Number of isp output ports
* @reserved Reserved field for alignment
* @split_params: Inpput split parameters
* @stripes: Stripe information
*
*/
struct cam_isp_dual_config {
uint32_t num_ports;
uint32_t reserved;
struct cam_isp_dual_split_params split_params;
struct cam_isp_dual_stripe_config stripes[1];
} __attribute__((packed));
/**
* struct cam_isp_clock_config - Clock configuration
*
* @usage_type: Usage type (Single/Dual)
* @num_rdi: Number of RDI votes
* @left_pix_hz: Pixel Clock for Left ISP
* @right_pix_hz: Pixel Clock for Right ISP, valid only if Dual
* @rdi_hz: RDI Clock. ISP clock will be max of RDI and
* PIX clocks. For a particular context which ISP
* HW the RDI is allocated to is not known to UMD.
* Hence pass the clock and let KMD decide.
*/
struct cam_isp_clock_config {
uint32_t usage_type;
uint32_t num_rdi;
uint64_t left_pix_hz;
uint64_t right_pix_hz;
uint64_t rdi_hz[1];
} __attribute__((packed));
/**
* struct cam_isp_bw_vote - Bandwidth vote information
*
* @resource_id: Resource ID
* @reserved: Reserved field for alignment
* @cam_bw_bps: Bandwidth vote for CAMNOC
* @ext_bw_bps: Bandwidth vote for path-to-DDR after CAMNOC
*/
struct cam_isp_bw_vote {
uint32_t resource_id;
uint32_t reserved;
uint64_t cam_bw_bps;
uint64_t ext_bw_bps;
} __attribute__((packed));
/**
* struct cam_isp_bw_config - Bandwidth configuration
*
* @usage_type: Usage type (Single/Dual)
* @num_rdi: Number of RDI votes
* @left_pix_vote: Bandwidth vote for left ISP
* @right_pix_vote: Bandwidth vote for right ISP
* @rdi_vote: RDI bandwidth requirements
*/
struct cam_isp_bw_config {
uint32_t usage_type;
uint32_t num_rdi;
struct cam_isp_bw_vote left_pix_vote;
struct cam_isp_bw_vote right_pix_vote;
struct cam_isp_bw_vote rdi_vote[1];
} __attribute__((packed));
#endif /* __UAPI_CAM_ISP_H__ */
@@ -0,0 +1,39 @@
#ifndef __UAPI_CAM_ISP_IFE_H__
#define __UAPI_CAM_ISP_IFE_H__
/* IFE output port resource type (global unique)*/
#define CAM_ISP_IFE_OUT_RES_BASE 0x3000
#define CAM_ISP_IFE_OUT_RES_FULL (CAM_ISP_IFE_OUT_RES_BASE + 0)
#define CAM_ISP_IFE_OUT_RES_DS4 (CAM_ISP_IFE_OUT_RES_BASE + 1)
#define CAM_ISP_IFE_OUT_RES_DS16 (CAM_ISP_IFE_OUT_RES_BASE + 2)
#define CAM_ISP_IFE_OUT_RES_RAW_DUMP (CAM_ISP_IFE_OUT_RES_BASE + 3)
#define CAM_ISP_IFE_OUT_RES_FD (CAM_ISP_IFE_OUT_RES_BASE + 4)
#define CAM_ISP_IFE_OUT_RES_PDAF (CAM_ISP_IFE_OUT_RES_BASE + 5)
#define CAM_ISP_IFE_OUT_RES_RDI_0 (CAM_ISP_IFE_OUT_RES_BASE + 6)
#define CAM_ISP_IFE_OUT_RES_RDI_1 (CAM_ISP_IFE_OUT_RES_BASE + 7)
#define CAM_ISP_IFE_OUT_RES_RDI_2 (CAM_ISP_IFE_OUT_RES_BASE + 8)
#define CAM_ISP_IFE_OUT_RES_RDI_3 (CAM_ISP_IFE_OUT_RES_BASE + 9)
#define CAM_ISP_IFE_OUT_RES_STATS_HDR_BE (CAM_ISP_IFE_OUT_RES_BASE + 10)
#define CAM_ISP_IFE_OUT_RES_STATS_HDR_BHIST (CAM_ISP_IFE_OUT_RES_BASE + 11)
#define CAM_ISP_IFE_OUT_RES_STATS_TL_BG (CAM_ISP_IFE_OUT_RES_BASE + 12)
#define CAM_ISP_IFE_OUT_RES_STATS_BF (CAM_ISP_IFE_OUT_RES_BASE + 13)
#define CAM_ISP_IFE_OUT_RES_STATS_AWB_BG (CAM_ISP_IFE_OUT_RES_BASE + 14)
#define CAM_ISP_IFE_OUT_RES_STATS_BHIST (CAM_ISP_IFE_OUT_RES_BASE + 15)
#define CAM_ISP_IFE_OUT_RES_STATS_RS (CAM_ISP_IFE_OUT_RES_BASE + 16)
#define CAM_ISP_IFE_OUT_RES_STATS_CS (CAM_ISP_IFE_OUT_RES_BASE + 17)
#define CAM_ISP_IFE_OUT_RES_STATS_IHIST (CAM_ISP_IFE_OUT_RES_BASE + 18)
#define CAM_ISP_IFE_OUT_RES_MAX (CAM_ISP_IFE_OUT_RES_BASE + 19)
/* IFE input port resource type (global unique) */
#define CAM_ISP_IFE_IN_RES_BASE 0x4000
#define CAM_ISP_IFE_IN_RES_TPG (CAM_ISP_IFE_IN_RES_BASE + 0)
#define CAM_ISP_IFE_IN_RES_PHY_0 (CAM_ISP_IFE_IN_RES_BASE + 1)
#define CAM_ISP_IFE_IN_RES_PHY_1 (CAM_ISP_IFE_IN_RES_BASE + 2)
#define CAM_ISP_IFE_IN_RES_PHY_2 (CAM_ISP_IFE_IN_RES_BASE + 3)
#define CAM_ISP_IFE_IN_RES_PHY_3 (CAM_ISP_IFE_IN_RES_BASE + 4)
#define CAM_ISP_IFE_IN_RES_MAX (CAM_ISP_IFE_IN_RES_BASE + 5)
#endif /* __UAPI_CAM_ISP_IFE_H__ */
@@ -0,0 +1,44 @@
#ifndef __UAPI_CAM_ISP_VFE_H__
#define __UAPI_CAM_ISP_VFE_H__
/* VFE output port resource type (global unique) */
#define CAM_ISP_VFE_OUT_RES_BASE 0x1000
#define CAM_ISP_VFE_OUT_RES_ENC (CAM_ISP_VFE_OUT_RES_BASE + 0)
#define CAM_ISP_VFE_OUT_RES_VIEW (CAM_ISP_VFE_OUT_RES_BASE + 1)
#define CAM_ISP_VFE_OUT_RES_VID (CAM_ISP_VFE_OUT_RES_BASE + 2)
#define CAM_ISP_VFE_OUT_RES_RDI_0 (CAM_ISP_VFE_OUT_RES_BASE + 3)
#define CAM_ISP_VFE_OUT_RES_RDI_1 (CAM_ISP_VFE_OUT_RES_BASE + 4)
#define CAM_ISP_VFE_OUT_RES_RDI_2 (CAM_ISP_VFE_OUT_RES_BASE + 5)
#define CAM_ISP_VFE_OUT_RES_RDI_3 (CAM_ISP_VFE_OUT_RES_BASE + 6)
#define CAM_ISP_VFE_OUT_RES_STATS_AEC (CAM_ISP_VFE_OUT_RES_BASE + 7)
#define CAM_ISP_VFE_OUT_RES_STATS_AF (CAM_ISP_VFE_OUT_RES_BASE + 8)
#define CAM_ISP_VFE_OUT_RES_STATS_AWB (CAM_ISP_VFE_OUT_RES_BASE + 9)
#define CAM_ISP_VFE_OUT_RES_STATS_RS (CAM_ISP_VFE_OUT_RES_BASE + 10)
#define CAM_ISP_VFE_OUT_RES_STATS_CS (CAM_ISP_VFE_OUT_RES_BASE + 11)
#define CAM_ISP_VFE_OUT_RES_STATS_IHIST (CAM_ISP_VFE_OUT_RES_BASE + 12)
#define CAM_ISP_VFE_OUT_RES_STATS_SKIN (CAM_ISP_VFE_OUT_RES_BASE + 13)
#define CAM_ISP_VFE_OUT_RES_STATS_BG (CAM_ISP_VFE_OUT_RES_BASE + 14)
#define CAM_ISP_VFE_OUT_RES_STATS_BF (CAM_ISP_VFE_OUT_RES_BASE + 15)
#define CAM_ISP_VFE_OUT_RES_STATS_BE (CAM_ISP_VFE_OUT_RES_BASE + 16)
#define CAM_ISP_VFE_OUT_RES_STATS_BHIST (CAM_ISP_VFE_OUT_RES_BASE + 17)
#define CAM_ISP_VFE_OUT_RES_STATS_BF_SCALE (CAM_ISP_VFE_OUT_RES_BASE + 18)
#define CAM_ISP_VFE_OUT_RES_STATS_HDR_BE (CAM_ISP_VFE_OUT_RES_BASE + 19)
#define CAM_ISP_VFE_OUT_RES_STATS_HDR_BHIST (CAM_ISP_VFE_OUT_RES_BASE + 20)
#define CAM_ISP_VFE_OUT_RES_STATS_AEC_BG (CAM_ISP_VFE_OUT_RES_BASE + 21)
#define CAM_ISP_VFE_OUT_RES_CAMIF_RAW (CAM_ISP_VFE_OUT_RES_BASE + 22)
#define CAM_ISP_VFE_OUT_RES_IDEAL_RAW (CAM_ISP_VFE_OUT_RES_BASE + 23)
#define CAM_ISP_VFE_OUT_RES_MAX (CAM_ISP_VFE_OUT_RES_BASE + 24)
/* VFE input port_ resource type (global unique) */
#define CAM_ISP_VFE_IN_RES_BASE 0x2000
#define CAM_ISP_VFE_IN_RES_TPG (CAM_ISP_VFE_IN_RES_BASE + 0)
#define CAM_ISP_VFE_IN_RES_PHY_0 (CAM_ISP_VFE_IN_RES_BASE + 1)
#define CAM_ISP_VFE_IN_RES_PHY_1 (CAM_ISP_VFE_IN_RES_BASE + 2)
#define CAM_ISP_VFE_IN_RES_PHY_2 (CAM_ISP_VFE_IN_RES_BASE + 3)
#define CAM_ISP_VFE_IN_RES_PHY_3 (CAM_ISP_VFE_IN_RES_BASE + 4)
#define CAM_ISP_VFE_IN_RES_FE (CAM_ISP_VFE_IN_RES_BASE + 5)
#define CAM_ISP_VFE_IN_RES_MAX (CAM_ISP_VFE_IN_RES_BASE + 6)
#endif /* __UAPI_CAM_ISP_VFE_H__ */
+117
View File
@@ -0,0 +1,117 @@
#ifndef __UAPI_CAM_JPEG_H__
#define __UAPI_CAM_JPEG_H__
#include "cam_defs.h"
/* enc, dma, cdm(enc/dma) are used in querycap */
#define CAM_JPEG_DEV_TYPE_ENC 0
#define CAM_JPEG_DEV_TYPE_DMA 1
#define CAM_JPEG_DEV_TYPE_MAX 2
#define CAM_JPEG_NUM_DEV_PER_RES_MAX 1
/* definitions needed for jpeg aquire device */
#define CAM_JPEG_RES_TYPE_ENC 0
#define CAM_JPEG_RES_TYPE_DMA 1
#define CAM_JPEG_RES_TYPE_MAX 2
/* packet opcode types */
#define CAM_JPEG_OPCODE_ENC_UPDATE 0
#define CAM_JPEG_OPCODE_DMA_UPDATE 1
/* ENC input port resource type */
#define CAM_JPEG_ENC_INPUT_IMAGE 0x0
/* ENC output port resource type */
#define CAM_JPEG_ENC_OUTPUT_IMAGE 0x1
#define CAM_JPEG_ENC_IO_IMAGES_MAX 0x2
/* DMA input port resource type */
#define CAM_JPEG_DMA_INPUT_IMAGE 0x0
/* DMA output port resource type */
#define CAM_JPEG_DMA_OUTPUT_IMAGE 0x1
#define CAM_JPEG_DMA_IO_IMAGES_MAX 0x2
#define CAM_JPEG_IMAGE_MAX 0x2
/**
* struct cam_jpeg_dev_ver - Device information for particular hw type
*
* This is used to get device version info of JPEG ENC, JPEG DMA
* from hardware and use this info in CAM_QUERY_CAP IOCTL
*
* @size : Size of struct passed
* @dev_type: Hardware type for the cap info(jpeg enc, jpeg dma)
* @hw_ver: Major, minor and incr values of a device version
*/
struct cam_jpeg_dev_ver {
uint32_t size;
uint32_t dev_type;
struct cam_hw_version hw_ver;
};
/**
* struct cam_jpeg_query_cap_cmd - JPEG query device capability payload
*
* @dev_iommu_handle: Jpeg iommu handles for secure/non secure
* modes
* @cdm_iommu_handle: Iommu handles for secure/non secure modes
* @num_enc: Number of encoder
* @num_dma: Number of dma
* @dev_ver: Returned device capability array
*/
struct cam_jpeg_query_cap_cmd {
struct cam_iommu_handle dev_iommu_handle;
struct cam_iommu_handle cdm_iommu_handle;
uint32_t num_enc;
uint32_t num_dma;
struct cam_jpeg_dev_ver dev_ver[CAM_JPEG_DEV_TYPE_MAX];
};
/**
* struct cam_jpeg_res_info - JPEG output resource info
*
* @format: Format of the resource
* @width: Width in pixels
* @height: Height in lines
* @fps: Fps
*/
struct cam_jpeg_res_info {
uint32_t format;
uint32_t width;
uint32_t height;
uint32_t fps;
};
/**
* struct cam_jpeg_acquire_dev_info - An JPEG device info
*
* @dev_type: Device type (ENC/DMA)
* @reserved: Reserved Bytes
* @in_res: In resource info
* @in_res: Iut resource info
*/
struct cam_jpeg_acquire_dev_info {
uint32_t dev_type;
uint32_t reserved;
struct cam_jpeg_res_info in_res;
struct cam_jpeg_res_info out_res;
};
/**
* struct cam_jpeg_config_inout_param_info - JPEG Config time
* input output params
*
* @clk_index: Input Param- clock selection index.(-1 default)
* @output_size: Output Param - jpeg encode/dma output size in
* bytes
*/
struct cam_jpeg_config_inout_param_info {
int32_t clk_index;
int32_t output_size;
};
#endif /* __UAPI_CAM_JPEG_H__ */
+65
View File
@@ -0,0 +1,65 @@
#ifndef __UAPI_CAM_LRME_H__
#define __UAPI_CAM_LRME_H__
#include "cam_defs.h"
/* LRME Resource Types */
enum CAM_LRME_IO_TYPE {
CAM_LRME_IO_TYPE_TAR,
CAM_LRME_IO_TYPE_REF,
CAM_LRME_IO_TYPE_RES,
CAM_LRME_IO_TYPE_DS2,
};
#define CAM_LRME_INPUT_PORT_TYPE_TAR (1 << 0)
#define CAM_LRME_INPUT_PORT_TYPE_REF (1 << 1)
#define CAM_LRME_OUTPUT_PORT_TYPE_DS2 (1 << 0)
#define CAM_LRME_OUTPUT_PORT_TYPE_RES (1 << 1)
#define CAM_LRME_DEV_MAX 1
struct cam_lrme_hw_version {
uint32_t gen;
uint32_t rev;
uint32_t step;
};
struct cam_lrme_dev_cap {
struct cam_lrme_hw_version clc_hw_version;
struct cam_lrme_hw_version bus_rd_hw_version;
struct cam_lrme_hw_version bus_wr_hw_version;
struct cam_lrme_hw_version top_hw_version;
struct cam_lrme_hw_version top_titan_version;
};
/**
* struct cam_lrme_query_cap_cmd - LRME query device capability payload
*
* @dev_iommu_handle: LRME iommu handles for secure/non secure
* modes
* @cdm_iommu_handle: Iommu handles for secure/non secure modes
* @num_devices: number of hardware devices
* @dev_caps: Returned device capability array
*/
struct cam_lrme_query_cap_cmd {
struct cam_iommu_handle device_iommu;
struct cam_iommu_handle cdm_iommu;
uint32_t num_devices;
struct cam_lrme_dev_cap dev_caps[CAM_LRME_DEV_MAX];
};
struct cam_lrme_soc_info {
uint64_t clock_rate;
uint64_t bandwidth;
uint64_t reserved[4];
};
struct cam_lrme_acquire_args {
struct cam_lrme_soc_info lrme_soc_info;
};
#endif /* __UAPI_CAM_LRME_H__ */
+436
View File
@@ -0,0 +1,436 @@
#ifndef __UAPI_LINUX_CAM_REQ_MGR_H
#define __UAPI_LINUX_CAM_REQ_MGR_H
#include <linux/videodev2.h>
#include <linux/types.h>
#include <linux/ioctl.h>
#include <linux/media.h>
#include <media/cam_defs.h>
#define CAM_REQ_MGR_VNODE_NAME "cam-req-mgr-devnode"
#define CAM_DEVICE_TYPE_BASE (MEDIA_ENT_F_OLD_BASE)
#define CAM_VNODE_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE)
#define CAM_SENSOR_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 1)
#define CAM_IFE_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 2)
#define CAM_ICP_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 3)
#define CAM_LRME_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 4)
#define CAM_JPEG_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 5)
#define CAM_FD_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 6)
#define CAM_CPAS_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 7)
#define CAM_CSIPHY_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 8)
#define CAM_ACTUATOR_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 9)
#define CAM_CCI_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 10)
#define CAM_FLASH_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 11)
#define CAM_EEPROM_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 12)
#define CAM_OIS_DEVICE_TYPE (CAM_DEVICE_TYPE_BASE + 13)
/* cam_req_mgr hdl info */
#define CAM_REQ_MGR_HDL_IDX_POS 8
#define CAM_REQ_MGR_HDL_IDX_MASK ((1 << CAM_REQ_MGR_HDL_IDX_POS) - 1)
#define CAM_REQ_MGR_GET_HDL_IDX(hdl) (hdl & CAM_REQ_MGR_HDL_IDX_MASK)
/**
* Max handles supported by cam_req_mgr
* It includes both session and device handles
*/
#define CAM_REQ_MGR_MAX_HANDLES 64
#define MAX_LINKS_PER_SESSION 2
/* V4L event type which user space will subscribe to */
#define V4L_EVENT_CAM_REQ_MGR_EVENT (V4L2_EVENT_PRIVATE_START + 0)
/* Specific event ids to get notified in user space */
#define V4L_EVENT_CAM_REQ_MGR_SOF 0
#define V4L_EVENT_CAM_REQ_MGR_ERROR 1
#define V4L_EVENT_CAM_REQ_MGR_SOF_BOOT_TS 2
/* SOF Event status */
#define CAM_REQ_MGR_SOF_EVENT_SUCCESS 0
#define CAM_REQ_MGR_SOF_EVENT_ERROR 1
/* Link control operations */
#define CAM_REQ_MGR_LINK_ACTIVATE 0
#define CAM_REQ_MGR_LINK_DEACTIVATE 1
/**
* Request Manager : flush_type
* @CAM_REQ_MGR_FLUSH_TYPE_ALL: Req mgr will remove all the pending
* requests from input/processing queue.
* @CAM_REQ_MGR_FLUSH_TYPE_CANCEL_REQ: Req mgr will remove only particular
* request id from input/processing queue.
* @CAM_REQ_MGR_FLUSH_TYPE_MAX: Max number of the flush type
* @opcode: CAM_REQ_MGR_FLUSH_REQ
*/
#define CAM_REQ_MGR_FLUSH_TYPE_ALL 0
#define CAM_REQ_MGR_FLUSH_TYPE_CANCEL_REQ 1
#define CAM_REQ_MGR_FLUSH_TYPE_MAX 2
/**
* Request Manager : Sync Mode type
* @CAM_REQ_MGR_SYNC_MODE_NO_SYNC: Req mgr will apply non-sync mode for this
* request.
* @CAM_REQ_MGR_SYNC_MODE_SYNC: Req mgr will apply sync mode for this request.
*/
#define CAM_REQ_MGR_SYNC_MODE_NO_SYNC 0
#define CAM_REQ_MGR_SYNC_MODE_SYNC 1
/**
* struct cam_req_mgr_event_data
* @session_hdl: session handle
* @link_hdl: link handle
* @frame_id: frame id
* @reserved: reserved for 64 bit aligngment
* @req_id: request id
* @tv_sec: timestamp in seconds
* @tv_usec: timestamp in micro seconds
*/
struct cam_req_mgr_event_data {
int32_t session_hdl;
int32_t link_hdl;
int32_t frame_id;
int32_t reserved;
int64_t req_id;
uint64_t tv_sec;
uint64_t tv_usec;
};
/**
* struct cam_req_mgr_session_info
* @session_hdl: In/Output param - session_handle
* @opcode1: CAM_REQ_MGR_CREATE_SESSION
* @opcode2: CAM_REQ_MGR_DESTROY_SESSION
*/
struct cam_req_mgr_session_info {
int32_t session_hdl;
int32_t reserved;
};
/**
* struct cam_req_mgr_link_info
* @session_hdl: Input param - Identifier for CSL session
* @num_devices: Input Param - Num of devices to be linked
* @dev_hdls: Input param - List of device handles to be linked
* @link_hdl: Output Param -Identifier for link
* @opcode: CAM_REQ_MGR_LINK
*/
struct cam_req_mgr_link_info {
int32_t session_hdl;
uint32_t num_devices;
int32_t dev_hdls[CAM_REQ_MGR_MAX_HANDLES];
int32_t link_hdl;
};
/**
* struct cam_req_mgr_unlink_info
* @session_hdl: input param - session handle
* @link_hdl: input param - link handle
* @opcode: CAM_REQ_MGR_UNLINK
*/
struct cam_req_mgr_unlink_info {
int32_t session_hdl;
int32_t link_hdl;
};
/**
* struct cam_req_mgr_flush_info
* @brief: User can tell drivers to flush a particular request id or
* flush all requests from its pending processing queue. Flush is a
* blocking call and driver shall ensure all requests are flushed
* before returning.
* @session_hdl: Input param - Identifier for CSL session
* @link_hdl: Input Param -Identifier for link
* @flush_type: User can cancel a particular req id or can flush
* all requests in queue
* @reserved: reserved for 64 bit aligngment
* @req_id: field is valid only if flush type is cancel request
* for flush all this field value is not considered.
* @opcode: CAM_REQ_MGR_FLUSH_REQ
*/
struct cam_req_mgr_flush_info {
int32_t session_hdl;
int32_t link_hdl;
uint32_t flush_type;
uint32_t reserved;
int64_t req_id;
};
/** struct cam_req_mgr_sched_info
* @session_hdl: Input param - Identifier for CSL session
* @link_hdl: Input Param -Identifier for link
* inluding itself.
* @bubble_enable: Input Param - Cam req mgr will do bubble recovery if this
* flag is set.
* @sync_mode: Type of Sync mode for this request
* @req_id: Input Param - Request Id from which all requests will be flushed
*/
struct cam_req_mgr_sched_request {
int32_t session_hdl;
int32_t link_hdl;
int32_t bubble_enable;
int32_t sync_mode;
int64_t req_id;
};
/**
* struct cam_req_mgr_sync_mode
* @session_hdl: Input param - Identifier for CSL session
* @sync_mode: Input Param - Type of sync mode
* @num_links: Input Param - Num of links in sync mode (Valid only
* when sync_mode is one of SYNC enabled modes)
* @link_hdls: Input Param - Array of link handles to be in sync mode
* (Valid only when sync_mode is one of SYNC
* enabled modes)
* @master_link_hdl: Input Param - To dictate which link's SOF drives system
* (Valid only when sync_mode is one of SYNC
* enabled modes)
*
* @opcode: CAM_REQ_MGR_SYNC_MODE
*/
struct cam_req_mgr_sync_mode {
int32_t session_hdl;
int32_t sync_mode;
int32_t num_links;
int32_t link_hdls[MAX_LINKS_PER_SESSION];
int32_t master_link_hdl;
int32_t reserved;
};
/**
* struct cam_req_mgr_link_control
* @ops: Link operations: activate/deactive
* @session_hdl: Input param - Identifier for CSL session
* @num_links: Input Param - Num of links
* @reserved: reserved field
* @link_hdls: Input Param - Links to be activated/deactivated
*
* @opcode: CAM_REQ_MGR_LINK_CONTROL
*/
struct cam_req_mgr_link_control {
int32_t ops;
int32_t session_hdl;
int32_t num_links;
int32_t reserved;
int32_t link_hdls[MAX_LINKS_PER_SESSION];
};
/**
* cam_req_mgr specific opcode ids
*/
#define CAM_REQ_MGR_CREATE_DEV_NODES (CAM_COMMON_OPCODE_MAX + 1)
#define CAM_REQ_MGR_CREATE_SESSION (CAM_COMMON_OPCODE_MAX + 2)
#define CAM_REQ_MGR_DESTROY_SESSION (CAM_COMMON_OPCODE_MAX + 3)
#define CAM_REQ_MGR_LINK (CAM_COMMON_OPCODE_MAX + 4)
#define CAM_REQ_MGR_UNLINK (CAM_COMMON_OPCODE_MAX + 5)
#define CAM_REQ_MGR_SCHED_REQ (CAM_COMMON_OPCODE_MAX + 6)
#define CAM_REQ_MGR_FLUSH_REQ (CAM_COMMON_OPCODE_MAX + 7)
#define CAM_REQ_MGR_SYNC_MODE (CAM_COMMON_OPCODE_MAX + 8)
#define CAM_REQ_MGR_ALLOC_BUF (CAM_COMMON_OPCODE_MAX + 9)
#define CAM_REQ_MGR_MAP_BUF (CAM_COMMON_OPCODE_MAX + 10)
#define CAM_REQ_MGR_RELEASE_BUF (CAM_COMMON_OPCODE_MAX + 11)
#define CAM_REQ_MGR_CACHE_OPS (CAM_COMMON_OPCODE_MAX + 12)
#define CAM_REQ_MGR_LINK_CONTROL (CAM_COMMON_OPCODE_MAX + 13)
/* end of cam_req_mgr opcodes */
#define CAM_MEM_FLAG_HW_READ_WRITE (1<<0)
#define CAM_MEM_FLAG_HW_READ_ONLY (1<<1)
#define CAM_MEM_FLAG_HW_WRITE_ONLY (1<<2)
#define CAM_MEM_FLAG_KMD_ACCESS (1<<3)
#define CAM_MEM_FLAG_UMD_ACCESS (1<<4)
#define CAM_MEM_FLAG_PROTECTED_MODE (1<<5)
#define CAM_MEM_FLAG_CMD_BUF_TYPE (1<<6)
#define CAM_MEM_FLAG_PIXEL_BUF_TYPE (1<<7)
#define CAM_MEM_FLAG_STATS_BUF_TYPE (1<<8)
#define CAM_MEM_FLAG_PACKET_BUF_TYPE (1<<9)
#define CAM_MEM_FLAG_CACHE (1<<10)
#define CAM_MEM_FLAG_HW_SHARED_ACCESS (1<<11)
#define CAM_MEM_MMU_MAX_HANDLE 16
/* Maximum allowed buffers in existence */
#define CAM_MEM_BUFQ_MAX 1024
#define CAM_MEM_MGR_SECURE_BIT_POS 15
#define CAM_MEM_MGR_HDL_IDX_SIZE 15
#define CAM_MEM_MGR_HDL_FD_SIZE 16
#define CAM_MEM_MGR_HDL_IDX_END_POS 16
#define CAM_MEM_MGR_HDL_FD_END_POS 32
#define CAM_MEM_MGR_HDL_IDX_MASK ((1 << CAM_MEM_MGR_HDL_IDX_SIZE) - 1)
#define GET_MEM_HANDLE(idx, fd) \
((idx & CAM_MEM_MGR_HDL_IDX_MASK) | \
(fd << (CAM_MEM_MGR_HDL_FD_END_POS - CAM_MEM_MGR_HDL_FD_SIZE))) \
#define GET_FD_FROM_HANDLE(hdl) \
(hdl >> (CAM_MEM_MGR_HDL_FD_END_POS - CAM_MEM_MGR_HDL_FD_SIZE)) \
#define CAM_MEM_MGR_GET_HDL_IDX(hdl) (hdl & CAM_MEM_MGR_HDL_IDX_MASK)
#define CAM_MEM_MGR_SET_SECURE_HDL(hdl, flag) \
((flag) ? (hdl |= (1 << CAM_MEM_MGR_SECURE_BIT_POS)) : \
((hdl) &= ~(1 << CAM_MEM_MGR_SECURE_BIT_POS)))
#define CAM_MEM_MGR_IS_SECURE_HDL(hdl) \
(((hdl) & \
(1<<CAM_MEM_MGR_SECURE_BIT_POS)) >> CAM_MEM_MGR_SECURE_BIT_POS)
/**
* memory allocation type
*/
#define CAM_MEM_DMA_NONE 0
#define CAM_MEM_DMA_BIDIRECTIONAL 1
#define CAM_MEM_DMA_TO_DEVICE 2
#define CAM_MEM_DMA_FROM_DEVICE 3
/**
* memory cache operation
*/
#define CAM_MEM_CLEAN_CACHE 1
#define CAM_MEM_INV_CACHE 2
#define CAM_MEM_CLEAN_INV_CACHE 3
/**
* struct cam_mem_alloc_out_params
* @buf_handle: buffer handle
* @fd: output buffer file descriptor
* @vaddr: virtual address pointer
*/
struct cam_mem_alloc_out_params {
uint32_t buf_handle;
int32_t fd;
uint64_t vaddr;
};
/**
* struct cam_mem_map_out_params
* @buf_handle: buffer handle
* @reserved: reserved for future
* @vaddr: virtual address pointer
*/
struct cam_mem_map_out_params {
uint32_t buf_handle;
uint32_t reserved;
uint64_t vaddr;
};
/**
* struct cam_mem_mgr_alloc_cmd
* @len: size of buffer to allocate
* @align: alignment of the buffer
* @mmu_hdls: array of mmu handles
* @num_hdl: number of handles
* @flags: flags of the buffer
* @out: out params
*/
/* CAM_REQ_MGR_ALLOC_BUF */
struct cam_mem_mgr_alloc_cmd {
uint64_t len;
uint64_t align;
int32_t mmu_hdls[CAM_MEM_MMU_MAX_HANDLE];
uint32_t num_hdl;
uint32_t flags;
struct cam_mem_alloc_out_params out;
};
/**
* struct cam_mem_mgr_map_cmd
* @mmu_hdls: array of mmu handles
* @num_hdl: number of handles
* @flags: flags of the buffer
* @fd: output buffer file descriptor
* @reserved: reserved field
* @out: out params
*/
/* CAM_REQ_MGR_MAP_BUF */
struct cam_mem_mgr_map_cmd {
int32_t mmu_hdls[CAM_MEM_MMU_MAX_HANDLE];
uint32_t num_hdl;
uint32_t flags;
int32_t fd;
uint32_t reserved;
struct cam_mem_map_out_params out;
};
/**
* struct cam_mem_mgr_map_cmd
* @buf_handle: buffer handle
* @reserved: reserved field
*/
/* CAM_REQ_MGR_RELEASE_BUF */
struct cam_mem_mgr_release_cmd {
int32_t buf_handle;
uint32_t reserved;
};
/**
* struct cam_mem_mgr_map_cmd
* @buf_handle: buffer handle
* @ops: cache operations
*/
/* CAM_REQ_MGR_CACHE_OPS */
struct cam_mem_cache_ops_cmd {
int32_t buf_handle;
uint32_t mem_cache_ops;
};
/**
* Request Manager : error message type
* @CAM_REQ_MGR_ERROR_TYPE_DEVICE: Device error message, fatal to session
* @CAM_REQ_MGR_ERROR_TYPE_REQUEST: Error on a single request, not fatal
* @CAM_REQ_MGR_ERROR_TYPE_BUFFER: Buffer was not filled, not fatal
*/
#define CAM_REQ_MGR_ERROR_TYPE_DEVICE 0
#define CAM_REQ_MGR_ERROR_TYPE_REQUEST 1
#define CAM_REQ_MGR_ERROR_TYPE_BUFFER 2
/**
* struct cam_req_mgr_error_msg
* @error_type: type of error
* @request_id: request id of frame
* @device_hdl: device handle
* @linke_hdl: link_hdl
* @resource_size: size of the resource
*/
struct cam_req_mgr_error_msg {
uint32_t error_type;
uint32_t request_id;
int32_t device_hdl;
int32_t link_hdl;
uint64_t resource_size;
};
/**
* struct cam_req_mgr_frame_msg
* @request_id: request id of the frame
* @frame_id: frame id of the frame
* @timestamp: timestamp of the frame
* @link_hdl: link handle associated with this message
* @sof_status: sof status success or fail
*/
struct cam_req_mgr_frame_msg {
uint64_t request_id;
uint64_t frame_id;
uint64_t timestamp;
int32_t link_hdl;
uint32_t sof_status;
};
/**
* struct cam_req_mgr_message
* @session_hdl: session to which the frame belongs to
* @reserved: reserved field
* @u: union which can either be error or frame message
*/
struct cam_req_mgr_message {
int32_t session_hdl;
int32_t reserved;
union {
struct cam_req_mgr_error_msg err_msg;
struct cam_req_mgr_frame_msg frame_msg;
} u;
};
#endif /* __UAPI_LINUX_CAM_REQ_MGR_H */
+477
View File
@@ -0,0 +1,477 @@
#ifndef __UAPI_CAM_SENSOR_H__
#define __UAPI_CAM_SENSOR_H__
#include <linux/types.h>
#include <linux/ioctl.h>
#include <media/cam_defs.h>
#define CAM_SENSOR_PROBE_CMD (CAM_COMMON_OPCODE_MAX + 1)
#define CAM_FLASH_MAX_LED_TRIGGERS 3
#define MAX_OIS_NAME_SIZE 32
#define CAM_CSIPHY_SECURE_MODE_ENABLED 1
/**
* struct cam_sensor_query_cap - capabilities info for sensor
*
* @slot_info : Indicates about the slotId or cell Index
* @secure_camera : Camera is in secure/Non-secure mode
* @pos_pitch : Sensor position pitch
* @pos_roll : Sensor position roll
* @pos_yaw : Sensor position yaw
* @actuator_slot_id : Actuator slot id which connected to sensor
* @eeprom_slot_id : EEPROM slot id which connected to sensor
* @ois_slot_id : OIS slot id which connected to sensor
* @flash_slot_id : Flash slot id which connected to sensor
* @csiphy_slot_id : CSIphy slot id which connected to sensor
*
*/
struct cam_sensor_query_cap {
uint32_t slot_info;
uint32_t secure_camera;
uint32_t pos_pitch;
uint32_t pos_roll;
uint32_t pos_yaw;
uint32_t actuator_slot_id;
uint32_t eeprom_slot_id;
uint32_t ois_slot_id;
uint32_t flash_slot_id;
uint32_t csiphy_slot_id;
} __attribute__((packed));
/**
* struct cam_csiphy_query_cap - capabilities info for csiphy
*
* @slot_info : Indicates about the slotId or cell Index
* @version : CSIphy version
* @clk lane : Of the 5 lanes, informs lane configured
* as clock lane
* @reserved
*/
struct cam_csiphy_query_cap {
uint32_t slot_info;
uint32_t version;
uint32_t clk_lane;
uint32_t reserved;
} __attribute__((packed));
/**
* struct cam_actuator_query_cap - capabilities info for actuator
*
* @slot_info : Indicates about the slotId or cell Index
* @reserved
*/
struct cam_actuator_query_cap {
uint32_t slot_info;
uint32_t reserved;
} __attribute__((packed));
/**
* struct cam_eeprom_query_cap_t - capabilities info for eeprom
*
* @slot_info : Indicates about the slotId or cell Index
* @eeprom_kernel_probe : Indicates about the kernel or userspace probe
*/
struct cam_eeprom_query_cap_t {
uint32_t slot_info;
uint16_t eeprom_kernel_probe;
uint16_t reserved;
} __attribute__((packed));
/**
* struct cam_ois_query_cap_t - capabilities info for ois
*
* @slot_info : Indicates about the slotId or cell Index
*/
struct cam_ois_query_cap_t {
uint32_t slot_info;
uint16_t reserved;
} __attribute__((packed));
/**
* struct cam_cmd_i2c_info - Contains slave I2C related info
*
* @slave_addr : Slave address
* @i2c_freq_mode : 4 bits are used for I2c freq mode
* @cmd_type : Explains type of command
*/
struct cam_cmd_i2c_info {
uint16_t slave_addr;
uint8_t i2c_freq_mode;
uint8_t cmd_type;
} __attribute__((packed));
/**
* struct cam_ois_opcode - Contains OIS opcode
*
* @prog : OIS FW prog register address
* @coeff : OIS FW coeff register address
* @pheripheral : OIS pheripheral
* @memory : OIS memory
*/
struct cam_ois_opcode {
uint32_t prog;
uint32_t coeff;
uint32_t pheripheral;
uint32_t memory;
} __attribute__((packed));
/**
* struct cam_cmd_ois_info - Contains OIS slave info
*
* @slave_addr : OIS i2c slave address
* @i2c_freq_mode : i2c frequency mode
* @cmd_type : Explains type of command
* @ois_fw_flag : indicates if fw is present or not
* @is_ois_calib : indicates the calibration data is available
* @ois_name : OIS name
* @opcode : opcode
*/
struct cam_cmd_ois_info {
uint16_t slave_addr;
uint8_t i2c_freq_mode;
uint8_t cmd_type;
uint8_t ois_fw_flag;
uint8_t is_ois_calib;
char ois_name[MAX_OIS_NAME_SIZE];
struct cam_ois_opcode opcode;
} __attribute__((packed));
/**
* struct cam_cmd_probe - Contains sensor slave info
*
* @data_type : Slave register data type
* @addr_type : Slave register address type
* @op_code : Don't Care
* @cmd_type : Explains type of command
* @reg_addr : Slave register address
* @expected_data : Data expected at slave register address
* @data_mask : Data mask if only few bits are valid
* @camera_id : Indicates the slot to which camera
* needs to be probed
* @reserved
*/
struct cam_cmd_probe {
uint8_t data_type;
uint8_t addr_type;
uint8_t op_code;
uint8_t cmd_type;
uint32_t reg_addr;
uint32_t expected_data;
uint32_t data_mask;
uint16_t camera_id;
uint16_t reserved;
} __attribute__((packed));
/**
* struct cam_power_settings - Contains sensor power setting info
*
* @power_seq_type : Type of power sequence
* @reserved
* @config_val_low : Lower 32 bit value configuration value
* @config_val_high : Higher 32 bit value configuration value
*
*/
struct cam_power_settings {
uint16_t power_seq_type;
uint16_t reserved;
uint32_t config_val_low;
uint32_t config_val_high;
} __attribute__((packed));
/**
* struct cam_cmd_power - Explains about the power settings
*
* @count : Number of power settings follows
* @reserved
* @cmd_type : Explains type of command
* @power_settings : Contains power setting info
*/
struct cam_cmd_power {
uint16_t count;
uint8_t reserved;
uint8_t cmd_type;
struct cam_power_settings power_settings[1];
} __attribute__((packed));
/**
* struct i2c_rdwr_header - header of READ/WRITE I2C command
*
* @ count : Number of registers / data / reg-data pairs
* @ op_code : Operation code
* @ cmd_type : Command buffer type
* @ data_type : I2C data type
* @ addr_type : I2C address type
* @ reserved
*/
struct i2c_rdwr_header {
uint16_t count;
uint8_t op_code;
uint8_t cmd_type;
uint8_t data_type;
uint8_t addr_type;
uint16_t reserved;
} __attribute__((packed));
/**
* struct i2c_random_wr_payload - payload for I2C random write
*
* @ reg_addr : Register address
* @ reg_data : Register data
*
*/
struct i2c_random_wr_payload {
uint32_t reg_addr;
uint32_t reg_data;
} __attribute__((packed));
/**
* struct cam_cmd_i2c_random_wr - I2C random write command
* @ header : header of READ/WRITE I2C command
* @ random_wr_payload : payload for I2C random write
*/
struct cam_cmd_i2c_random_wr {
struct i2c_rdwr_header header;
struct i2c_random_wr_payload random_wr_payload[1];
} __attribute__((packed));
/**
* struct cam_cmd_read - I2C read command
* @ reg_data : Register data
* @ reserved
*/
struct cam_cmd_read {
uint32_t reg_data;
uint32_t reserved;
} __attribute__((packed));
/**
* struct cam_cmd_i2c_continuous_wr - I2C continuous write command
* @ header : header of READ/WRITE I2C command
* @ reg_addr : Register address
* @ data_read : I2C read command
*/
struct cam_cmd_i2c_continuous_wr {
struct i2c_rdwr_header header;
uint32_t reg_addr;
struct cam_cmd_read data_read[1];
} __attribute__((packed));
/**
* struct cam_cmd_i2c_random_rd - I2C random read command
* @ header : header of READ/WRITE I2C command
* @ data_read : I2C read command
*/
struct cam_cmd_i2c_random_rd {
struct i2c_rdwr_header header;
struct cam_cmd_read data_read[1];
} __attribute__((packed));
/**
* struct cam_cmd_i2c_continuous_rd - I2C continuous continuous read command
* @ header : header of READ/WRITE I2C command
* @ reg_addr : Register address
*
*/
struct cam_cmd_i2c_continuous_rd {
struct i2c_rdwr_header header;
uint32_t reg_addr;
} __attribute__((packed));
/**
* struct cam_cmd_conditional_wait - Conditional wait command
* @data_type : Data type
* @addr_type : Address type
* @op_code : Opcode
* @cmd_type : Explains type of command
* @timeout : Timeout for retries
* @reserved
* @reg_addr : Register Address
* @reg_data : Register data
* @data_mask : Data mask if only few bits are valid
* @camera_id : Indicates the slot to which camera
* needs to be probed
*
*/
struct cam_cmd_conditional_wait {
uint8_t data_type;
uint8_t addr_type;
uint8_t op_code;
uint8_t cmd_type;
uint16_t timeout;
uint16_t reserved;
uint32_t reg_addr;
uint32_t reg_data;
uint32_t data_mask;
} __attribute__((packed));
/**
* struct cam_cmd_unconditional_wait - Un-conditional wait command
* @delay : Delay
* @op_code : Opcode
* @cmd_type : Explains type of command
*/
struct cam_cmd_unconditional_wait {
int16_t delay;
uint8_t op_code;
uint8_t cmd_type;
} __attribute__((packed));
/**
* cam_csiphy_info: Provides cmdbuffer structre
* @lane_mask : Lane mask details
* @lane_assign : Lane sensor will be using
* @csiphy_3phase : Total number of lanes
* @combo_mode : Info regarding combo_mode is enable / disable
* @lane_cnt : Total number of lanes
* @secure_mode : Secure mode flag to enable / disable
* @3phase : Details whether 3Phase / 2Phase operation
* @settle_time : Settling time in ms
* @data_rate : Data rate
*
*/
struct cam_csiphy_info {
uint16_t lane_mask;
uint16_t lane_assign;
uint8_t csiphy_3phase;
uint8_t combo_mode;
uint8_t lane_cnt;
uint8_t secure_mode;
uint64_t settle_time;
uint64_t data_rate;
} __attribute__((packed));
/**
* cam_csiphy_acquire_dev_info : Information needed for
* csiphy at the time of acquire
* @combo_mode : Indicates the device mode of operation
* @reserved
*
*/
struct cam_csiphy_acquire_dev_info {
uint32_t combo_mode;
uint32_t reserved;
} __attribute__((packed));
/**
* cam_sensor_acquire_dev : Updates sensor acuire cmd
* @device_handle : Updates device handle
* @session_handle : Session handle for acquiring device
* @handle_type : Resource handle type
* @reserved
* @info_handle : Handle to additional info
* needed for sensor sub modules
*
*/
struct cam_sensor_acquire_dev {
uint32_t session_handle;
uint32_t device_handle;
uint32_t handle_type;
uint32_t reserved;
uint64_t info_handle;
} __attribute__((packed));
/**
* cam_sensor_streamon_dev : StreamOn command for the sensor
* @session_handle : Session handle for acquiring device
* @device_handle : Updates device handle
* @handle_type : Resource handle type
* @reserved
* @info_handle : Information Needed at the time of streamOn
*
*/
struct cam_sensor_streamon_dev {
uint32_t session_handle;
uint32_t device_handle;
uint32_t handle_type;
uint32_t reserved;
uint64_t info_handle;
} __attribute__((packed));
/**
* struct cam_flash_init : Init command for the flash
* @flash_type : flash hw type
* @reserved
* @cmd_type : command buffer type
*/
struct cam_flash_init {
uint8_t flash_type;
uint16_t reserved;
uint8_t cmd_type;
} __attribute__((packed));
/**
* struct cam_flash_set_rer : RedEyeReduction command buffer
*
* @count : Number of flash leds
* @opcode : Command buffer opcode
* CAM_FLASH_FIRE_RER
* @cmd_type : command buffer operation type
* @num_iteration : Number of led turn on/off sequence
* @reserved
* @led_on_delay_ms : flash led turn on time in ms
* @led_off_delay_ms : flash led turn off time in ms
* @led_current_ma : flash led current in ma
*
*/
struct cam_flash_set_rer {
uint16_t count;
uint8_t opcode;
uint8_t cmd_type;
uint16_t num_iteration;
uint16_t reserved;
uint32_t led_on_delay_ms;
uint32_t led_off_delay_ms;
uint32_t led_current_ma[CAM_FLASH_MAX_LED_TRIGGERS];
} __attribute__((packed));
/**
* struct cam_flash_set_on_off : led turn on/off command buffer
*
* @count : Number of Flash leds
* @opcode : command buffer opcodes
* CAM_FLASH_FIRE_LOW
* CAM_FLASH_FIRE_HIGH
* CAM_FLASH_OFF
* @cmd_type : command buffer operation type
* @led_current_ma : flash led current in ma
*
*/
struct cam_flash_set_on_off {
uint16_t count;
uint8_t opcode;
uint8_t cmd_type;
uint32_t led_current_ma[CAM_FLASH_MAX_LED_TRIGGERS];
} __attribute__((packed));
/**
* struct cam_flash_query_curr : query current command buffer
*
* @reserved
* @opcode : command buffer opcode
* @cmd_type : command buffer operation type
* @query_current_ma : battery current in ma
*
*/
struct cam_flash_query_curr {
uint16_t reserved;
uint8_t opcode;
uint8_t cmd_type;
uint32_t query_current_ma;
} __attribute__ ((packed));
/**
* struct cam_flash_query_cap : capabilities info for flash
*
* @slot_info : Indicates about the slotId or cell Index
* @max_current_flash : max supported current for flash
* @max_duration_flash : max flash turn on duration
* @max_current_torch : max supported current for torch
*
*/
struct cam_flash_query_cap_info {
uint32_t slot_info;
uint32_t max_current_flash[CAM_FLASH_MAX_LED_TRIGGERS];
uint32_t max_duration_flash[CAM_FLASH_MAX_LED_TRIGGERS];
uint32_t max_current_torch[CAM_FLASH_MAX_LED_TRIGGERS];
} __attribute__ ((packed));
#endif
@@ -0,0 +1,391 @@
/* Copyright (c) 2017-2018, The Linux Foundation. All rights reserved.
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License version 2 and
* only version 2 as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*/
#ifndef _CAM_SENSOR_CMN_HEADER_
#define _CAM_SENSOR_CMN_HEADER_
#include <stdbool.h>
#include <media/cam_sensor.h>
#include <media/cam_req_mgr.h>
#define MAX_REGULATOR 5
#define MAX_POWER_CONFIG 12
#define MAX_PER_FRAME_ARRAY 32
#define BATCH_SIZE_MAX 16
#define CAM_SENSOR_NAME "cam-sensor"
#define CAM_ACTUATOR_NAME "cam-actuator"
#define CAM_CSIPHY_NAME "cam-csiphy"
#define CAM_FLASH_NAME "cam-flash"
#define CAM_EEPROM_NAME "cam-eeprom"
#define CAM_OIS_NAME "cam-ois"
#define MAX_SYSTEM_PIPELINE_DELAY 2
#define CAM_PKT_NOP_OPCODE 127
enum camera_sensor_cmd_type {
CAMERA_SENSOR_CMD_TYPE_INVALID,
CAMERA_SENSOR_CMD_TYPE_PROBE,
CAMERA_SENSOR_CMD_TYPE_PWR_UP,
CAMERA_SENSOR_CMD_TYPE_PWR_DOWN,
CAMERA_SENSOR_CMD_TYPE_I2C_INFO,
CAMERA_SENSOR_CMD_TYPE_I2C_RNDM_WR,
CAMERA_SENSOR_CMD_TYPE_I2C_RNDM_RD,
CAMERA_SENSOR_CMD_TYPE_I2C_CONT_WR,
CAMERA_SENSOR_CMD_TYPE_I2C_CONT_RD,
CAMERA_SENSOR_CMD_TYPE_WAIT,
CAMERA_SENSOR_FLASH_CMD_TYPE_INIT_INFO,
CAMERA_SENSOR_FLASH_CMD_TYPE_FIRE,
CAMERA_SENSOR_FLASH_CMD_TYPE_RER,
CAMERA_SENSOR_FLASH_CMD_TYPE_QUERYCURR,
CAMERA_SENSOR_FLASH_CMD_TYPE_WIDGET,
CAMERA_SENSOR_CMD_TYPE_RD_DATA,
CAMERA_SENSOR_FLASH_CMD_TYPE_INIT_FIRE,
CAMERA_SENSOR_CMD_TYPE_MAX,
};
enum camera_sensor_i2c_op_code {
CAMERA_SENSOR_I2C_OP_INVALID,
CAMERA_SENSOR_I2C_OP_RNDM_WR,
CAMERA_SENSOR_I2C_OP_RNDM_WR_VERF,
CAMERA_SENSOR_I2C_OP_CONT_WR_BRST,
CAMERA_SENSOR_I2C_OP_CONT_WR_BRST_VERF,
CAMERA_SENSOR_I2C_OP_CONT_WR_SEQN,
CAMERA_SENSOR_I2C_OP_CONT_WR_SEQN_VERF,
CAMERA_SENSOR_I2C_OP_MAX,
};
enum camera_sensor_wait_op_code {
CAMERA_SENSOR_WAIT_OP_INVALID,
CAMERA_SENSOR_WAIT_OP_COND,
CAMERA_SENSOR_WAIT_OP_HW_UCND,
CAMERA_SENSOR_WAIT_OP_SW_UCND,
CAMERA_SENSOR_WAIT_OP_MAX,
};
enum camera_flash_opcode {
CAMERA_SENSOR_FLASH_OP_INVALID,
CAMERA_SENSOR_FLASH_OP_OFF,
CAMERA_SENSOR_FLASH_OP_FIRELOW,
CAMERA_SENSOR_FLASH_OP_FIREHIGH,
CAMERA_SENSOR_FLASH_OP_MAX,
};
enum camera_sensor_i2c_type {
CAMERA_SENSOR_I2C_TYPE_INVALID,
CAMERA_SENSOR_I2C_TYPE_BYTE,
CAMERA_SENSOR_I2C_TYPE_WORD,
CAMERA_SENSOR_I2C_TYPE_3B,
CAMERA_SENSOR_I2C_TYPE_DWORD,
CAMERA_SENSOR_I2C_TYPE_MAX,
};
enum i2c_freq_mode {
I2C_STANDARD_MODE,
I2C_FAST_MODE,
I2C_CUSTOM_MODE,
I2C_FAST_PLUS_MODE,
I2C_MAX_MODES,
};
enum position_roll {
ROLL_0 = 0,
ROLL_90 = 90,
ROLL_180 = 180,
ROLL_270 = 270,
ROLL_INVALID = 360,
};
enum position_yaw {
FRONT_CAMERA_YAW = 0,
REAR_CAMERA_YAW = 180,
INVALID_YAW = 360,
};
enum position_pitch {
LEVEL_PITCH = 0,
INVALID_PITCH = 360,
};
enum sensor_sub_module {
SUB_MODULE_SENSOR,
SUB_MODULE_ACTUATOR,
SUB_MODULE_EEPROM,
SUB_MODULE_LED_FLASH,
SUB_MODULE_CSID,
SUB_MODULE_CSIPHY,
SUB_MODULE_OIS,
SUB_MODULE_EXT,
SUB_MODULE_MAX,
};
enum msm_camera_power_seq_type {
SENSOR_MCLK,
SENSOR_VANA,
SENSOR_VDIG,
SENSOR_VIO,
SENSOR_VAF,
SENSOR_VAF_PWDM,
SENSOR_CUSTOM_REG1,
SENSOR_CUSTOM_REG2,
SENSOR_RESET,
SENSOR_STANDBY,
SENSOR_CUSTOM_GPIO1,
SENSOR_CUSTOM_GPIO2,
SENSOR_SEQ_TYPE_MAX,
};
enum cam_sensor_packet_opcodes {
CAM_SENSOR_PACKET_OPCODE_SENSOR_STREAMON,
CAM_SENSOR_PACKET_OPCODE_SENSOR_UPDATE,
CAM_SENSOR_PACKET_OPCODE_SENSOR_INITIAL_CONFIG,
CAM_SENSOR_PACKET_OPCODE_SENSOR_PROBE,
CAM_SENSOR_PACKET_OPCODE_SENSOR_CONFIG,
CAM_SENSOR_PACKET_OPCODE_SENSOR_STREAMOFF,
CAM_SENSOR_PACKET_OPCODE_SENSOR_NOP = 127
};
enum cam_actuator_packet_opcodes {
CAM_ACTUATOR_PACKET_OPCODE_INIT,
CAM_ACTUATOR_PACKET_AUTO_MOVE_LENS,
CAM_ACTUATOR_PACKET_MANUAL_MOVE_LENS
};
enum cam_eeprom_packet_opcodes {
CAM_EEPROM_PACKET_OPCODE_INIT
};
enum cam_ois_packet_opcodes {
CAM_OIS_PACKET_OPCODE_INIT,
CAM_OIS_PACKET_OPCODE_OIS_CONTROL
};
enum msm_bus_perf_setting {
S_INIT,
S_PREVIEW,
S_VIDEO,
S_CAPTURE,
S_ZSL,
S_STEREO_VIDEO,
S_STEREO_CAPTURE,
S_DEFAULT,
S_LIVESHOT,
S_DUAL,
S_EXIT
};
enum msm_camera_device_type_t {
MSM_CAMERA_I2C_DEVICE,
MSM_CAMERA_PLATFORM_DEVICE,
MSM_CAMERA_SPI_DEVICE,
};
enum cam_flash_device_type {
CAMERA_FLASH_DEVICE_TYPE_PMIC = 0,
CAMERA_FLASH_DEVICE_TYPE_I2C,
CAMERA_FLASH_DEVICE_TYPE_GPIO,
};
enum cci_i2c_master_t {
MASTER_0,
MASTER_1,
MASTER_MAX,
};
enum camera_vreg_type {
VREG_TYPE_DEFAULT,
VREG_TYPE_CUSTOM,
};
enum cam_sensor_i2c_cmd_type {
CAM_SENSOR_I2C_WRITE_RANDOM,
CAM_SENSOR_I2C_WRITE_BURST,
CAM_SENSOR_I2C_WRITE_SEQ,
CAM_SENSOR_I2C_READ,
CAM_SENSOR_I2C_POLL
};
struct common_header {
uint16_t first_word;
uint8_t third_byte;
uint8_t cmd_type;
};
struct camera_vreg_t {
const char *reg_name;
int min_voltage;
int max_voltage;
int op_mode;
uint32_t delay;
const char *custom_vreg_name;
enum camera_vreg_type type;
};
struct msm_camera_gpio_num_info {
uint16_t gpio_num[SENSOR_SEQ_TYPE_MAX];
uint8_t valid[SENSOR_SEQ_TYPE_MAX];
};
struct msm_cam_clk_info {
const char *clk_name;
long clk_rate;
uint32_t delay;
};
struct msm_pinctrl_info {
struct pinctrl *pinctrl;
struct pinctrl_state *gpio_state_active;
struct pinctrl_state *gpio_state_suspend;
bool use_pinctrl;
};
struct cam_sensor_i2c_reg_array {
uint32_t reg_addr;
uint32_t reg_data;
uint32_t delay;
uint32_t data_mask;
};
struct cam_sensor_i2c_reg_setting {
struct cam_sensor_i2c_reg_array *reg_setting;
unsigned short size;
enum camera_sensor_i2c_type addr_type;
enum camera_sensor_i2c_type data_type;
unsigned short delay;
};
/*struct i2c_settings_list {
struct cam_sensor_i2c_reg_setting i2c_settings;
enum cam_sensor_i2c_cmd_type op_code;
struct list_head list;
};
struct i2c_settings_array {
struct list_head list_head;
int32_t is_settings_valid;
int64_t request_id;
};
struct i2c_data_settings {
struct i2c_settings_array init_settings;
struct i2c_settings_array config_settings;
struct i2c_settings_array streamon_settings;
struct i2c_settings_array streamoff_settings;
struct i2c_settings_array *per_frame;
};*/
struct cam_sensor_power_ctrl_t {
struct device *dev;
struct cam_sensor_power_setting *power_setting;
uint16_t power_setting_size;
struct cam_sensor_power_setting *power_down_setting;
uint16_t power_down_setting_size;
struct msm_camera_gpio_num_info *gpio_num_info;
struct msm_pinctrl_info pinctrl_info;
uint8_t cam_pinctrl_status;
};
struct cam_camera_slave_info {
uint16_t sensor_slave_addr;
uint16_t sensor_id_reg_addr;
uint16_t sensor_id;
uint16_t sensor_id_mask;
};
struct msm_sensor_init_params {
int modes_supported;
unsigned int sensor_mount_angle;
};
enum msm_sensor_camera_id_t {
CAMERA_0,
CAMERA_1,
CAMERA_2,
CAMERA_3,
CAMERA_4,
CAMERA_5,
CAMERA_6,
MAX_CAMERAS,
};
struct msm_sensor_id_info_t {
unsigned short sensor_id_reg_addr;
unsigned short sensor_id;
unsigned short sensor_id_mask;
};
enum msm_sensor_output_format_t {
MSM_SENSOR_BAYER,
MSM_SENSOR_YCBCR,
MSM_SENSOR_META,
};
struct cam_sensor_power_setting {
enum msm_camera_power_seq_type seq_type;
unsigned short seq_val;
long config_val;
unsigned short delay;
void *data[10];
};
struct cam_sensor_board_info {
struct cam_camera_slave_info slave_info;
int32_t sensor_mount_angle;
int32_t secure_mode;
int modes_supported;
int32_t pos_roll;
int32_t pos_yaw;
int32_t pos_pitch;
int32_t subdev_id[SUB_MODULE_MAX];
int32_t subdev_intf[SUB_MODULE_MAX];
const char *misc_regulator;
struct cam_sensor_power_ctrl_t power_info;
};
enum msm_camera_vreg_name_t {
CAM_VDIG,
CAM_VIO,
CAM_VANA,
CAM_VAF,
CAM_V_CUSTOM1,
CAM_V_CUSTOM2,
CAM_VREG_MAX,
};
struct msm_camera_gpio_conf {
void *cam_gpiomux_conf_tbl;
uint8_t cam_gpiomux_conf_tbl_size;
struct gpio *cam_gpio_common_tbl;
uint8_t cam_gpio_common_tbl_size;
struct gpio *cam_gpio_req_tbl;
uint8_t cam_gpio_req_tbl_size;
uint32_t gpio_no_mux;
uint32_t *camera_off_table;
uint8_t camera_off_table_size;
uint32_t *camera_on_table;
uint8_t camera_on_table_size;
struct msm_camera_gpio_num_info *gpio_num_info;
};
/*for tof camera Begin*/
enum EEPROM_DATA_OP_T{
EEPROM_DEFAULT_DATA = 0,
EEPROM_INIT_DATA,
EEPROM_CONFIG_DATA,
EEPROM_STREAMON_DATA,
EEPROM_STREAMOFF_DATA,
EEPROM_OTHER_DATA,
};
/*for tof camera End*/
#endif /* _CAM_SENSOR_CMN_HEADER_ */
+134
View File
@@ -0,0 +1,134 @@
#ifndef __UAPI_CAM_SYNC_H__
#define __UAPI_CAM_SYNC_H__
#include <linux/videodev2.h>
#include <linux/types.h>
#include <linux/ioctl.h>
#include <linux/media.h>
#define CAM_SYNC_DEVICE_NAME "cam_sync_device"
/* V4L event which user space will subscribe to */
#define CAM_SYNC_V4L_EVENT (V4L2_EVENT_PRIVATE_START + 0)
/* Specific event ids to get notified in user space */
#define CAM_SYNC_V4L_EVENT_ID_CB_TRIG 0
/* Size of opaque payload sent to kernel for safekeeping until signal time */
#define CAM_SYNC_USER_PAYLOAD_SIZE 2
/* Device type for sync device needed for device discovery */
#define CAM_SYNC_DEVICE_TYPE (MEDIA_ENT_F_OLD_BASE)
#define CAM_SYNC_GET_PAYLOAD_PTR(ev, type) \
(type *)((char *)ev.u.data + sizeof(struct cam_sync_ev_header))
#define CAM_SYNC_GET_HEADER_PTR(ev) \
((struct cam_sync_ev_header *)ev.u.data)
#define CAM_SYNC_STATE_INVALID 0
#define CAM_SYNC_STATE_ACTIVE 1
#define CAM_SYNC_STATE_SIGNALED_SUCCESS 2
#define CAM_SYNC_STATE_SIGNALED_ERROR 3
/**
* struct cam_sync_ev_header - Event header for sync event notification
*
* @sync_obj: Sync object
* @status: Status of the object
*/
struct cam_sync_ev_header {
int32_t sync_obj;
int32_t status;
};
/**
* struct cam_sync_info - Sync object creation information
*
* @name: Optional string representation of the sync object
* @sync_obj: Sync object returned after creation in kernel
*/
struct cam_sync_info {
char name[64];
int32_t sync_obj;
};
/**
* struct cam_sync_signal - Sync object signaling struct
*
* @sync_obj: Sync object to be signaled
* @sync_state: State of the sync object to which it should be signaled
*/
struct cam_sync_signal {
int32_t sync_obj;
uint32_t sync_state;
};
/**
* struct cam_sync_merge - Merge information for sync objects
*
* @sync_objs: Pointer to sync objects
* @num_objs: Number of objects in the array
* @merged: Merged sync object
*/
struct cam_sync_merge {
__u64 sync_objs;
uint32_t num_objs;
int32_t merged;
};
/**
* struct cam_sync_userpayload_info - Payload info from user space
*
* @sync_obj: Sync object for which payload has to be registered for
* @reserved: Reserved
* @payload: Pointer to user payload
*/
struct cam_sync_userpayload_info {
int32_t sync_obj;
uint32_t reserved;
__u64 payload[CAM_SYNC_USER_PAYLOAD_SIZE];
};
/**
* struct cam_sync_wait - Sync object wait information
*
* @sync_obj: Sync object to wait on
* @reserved: Reserved
* @timeout_ms: Timeout in milliseconds
*/
struct cam_sync_wait {
int32_t sync_obj;
uint32_t reserved;
uint64_t timeout_ms;
};
/**
* struct cam_private_ioctl_arg - Sync driver ioctl argument
*
* @id: IOCTL command id
* @size: Size of command payload
* @result: Result of command execution
* @reserved: Reserved
* @ioctl_ptr: Pointer to user data
*/
struct cam_private_ioctl_arg {
__u32 id;
__u32 size;
__u32 result;
__u32 reserved;
__u64 ioctl_ptr;
};
#define CAM_PRIVATE_IOCTL_CMD \
_IOWR('V', BASE_VIDIOC_PRIVATE, struct cam_private_ioctl_arg)
#define CAM_SYNC_CREATE 0
#define CAM_SYNC_DESTROY 1
#define CAM_SYNC_SIGNAL 2
#define CAM_SYNC_MERGE 3
#define CAM_SYNC_REGISTER_PAYLOAD 4
#define CAM_SYNC_DEREGISTER_PAYLOAD 5
#define CAM_SYNC_WAIT 6
#endif /* __UAPI_CAM_SYNC_H__ */
+829
View File
@@ -0,0 +1,829 @@
#ifndef __LINUX_MSM_CAM_SENSOR_H
#define __LINUX_MSM_CAM_SENSOR_H
#ifdef MSM_CAMERA_BIONIC
#include <sys/types.h>
#endif
//#include <linux/v4l2-mediabus.h>
#include "msm_camsensor_sdk.h"
#include <linux/types.h>
#include <linux/i2c.h>
#ifdef CONFIG_COMPAT
#include <linux/compat.h>
#endif
#define I2C_SEQ_REG_SETTING_MAX 5
#define MSM_SENSOR_MCLK_8HZ 8000000
#define MSM_SENSOR_MCLK_16HZ 16000000
#define MSM_SENSOR_MCLK_24HZ 24000000
#define MAX_SENSOR_NAME 32
#define MAX_ACTUATOR_AF_TOTAL_STEPS 1024
#define MAX_OIS_MOD_NAME_SIZE 32
#define MAX_OIS_NAME_SIZE 32
#define MAX_OIS_REG_SETTINGS 800
#define MOVE_NEAR 0
#define MOVE_FAR 1
#define MSM_ACTUATOR_MOVE_SIGNED_FAR -1
#define MSM_ACTUATOR_MOVE_SIGNED_NEAR 1
#define MAX_ACTUATOR_REGION 5
#define MAX_EEPROM_NAME 32
#define MAX_AF_ITERATIONS 3
#define MAX_NUMBER_OF_STEPS 47
#define MAX_REGULATOR 5
#define MSM_V4L2_PIX_FMT_META v4l2_fourcc('M', 'E', 'T', 'A') /* META */
#define MSM_V4L2_PIX_FMT_SBGGR14 v4l2_fourcc('B', 'G', '1', '4')
/* 14 BGBG.. GRGR.. */
#define MSM_V4L2_PIX_FMT_SGBRG14 v4l2_fourcc('G', 'B', '1', '4')
/* 14 GBGB.. RGRG.. */
#define MSM_V4L2_PIX_FMT_SGRBG14 v4l2_fourcc('B', 'A', '1', '4')
/* 14 GRGR.. BGBG.. */
#define MSM_V4L2_PIX_FMT_SRGGB14 v4l2_fourcc('R', 'G', '1', '4')
/* 14 RGRG.. GBGB.. */
enum flash_type {
LED_FLASH = 1,
STROBE_FLASH,
GPIO_FLASH
};
enum msm_sensor_resolution_t {
MSM_SENSOR_RES_FULL,
MSM_SENSOR_RES_QTR,
MSM_SENSOR_RES_2,
MSM_SENSOR_RES_3,
MSM_SENSOR_RES_4,
MSM_SENSOR_RES_5,
MSM_SENSOR_RES_6,
MSM_SENSOR_RES_7,
MSM_SENSOR_INVALID_RES,
};
enum msm_camera_stream_type_t {
MSM_CAMERA_STREAM_PREVIEW,
MSM_CAMERA_STREAM_SNAPSHOT,
MSM_CAMERA_STREAM_VIDEO,
MSM_CAMERA_STREAM_INVALID,
};
enum sensor_sub_module_t {
SUB_MODULE_SENSOR,
SUB_MODULE_CHROMATIX,
SUB_MODULE_ACTUATOR,
SUB_MODULE_EEPROM,
SUB_MODULE_LED_FLASH,
SUB_MODULE_STROBE_FLASH,
SUB_MODULE_CSID,
SUB_MODULE_CSID_3D,
SUB_MODULE_CSIPHY,
SUB_MODULE_CSIPHY_3D,
SUB_MODULE_OIS,
SUB_MODULE_EXT,
SUB_MODULE_MAX,
};
enum {
MSM_CAMERA_EFFECT_MODE_OFF,
MSM_CAMERA_EFFECT_MODE_MONO,
MSM_CAMERA_EFFECT_MODE_NEGATIVE,
MSM_CAMERA_EFFECT_MODE_SOLARIZE,
MSM_CAMERA_EFFECT_MODE_SEPIA,
MSM_CAMERA_EFFECT_MODE_POSTERIZE,
MSM_CAMERA_EFFECT_MODE_WHITEBOARD,
MSM_CAMERA_EFFECT_MODE_BLACKBOARD,
MSM_CAMERA_EFFECT_MODE_AQUA,
MSM_CAMERA_EFFECT_MODE_EMBOSS,
MSM_CAMERA_EFFECT_MODE_SKETCH,
MSM_CAMERA_EFFECT_MODE_NEON,
MSM_CAMERA_EFFECT_MODE_MAX
};
enum {
MSM_CAMERA_WB_MODE_AUTO,
MSM_CAMERA_WB_MODE_CUSTOM,
MSM_CAMERA_WB_MODE_INCANDESCENT,
MSM_CAMERA_WB_MODE_FLUORESCENT,
MSM_CAMERA_WB_MODE_WARM_FLUORESCENT,
MSM_CAMERA_WB_MODE_DAYLIGHT,
MSM_CAMERA_WB_MODE_CLOUDY_DAYLIGHT,
MSM_CAMERA_WB_MODE_TWILIGHT,
MSM_CAMERA_WB_MODE_SHADE,
MSM_CAMERA_WB_MODE_OFF,
MSM_CAMERA_WB_MODE_MAX
};
enum {
MSM_CAMERA_SCENE_MODE_OFF,
MSM_CAMERA_SCENE_MODE_AUTO,
MSM_CAMERA_SCENE_MODE_LANDSCAPE,
MSM_CAMERA_SCENE_MODE_SNOW,
MSM_CAMERA_SCENE_MODE_BEACH,
MSM_CAMERA_SCENE_MODE_SUNSET,
MSM_CAMERA_SCENE_MODE_NIGHT,
MSM_CAMERA_SCENE_MODE_PORTRAIT,
MSM_CAMERA_SCENE_MODE_BACKLIGHT,
MSM_CAMERA_SCENE_MODE_SPORTS,
MSM_CAMERA_SCENE_MODE_ANTISHAKE,
MSM_CAMERA_SCENE_MODE_FLOWERS,
MSM_CAMERA_SCENE_MODE_CANDLELIGHT,
MSM_CAMERA_SCENE_MODE_FIREWORKS,
MSM_CAMERA_SCENE_MODE_PARTY,
MSM_CAMERA_SCENE_MODE_NIGHT_PORTRAIT,
MSM_CAMERA_SCENE_MODE_THEATRE,
MSM_CAMERA_SCENE_MODE_ACTION,
MSM_CAMERA_SCENE_MODE_AR,
MSM_CAMERA_SCENE_MODE_FACE_PRIORITY,
MSM_CAMERA_SCENE_MODE_BARCODE,
MSM_CAMERA_SCENE_MODE_HDR,
MSM_CAMERA_SCENE_MODE_MAX
};
enum csid_cfg_type_t {
CSID_INIT,
CSID_CFG,
CSID_TESTMODE_CFG,
CSID_RELEASE,
};
enum csiphy_cfg_type_t {
CSIPHY_INIT,
CSIPHY_CFG,
CSIPHY_RELEASE,
};
enum camera_vreg_type {
VREG_TYPE_DEFAULT,
VREG_TYPE_CUSTOM,
};
enum sensor_af_t {
SENSOR_AF_FOCUSSED,
SENSOR_AF_NOT_FOCUSSED,
};
enum cci_i2c_master_t {
MASTER_0,
MASTER_1,
MASTER_MAX,
};
struct msm_camera_i2c_array_write_config {
struct msm_camera_i2c_reg_setting conf_array;
uint16_t slave_addr;
};
struct msm_camera_i2c_read_config {
uint16_t slave_addr;
uint16_t reg_addr;
enum msm_camera_i2c_reg_addr_type addr_type;
enum msm_camera_i2c_data_type data_type;
uint16_t data;
};
struct msm_camera_csi2_params {
struct msm_camera_csid_params csid_params;
struct msm_camera_csiphy_params csiphy_params;
uint8_t csi_clk_scale_enable;
};
struct msm_camera_csi_lane_params {
uint16_t csi_lane_assign;
uint16_t csi_lane_mask;
};
struct csi_lane_params_t {
uint16_t csi_lane_assign;
uint8_t csi_lane_mask;
uint8_t csi_if;
int8_t csid_core[2];
uint8_t csi_phy_sel;
};
struct msm_sensor_info_t {
char sensor_name[MAX_SENSOR_NAME];
uint32_t session_id;
int32_t subdev_id[SUB_MODULE_MAX];
int32_t subdev_intf[SUB_MODULE_MAX];
uint8_t is_mount_angle_valid;
uint32_t sensor_mount_angle;
int modes_supported;
enum camb_position_t position;
};
struct camera_vreg_t {
const char *reg_name;
int min_voltage;
int max_voltage;
int op_mode;
uint32_t delay;
const char *custom_vreg_name;
enum camera_vreg_type type;
};
struct sensorb_cfg_data {
int cfgtype;
union {
struct msm_sensor_info_t sensor_info;
struct msm_sensor_init_params sensor_init_params;
void *setting;
struct msm_sensor_i2c_sync_params sensor_i2c_sync_params;
} cfg;
};
struct csid_cfg_data {
enum csid_cfg_type_t cfgtype;
union {
uint32_t csid_version;
struct msm_camera_csid_params *csid_params;
struct msm_camera_csid_testmode_parms *csid_testmode_params;
} cfg;
};
struct csiphy_cfg_data {
enum csiphy_cfg_type_t cfgtype;
union {
struct msm_camera_csiphy_params *csiphy_params;
struct msm_camera_csi_lane_params *csi_lane_params;
} cfg;
};
enum eeprom_cfg_type_t {
CFG_EEPROM_GET_INFO,
CFG_EEPROM_GET_CAL_DATA,
CFG_EEPROM_READ_CAL_DATA,
CFG_EEPROM_WRITE_DATA,
CFG_EEPROM_GET_MM_INFO,
CFG_EEPROM_INIT,
};
struct eeprom_get_t {
uint32_t num_bytes;
};
struct eeprom_read_t {
uint8_t *dbuffer;
uint32_t num_bytes;
};
struct eeprom_write_t {
uint8_t *dbuffer;
uint32_t num_bytes;
};
struct eeprom_get_cmm_t {
uint32_t cmm_support;
uint32_t cmm_compression;
uint32_t cmm_size;
};
struct msm_eeprom_info_t {
struct msm_sensor_power_setting_array *power_setting_array;
enum i2c_freq_mode_t i2c_freq_mode;
struct msm_eeprom_memory_map_array *mem_map_array;
};
struct msm_eeprom_cfg_data {
enum eeprom_cfg_type_t cfgtype;
uint8_t is_supported;
union {
char eeprom_name[MAX_SENSOR_NAME];
struct eeprom_get_t get_data;
struct eeprom_read_t read_data;
struct eeprom_write_t write_data;
struct eeprom_get_cmm_t get_cmm_data;
struct msm_eeprom_info_t eeprom_info;
} cfg;
};
#ifdef CONFIG_COMPAT
struct msm_sensor_power_setting32 {
enum msm_sensor_power_seq_type_t seq_type;
uint16_t seq_val;
compat_uint_t config_val;
uint16_t delay;
compat_uptr_t data[10];
};
struct msm_sensor_power_setting_array32 {
struct msm_sensor_power_setting32 power_setting_a[MAX_POWER_CONFIG];
compat_uptr_t power_setting;
uint16_t size;
struct msm_sensor_power_setting32
power_down_setting_a[MAX_POWER_CONFIG];
compat_uptr_t power_down_setting;
uint16_t size_down;
};
struct msm_camera_sensor_slave_info32 {
char sensor_name[32];
char eeprom_name[32];
char actuator_name[32];
char ois_name[32];
char flash_name[32];
enum msm_sensor_camera_id_t camera_id;
uint16_t slave_addr;
enum i2c_freq_mode_t i2c_freq_mode;
enum msm_camera_i2c_reg_addr_type addr_type;
struct msm_sensor_id_info_t sensor_id_info;
struct msm_sensor_power_setting_array32 power_setting_array;
uint8_t is_init_params_valid;
struct msm_sensor_init_params sensor_init_params;
enum msm_sensor_output_format_t output_format;
};
struct msm_camera_csid_lut_params32 {
uint8_t num_cid;
struct msm_camera_csid_vc_cfg vc_cfg_a[MAX_CID];
compat_uptr_t vc_cfg[MAX_CID];
};
struct msm_camera_csid_params32 {
uint8_t lane_cnt;
uint16_t lane_assign;
uint8_t phy_sel;
uint32_t csi_clk;
struct msm_camera_csid_lut_params32 lut_params;
uint8_t csi_3p_sel;
};
struct msm_camera_csi2_params32 {
struct msm_camera_csid_params32 csid_params;
struct msm_camera_csiphy_params csiphy_params;
uint8_t csi_clk_scale_enable;
};
struct csid_cfg_data32 {
enum csid_cfg_type_t cfgtype;
union {
uint32_t csid_version;
compat_uptr_t csid_params;
compat_uptr_t csid_testmode_params;
} cfg;
};
struct eeprom_read_t32 {
compat_uptr_t dbuffer;
uint32_t num_bytes;
};
struct eeprom_write_t32 {
compat_uptr_t dbuffer;
uint32_t num_bytes;
};
struct msm_eeprom_info_t32 {
compat_uptr_t power_setting_array;
enum i2c_freq_mode_t i2c_freq_mode;
compat_uptr_t mem_map_array;
};
struct msm_eeprom_cfg_data32 {
enum eeprom_cfg_type_t cfgtype;
uint8_t is_supported;
union {
char eeprom_name[MAX_SENSOR_NAME];
struct eeprom_get_t get_data;
struct eeprom_read_t32 read_data;
struct eeprom_write_t32 write_data;
struct msm_eeprom_info_t32 eeprom_info;
} cfg;
};
struct msm_camera_i2c_seq_reg_setting32 {
compat_uptr_t reg_setting;
uint16_t size;
enum msm_camera_i2c_reg_addr_type addr_type;
uint16_t delay;
};
#endif
enum msm_sensor_cfg_type_t {
CFG_SET_SLAVE_INFO,
CFG_SLAVE_READ_I2C,
CFG_WRITE_I2C_ARRAY,
CFG_SLAVE_WRITE_I2C_ARRAY,
CFG_WRITE_I2C_SEQ_ARRAY,
CFG_POWER_UP,
CFG_POWER_DOWN,
CFG_SET_STOP_STREAM_SETTING,
CFG_GET_SENSOR_INFO,
CFG_GET_SENSOR_INIT_PARAMS,
CFG_SET_INIT_SETTING,
CFG_SET_RESOLUTION,
CFG_SET_STOP_STREAM,
CFG_SET_START_STREAM,
CFG_SET_SATURATION,
CFG_SET_CONTRAST,
CFG_SET_SHARPNESS,
CFG_SET_ISO,
CFG_SET_EXPOSURE_COMPENSATION,
CFG_SET_ANTIBANDING,
CFG_SET_BESTSHOT_MODE,
CFG_SET_EFFECT,
CFG_SET_WHITE_BALANCE,
CFG_SET_AUTOFOCUS,
CFG_CANCEL_AUTOFOCUS,
CFG_SET_STREAM_TYPE,
CFG_SET_I2C_SYNC_PARAM,
CFG_WRITE_I2C_ARRAY_ASYNC,
CFG_WRITE_I2C_ARRAY_SYNC,
CFG_WRITE_I2C_ARRAY_SYNC_BLOCK,
};
enum msm_actuator_cfg_type_t {
CFG_GET_ACTUATOR_INFO,
CFG_SET_ACTUATOR_INFO,
CFG_SET_DEFAULT_FOCUS,
CFG_MOVE_FOCUS,
CFG_SET_POSITION,
CFG_ACTUATOR_POWERDOWN,
CFG_ACTUATOR_POWERUP,
CFG_ACTUATOR_INIT,
};
enum msm_ois_cfg_type_t {
CFG_OIS_INIT,
CFG_OIS_POWERDOWN,
CFG_OIS_POWERUP,
CFG_OIS_CONTROL,
CFG_OIS_I2C_WRITE_SEQ_TABLE,
};
enum msm_ois_i2c_operation {
MSM_OIS_WRITE = 0,
MSM_OIS_POLL,
};
struct reg_settings_ois_t {
uint16_t reg_addr;
enum msm_camera_i2c_reg_addr_type addr_type;
uint32_t reg_data;
enum msm_camera_i2c_data_type data_type;
enum msm_ois_i2c_operation i2c_operation;
uint32_t delay;
#define OIS_REG_DATA_SEQ_MAX 128
unsigned char reg_data_seq[OIS_REG_DATA_SEQ_MAX];
uint32_t reg_data_seq_size;
};
struct msm_ois_params_t {
uint16_t data_size;
uint16_t setting_size;
uint32_t i2c_addr;
enum i2c_freq_mode_t i2c_freq_mode;
enum msm_camera_i2c_reg_addr_type i2c_addr_type;
enum msm_camera_i2c_data_type i2c_data_type;
struct reg_settings_ois_t *settings;
};
struct msm_ois_set_info_t {
struct msm_ois_params_t ois_params;
};
struct msm_actuator_move_params_t {
int8_t dir;
int8_t sign_dir;
int16_t dest_step_pos;
int32_t num_steps;
uint16_t curr_lens_pos;
struct damping_params_t *ringing_params;
};
struct msm_actuator_tuning_params_t {
int16_t initial_code;
uint16_t pwd_step;
uint16_t region_size;
uint32_t total_steps;
struct region_params_t *region_params;
};
struct park_lens_data_t {
uint32_t damping_step;
uint32_t damping_delay;
uint32_t hw_params;
uint32_t max_step;
};
struct msm_actuator_params_t {
enum actuator_type act_type;
uint8_t reg_tbl_size;
uint16_t data_size;
uint16_t init_setting_size;
uint32_t i2c_addr;
enum i2c_freq_mode_t i2c_freq_mode;
enum msm_actuator_addr_type i2c_addr_type;
enum msm_actuator_data_type i2c_data_type;
struct msm_actuator_reg_params_t *reg_tbl_params;
struct reg_settings_t *init_settings;
struct park_lens_data_t park_lens;
};
struct msm_actuator_set_info_t {
struct msm_actuator_params_t actuator_params;
struct msm_actuator_tuning_params_t af_tuning_params;
};
struct msm_actuator_get_info_t {
uint32_t focal_length_num;
uint32_t focal_length_den;
uint32_t f_number_num;
uint32_t f_number_den;
uint32_t f_pix_num;
uint32_t f_pix_den;
uint32_t total_f_dist_num;
uint32_t total_f_dist_den;
uint32_t hor_view_angle_num;
uint32_t hor_view_angle_den;
uint32_t ver_view_angle_num;
uint32_t ver_view_angle_den;
};
enum af_camera_name {
ACTUATOR_MAIN_CAM_0,
ACTUATOR_MAIN_CAM_1,
ACTUATOR_MAIN_CAM_2,
ACTUATOR_MAIN_CAM_3,
ACTUATOR_MAIN_CAM_4,
ACTUATOR_MAIN_CAM_5,
ACTUATOR_WEB_CAM_0,
ACTUATOR_WEB_CAM_1,
ACTUATOR_WEB_CAM_2,
};
struct msm_ois_cfg_data {
int cfgtype;
union {
struct msm_ois_set_info_t set_info;
struct msm_camera_i2c_seq_reg_setting *settings;
} cfg;
};
struct msm_actuator_set_position_t {
uint16_t number_of_steps;
uint32_t hw_params;
uint16_t pos[MAX_NUMBER_OF_STEPS];
uint16_t delay[MAX_NUMBER_OF_STEPS];
};
struct msm_actuator_cfg_data {
int cfgtype;
uint8_t is_af_supported;
union {
struct msm_actuator_move_params_t move;
struct msm_actuator_set_info_t set_info;
struct msm_actuator_get_info_t get_info;
struct msm_actuator_set_position_t setpos;
enum af_camera_name cam_name;
} cfg;
};
enum msm_camera_led_config_t {
MSM_CAMERA_LED_OFF,
MSM_CAMERA_LED_LOW,
MSM_CAMERA_LED_HIGH,
MSM_CAMERA_LED_INIT,
MSM_CAMERA_LED_RELEASE,
};
struct msm_camera_led_cfg_t {
enum msm_camera_led_config_t cfgtype;
int32_t torch_current[MAX_LED_TRIGGERS];
int32_t flash_current[MAX_LED_TRIGGERS];
int32_t flash_duration[MAX_LED_TRIGGERS];
};
struct msm_flash_init_info_t {
enum msm_flash_driver_type flash_driver_type;
uint32_t slave_addr;
enum i2c_freq_mode_t i2c_freq_mode;
struct msm_sensor_power_setting_array *power_setting_array;
struct msm_camera_i2c_reg_setting_array *settings;
};
struct msm_flash_cfg_data_t {
enum msm_flash_cfg_type_t cfg_type;
int32_t flash_current[MAX_LED_TRIGGERS];
int32_t flash_duration[MAX_LED_TRIGGERS];
union {
struct msm_flash_init_info_t *flash_init_info;
struct msm_camera_i2c_reg_setting_array *settings;
} cfg;
};
/* sensor init structures and enums */
enum msm_sensor_init_cfg_type_t {
CFG_SINIT_PROBE,
CFG_SINIT_PROBE_DONE,
CFG_SINIT_PROBE_WAIT_DONE,
};
struct sensor_init_cfg_data {
enum msm_sensor_init_cfg_type_t cfgtype;
struct msm_sensor_info_t probed_info;
char entity_name[MAX_SENSOR_NAME];
union {
void *setting;
} cfg;
};
#define VIDIOC_MSM_SENSOR_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 1, struct sensorb_cfg_data)
#define VIDIOC_MSM_SENSOR_RELEASE \
_IO('V', BASE_VIDIOC_PRIVATE + 2)
#define VIDIOC_MSM_SENSOR_GET_SUBDEV_ID \
_IOWR('V', BASE_VIDIOC_PRIVATE + 3, uint32_t)
#define VIDIOC_MSM_CSIPHY_IO_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 4, struct csiphy_cfg_data)
#define VIDIOC_MSM_CSID_IO_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 5, struct csid_cfg_data)
#define VIDIOC_MSM_ACTUATOR_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 6, struct msm_actuator_cfg_data)
#define VIDIOC_MSM_FLASH_LED_DATA_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 7, struct msm_camera_led_cfg_t)
#define VIDIOC_MSM_EEPROM_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 8, struct msm_eeprom_cfg_data)
#define VIDIOC_MSM_SENSOR_GET_AF_STATUS \
_IOWR('V', BASE_VIDIOC_PRIVATE + 9, uint32_t)
#define VIDIOC_MSM_SENSOR_INIT_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 10, struct sensor_init_cfg_data)
#define VIDIOC_MSM_OIS_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 11, struct msm_ois_cfg_data)
#define VIDIOC_MSM_FLASH_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE + 13, struct msm_flash_cfg_data_t)
#ifdef CONFIG_COMPAT
struct msm_camera_i2c_reg_setting32 {
compat_uptr_t reg_setting;
uint16_t size;
enum msm_camera_i2c_reg_addr_type addr_type;
enum msm_camera_i2c_data_type data_type;
uint16_t delay;
};
struct msm_camera_i2c_array_write_config32 {
struct msm_camera_i2c_reg_setting32 conf_array;
uint16_t slave_addr;
};
struct msm_actuator_tuning_params_t32 {
int16_t initial_code;
uint16_t pwd_step;
uint16_t region_size;
uint32_t total_steps;
compat_uptr_t region_params;
};
struct msm_actuator_params_t32 {
enum actuator_type act_type;
uint8_t reg_tbl_size;
uint16_t data_size;
uint16_t init_setting_size;
uint32_t i2c_addr;
enum i2c_freq_mode_t i2c_freq_mode;
enum msm_actuator_addr_type i2c_addr_type;
enum msm_actuator_data_type i2c_data_type;
compat_uptr_t reg_tbl_params;
compat_uptr_t init_settings;
struct park_lens_data_t park_lens;
};
struct msm_actuator_set_info_t32 {
struct msm_actuator_params_t32 actuator_params;
struct msm_actuator_tuning_params_t32 af_tuning_params;
};
struct sensor_init_cfg_data32 {
enum msm_sensor_init_cfg_type_t cfgtype;
struct msm_sensor_info_t probed_info;
char entity_name[MAX_SENSOR_NAME];
union {
compat_uptr_t setting;
} cfg;
};
struct msm_actuator_move_params_t32 {
int8_t dir;
int8_t sign_dir;
int16_t dest_step_pos;
int32_t num_steps;
uint16_t curr_lens_pos;
compat_uptr_t ringing_params;
};
struct msm_actuator_cfg_data32 {
int cfgtype;
uint8_t is_af_supported;
union {
struct msm_actuator_move_params_t32 move;
struct msm_actuator_set_info_t32 set_info;
struct msm_actuator_get_info_t get_info;
struct msm_actuator_set_position_t setpos;
enum af_camera_name cam_name;
} cfg;
};
struct csiphy_cfg_data32 {
enum csiphy_cfg_type_t cfgtype;
union {
compat_uptr_t csiphy_params;
compat_uptr_t csi_lane_params;
} cfg;
};
struct sensorb_cfg_data32 {
int cfgtype;
union {
struct msm_sensor_info_t sensor_info;
struct msm_sensor_init_params sensor_init_params;
compat_uptr_t setting;
struct msm_sensor_i2c_sync_params sensor_i2c_sync_params;
} cfg;
};
struct msm_ois_params_t32 {
uint16_t data_size;
uint16_t setting_size;
uint32_t i2c_addr;
enum i2c_freq_mode_t i2c_freq_mode;
enum msm_camera_i2c_reg_addr_type i2c_addr_type;
enum msm_camera_i2c_data_type i2c_data_type;
compat_uptr_t settings;
};
struct msm_ois_set_info_t32 {
struct msm_ois_params_t32 ois_params;
};
struct msm_ois_cfg_data32 {
int cfgtype;
union {
struct msm_ois_set_info_t32 set_info;
compat_uptr_t settings;
} cfg;
};
struct msm_flash_init_info_t32 {
enum msm_flash_driver_type flash_driver_type;
uint32_t slave_addr;
enum i2c_freq_mode_t i2c_freq_mode;
compat_uptr_t power_setting_array;
compat_uptr_t settings;
};
struct msm_flash_cfg_data_t32 {
enum msm_flash_cfg_type_t cfg_type;
int32_t flash_current[MAX_LED_TRIGGERS];
int32_t flash_duration[MAX_LED_TRIGGERS];
union {
compat_uptr_t flash_init_info;
compat_uptr_t settings;
} cfg;
};
#define VIDIOC_MSM_ACTUATOR_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 6, struct msm_actuator_cfg_data32)
#define VIDIOC_MSM_SENSOR_INIT_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 10, struct sensor_init_cfg_data32)
#define VIDIOC_MSM_CSIPHY_IO_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 4, struct csiphy_cfg_data32)
#define VIDIOC_MSM_SENSOR_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 1, struct sensorb_cfg_data32)
#define VIDIOC_MSM_EEPROM_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 8, struct msm_eeprom_cfg_data32)
#define VIDIOC_MSM_OIS_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 11, struct msm_ois_cfg_data32)
#define VIDIOC_MSM_CSID_IO_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 5, struct csid_cfg_data32)
#define VIDIOC_MSM_FLASH_CFG32 \
_IOWR('V', BASE_VIDIOC_PRIVATE + 13, struct msm_flash_cfg_data_t32)
#endif
#endif /* __LINUX_MSM_CAM_SENSOR_H */
+386
View File
@@ -0,0 +1,386 @@
#ifndef __LINUX_MSM_CAMSENSOR_SDK_H
#define __LINUX_MSM_CAMSENSOR_SDK_H
#define KVERSION 0x1
#define MAX_POWER_CONFIG 12
#define GPIO_OUT_LOW (0 << 1)
#define GPIO_OUT_HIGH (1 << 1)
#define CSI_EMBED_DATA 0x12
#define CSI_RESERVED_DATA_0 0x13
#define CSI_YUV422_8 0x1E
#define CSI_RAW8 0x2A
#define CSI_RAW10 0x2B
#define CSI_RAW12 0x2C
#define CSI_DECODE_6BIT 0
#define CSI_DECODE_8BIT 1
#define CSI_DECODE_10BIT 2
#define CSI_DECODE_12BIT 3
#define CSI_DECODE_DPCM_10_8_10 5
#define MAX_CID 16
#define I2C_SEQ_REG_DATA_MAX 1024
#define I2C_REG_DATA_MAX (8*1024)
#define MSM_V4L2_PIX_FMT_META v4l2_fourcc('M', 'E', 'T', 'A') /* META */
#define MSM_V4L2_PIX_FMT_SBGGR14 v4l2_fourcc('B', 'G', '1', '4')
/* 14 BGBG.. GRGR.. */
#define MSM_V4L2_PIX_FMT_SGBRG14 v4l2_fourcc('G', 'B', '1', '4')
/* 14 GBGB.. RGRG.. */
#define MSM_V4L2_PIX_FMT_SGRBG14 v4l2_fourcc('B', 'A', '1', '4')
/* 14 GRGR.. BGBG.. */
#define MSM_V4L2_PIX_FMT_SRGGB14 v4l2_fourcc('R', 'G', '1', '4')
/* 14 RGRG.. GBGB.. */
#define MAX_ACTUATOR_REG_TBL_SIZE 8
#define MAX_ACTUATOR_REGION 5
#define NUM_ACTUATOR_DIR 2
#define MAX_ACTUATOR_SCENARIO 8
#define MAX_ACT_MOD_NAME_SIZE 32
#define MAX_ACT_NAME_SIZE 32
#define MAX_ACTUATOR_INIT_SET 120
#define MAX_I2C_REG_SET 12
#define MAX_LED_TRIGGERS 3
#define MSM_EEPROM_MEMORY_MAP_MAX_SIZE 80
#define MSM_EEPROM_MAX_MEM_MAP_CNT 8
enum msm_sensor_camera_id_t {
CAMERA_0,
CAMERA_1,
CAMERA_2,
CAMERA_3,
MAX_CAMERAS,
};
enum i2c_freq_mode_t {
I2C_STANDARD_MODE,
I2C_FAST_MODE,
I2C_CUSTOM_MODE,
I2C_FAST_PLUS_MODE,
I2C_MAX_MODES,
};
enum camb_position_t {
BACK_CAMERA_B,
FRONT_CAMERA_B,
AUX_CAMERA_B = 0x100,
INVALID_CAMERA_B,
};
enum msm_sensor_power_seq_type_t {
SENSOR_CLK,
SENSOR_GPIO,
SENSOR_VREG,
SENSOR_I2C_MUX,
SENSOR_I2C,
};
enum msm_camera_i2c_reg_addr_type {
MSM_CAMERA_I2C_BYTE_ADDR = 1,
MSM_CAMERA_I2C_WORD_ADDR,
MSM_CAMERA_I2C_3B_ADDR,
MSM_CAMERA_I2C_ADDR_TYPE_MAX,
};
enum msm_camera_i2c_data_type {
MSM_CAMERA_I2C_BYTE_DATA = 1,
MSM_CAMERA_I2C_WORD_DATA,
MSM_CAMERA_I2C_DWORD_DATA,
MSM_CAMERA_I2C_SET_BYTE_MASK,
MSM_CAMERA_I2C_UNSET_BYTE_MASK,
MSM_CAMERA_I2C_SET_WORD_MASK,
MSM_CAMERA_I2C_UNSET_WORD_MASK,
MSM_CAMERA_I2C_SET_BYTE_WRITE_MASK_DATA,
MSM_CAMERA_I2C_SEQ_DATA,
MSM_CAMERA_I2C_DATA_TYPE_MAX,
};
enum msm_sensor_power_seq_gpio_t {
SENSOR_GPIO_RESET,
SENSOR_GPIO_STANDBY,
SENSOR_GPIO_AF_PWDM,
SENSOR_GPIO_VIO,
SENSOR_GPIO_VANA,
SENSOR_GPIO_VDIG,
SENSOR_GPIO_VAF,
SENSOR_GPIO_FL_EN,
SENSOR_GPIO_FL_NOW,
SENSOR_GPIO_FL_RESET,
SENSOR_GPIO_CUSTOM1,
SENSOR_GPIO_CUSTOM2,
SENSOR_GPIO_MAX,
};
enum msm_camera_vreg_name_t {
CAM_VDIG,
CAM_VIO,
CAM_VANA,
CAM_VAF,
CAM_V_CUSTOM1,
CAM_V_CUSTOM2,
CAM_VREG_MAX,
};
enum msm_sensor_clk_type_t {
SENSOR_CAM_MCLK,
SENSOR_CAM_CLK,
SENSOR_CAM_CLK_MAX,
};
enum camerab_mode_t {
CAMERA_MODE_2D_B = (1<<0),
CAMERA_MODE_3D_B = (1<<1),
CAMERA_MODE_INVALID = (1<<2),
};
enum msm_actuator_data_type {
MSM_ACTUATOR_BYTE_DATA = 1,
MSM_ACTUATOR_WORD_DATA,
};
enum msm_actuator_addr_type {
MSM_ACTUATOR_BYTE_ADDR = 1,
MSM_ACTUATOR_WORD_ADDR,
};
enum msm_actuator_write_type {
MSM_ACTUATOR_WRITE_HW_DAMP,
MSM_ACTUATOR_WRITE_DAC,
MSM_ACTUATOR_WRITE,
MSM_ACTUATOR_WRITE_DIR_REG,
MSM_ACTUATOR_POLL,
MSM_ACTUATOR_READ_WRITE,
};
enum msm_actuator_i2c_operation {
MSM_ACT_WRITE = 0,
MSM_ACT_POLL,
};
enum actuator_type {
ACTUATOR_VCM,
ACTUATOR_PIEZO,
ACTUATOR_HVCM,
ACTUATOR_BIVCM,
};
enum msm_flash_driver_type {
FLASH_DRIVER_PMIC,
FLASH_DRIVER_I2C,
FLASH_DRIVER_GPIO,
FLASH_DRIVER_DEFAULT
};
enum msm_flash_cfg_type_t {
CFG_FLASH_INIT,
CFG_FLASH_RELEASE,
CFG_FLASH_OFF,
CFG_FLASH_LOW,
CFG_FLASH_HIGH,
};
enum msm_sensor_output_format_t {
MSM_SENSOR_BAYER,
MSM_SENSOR_YCBCR,
MSM_SENSOR_META,
};
struct msm_sensor_power_setting {
enum msm_sensor_power_seq_type_t seq_type;
unsigned short seq_val;
long config_val;
unsigned short delay;
void *data[10];
};
struct msm_sensor_power_setting_array {
struct msm_sensor_power_setting power_setting_a[MAX_POWER_CONFIG];
struct msm_sensor_power_setting *power_setting;
unsigned short size;
struct msm_sensor_power_setting power_down_setting_a[MAX_POWER_CONFIG];
struct msm_sensor_power_setting *power_down_setting;
unsigned short size_down;
};
enum msm_camera_i2c_operation {
MSM_CAM_WRITE = 0,
MSM_CAM_POLL,
MSM_CAM_READ,
};
struct msm_sensor_i2c_sync_params {
unsigned int cid;
int csid;
unsigned short line;
unsigned short delay;
};
struct msm_camera_reg_settings_t {
uint16_t reg_addr;
enum msm_camera_i2c_reg_addr_type addr_type;
uint16_t reg_data;
enum msm_camera_i2c_data_type data_type;
enum msm_camera_i2c_operation i2c_operation;
uint16_t delay;
};
struct msm_eeprom_mem_map_t {
int slave_addr;
struct msm_camera_reg_settings_t
mem_settings[MSM_EEPROM_MEMORY_MAP_MAX_SIZE];
int memory_map_size;
};
struct msm_eeprom_memory_map_array {
struct msm_eeprom_mem_map_t memory_map[MSM_EEPROM_MAX_MEM_MAP_CNT];
uint32_t msm_size_of_max_mappings;
};
struct msm_sensor_init_params {
/* mask of modes supported: 2D, 3D */
int modes_supported;
/* sensor position: front, back */
enum camb_position_t position;
/* sensor mount angle */
unsigned int sensor_mount_angle;
};
struct msm_sensor_id_info_t {
unsigned short sensor_id_reg_addr;
unsigned short sensor_id;
unsigned short sensor_id_mask;
// added in LeEco
unsigned char module_id;
unsigned char vcm_id;
};
struct msm_camera_sensor_slave_info {
char sensor_name[32];
char eeprom_name[32];
char actuator_name[32];
char ois_name[32];
char flash_name[32];
enum msm_sensor_camera_id_t camera_id;
unsigned short slave_addr;
enum i2c_freq_mode_t i2c_freq_mode;
enum msm_camera_i2c_reg_addr_type addr_type;
struct msm_sensor_id_info_t sensor_id_info;
struct msm_sensor_power_setting_array power_setting_array;
unsigned char is_init_params_valid;
struct msm_sensor_init_params sensor_init_params;
enum msm_sensor_output_format_t output_format;
};
struct msm_camera_i2c_reg_array {
unsigned short reg_addr;
unsigned short reg_data;
unsigned int delay;
};
struct msm_camera_i2c_reg_setting {
struct msm_camera_i2c_reg_array *reg_setting;
unsigned short size;
enum msm_camera_i2c_reg_addr_type addr_type;
enum msm_camera_i2c_data_type data_type;
unsigned short delay;
};
struct msm_camera_csid_vc_cfg {
unsigned char cid;
unsigned char dt;
unsigned char decode_format;
};
struct msm_camera_csid_lut_params {
unsigned char num_cid;
struct msm_camera_csid_vc_cfg vc_cfg_a[MAX_CID];
struct msm_camera_csid_vc_cfg *vc_cfg[MAX_CID];
};
struct msm_camera_csid_params {
unsigned char lane_cnt;
unsigned short lane_assign;
unsigned char phy_sel;
unsigned int csi_clk;
struct msm_camera_csid_lut_params lut_params;
unsigned char csi_3p_sel;
};
struct msm_camera_csid_testmode_parms {
unsigned int num_bytes_per_line;
unsigned int num_lines;
unsigned int h_blanking_count;
unsigned int v_blanking_count;
unsigned int payload_mode;
};
struct msm_camera_csiphy_params {
unsigned char lane_cnt;
unsigned char settle_cnt;
unsigned short lane_mask;
unsigned char combo_mode;
unsigned char csid_core;
unsigned int csiphy_clk;
unsigned char csi_3phase;
};
struct msm_camera_i2c_seq_reg_array {
unsigned short reg_addr;
unsigned char reg_data[I2C_SEQ_REG_DATA_MAX];
unsigned short reg_data_size;
};
struct msm_camera_i2c_seq_reg_setting {
struct msm_camera_i2c_seq_reg_array *reg_setting;
unsigned short size;
enum msm_camera_i2c_reg_addr_type addr_type;
unsigned short delay;
};
struct msm_actuator_reg_params_t {
enum msm_actuator_write_type reg_write_type;
unsigned int hw_mask;
unsigned short reg_addr;
unsigned short hw_shift;
unsigned short data_shift;
unsigned short data_type;
unsigned short addr_type;
unsigned short reg_data;
unsigned short delay;
};
struct damping_params_t {
unsigned int damping_step;
unsigned int damping_delay;
unsigned int hw_params;
};
struct region_params_t {
/* [0] = ForwardDirection Macro boundary
[1] = ReverseDirection Inf boundary
*/
unsigned short step_bound[2];
unsigned short code_per_step;
/* qvalue for converting float type numbers to integer format */
unsigned int qvalue;
};
struct reg_settings_t {
unsigned short reg_addr;
enum msm_actuator_addr_type addr_type;
unsigned short reg_data;
enum msm_actuator_data_type data_type;
enum msm_actuator_i2c_operation i2c_operation;
unsigned int delay;
};
struct msm_camera_i2c_reg_setting_array {
struct msm_camera_i2c_reg_array reg_setting_a[MAX_I2C_REG_SET];
unsigned short size;
enum msm_camera_i2c_reg_addr_type addr_type;
enum msm_camera_i2c_data_type data_type;
unsigned short delay;
};
#endif /* __LINUX_MSM_CAM_SENSOR_H */
+220
View File
@@ -0,0 +1,220 @@
#ifndef __LINUX_MSMB_CAMERA_H
#define __LINUX_MSMB_CAMERA_H
#include <linux/videodev2.h>
#include <linux/types.h>
#include <linux/ioctl.h>
#define MSM_CAM_LOGSYNC_FILE_NAME "logsync"
#define MSM_CAM_LOGSYNC_FILE_BASEDIR "camera"
#define MSM_CAM_V4L2_IOCTL_NOTIFY \
_IOW('V', BASE_VIDIOC_PRIVATE + 30, struct msm_v4l2_event_data)
#define MSM_CAM_V4L2_IOCTL_NOTIFY_META \
_IOW('V', BASE_VIDIOC_PRIVATE + 31, struct msm_v4l2_event_data)
#define MSM_CAM_V4L2_IOCTL_CMD_ACK \
_IOW('V', BASE_VIDIOC_PRIVATE + 32, struct msm_v4l2_event_data)
#define MSM_CAM_V4L2_IOCTL_NOTIFY_ERROR \
_IOW('V', BASE_VIDIOC_PRIVATE + 33, struct msm_v4l2_event_data)
#define MSM_CAM_V4L2_IOCTL_NOTIFY_DEBUG \
_IOW('V', BASE_VIDIOC_PRIVATE + 34, struct msm_v4l2_event_data)
#ifdef CONFIG_COMPAT
#define MSM_CAM_V4L2_IOCTL_NOTIFY32 \
_IOW('V', BASE_VIDIOC_PRIVATE + 30, struct v4l2_event32)
#define MSM_CAM_V4L2_IOCTL_NOTIFY_META32 \
_IOW('V', BASE_VIDIOC_PRIVATE + 31, struct v4l2_event32)
#define MSM_CAM_V4L2_IOCTL_CMD_ACK32 \
_IOW('V', BASE_VIDIOC_PRIVATE + 32, struct v4l2_event32)
#define MSM_CAM_V4L2_IOCTL_NOTIFY_ERROR32 \
_IOW('V', BASE_VIDIOC_PRIVATE + 33, struct v4l2_event32)
#define MSM_CAM_V4L2_IOCTL_NOTIFY_DEBUG32 \
_IOW('V', BASE_VIDIOC_PRIVATE + 34, struct v4l2_event32)
#endif
#define QCAMERA_DEVICE_GROUP_ID 1
#define QCAMERA_VNODE_GROUP_ID 2
#define MSM_CAMERA_NAME "msm_camera"
#define MSM_CONFIGURATION_NAME "msm_config"
#define MSM_CAMERA_SUBDEV_CSIPHY 0
#define MSM_CAMERA_SUBDEV_CSID 1
#define MSM_CAMERA_SUBDEV_ISPIF 2
#define MSM_CAMERA_SUBDEV_VFE 3
#define MSM_CAMERA_SUBDEV_AXI 4
#define MSM_CAMERA_SUBDEV_VPE 5
#define MSM_CAMERA_SUBDEV_SENSOR 6
#define MSM_CAMERA_SUBDEV_ACTUATOR 7
#define MSM_CAMERA_SUBDEV_EEPROM 8
#define MSM_CAMERA_SUBDEV_CPP 9
#define MSM_CAMERA_SUBDEV_CCI 10
#define MSM_CAMERA_SUBDEV_LED_FLASH 11
#define MSM_CAMERA_SUBDEV_STROBE_FLASH 12
#define MSM_CAMERA_SUBDEV_BUF_MNGR 13
#define MSM_CAMERA_SUBDEV_SENSOR_INIT 14
#define MSM_CAMERA_SUBDEV_OIS 15
#define MSM_CAMERA_SUBDEV_FLASH 16
#define MSM_CAMERA_SUBDEV_EXT 17
#define MSM_MAX_CAMERA_SENSORS 5
/* The below macro is defined to put an upper limit on maximum
* number of buffer requested per stream. In case of extremely
* large value for number of buffer due to data structure corruption
* we return error to avoid integer overflow. Group processing
* can have max of 9 groups of 8 bufs each. This value may be
* configured in future*/
#define MSM_CAMERA_MAX_STREAM_BUF 72
/* Max batch size of processing */
#define MSM_CAMERA_MAX_USER_BUFF_CNT 16
/* featur base */
#define MSM_CAMERA_FEATURE_BASE 0x00010000
#define MSM_CAMERA_FEATURE_SHUTDOWN (MSM_CAMERA_FEATURE_BASE + 1)
#define MSM_CAMERA_STATUS_BASE 0x00020000
#define MSM_CAMERA_STATUS_FAIL (MSM_CAMERA_STATUS_BASE + 1)
#define MSM_CAMERA_STATUS_SUCCESS (MSM_CAMERA_STATUS_BASE + 2)
/* event type */
#define MSM_CAMERA_V4L2_EVENT_TYPE (V4L2_EVENT_PRIVATE_START + 0x00002000)
/* event id */
#define MSM_CAMERA_EVENT_MIN 0
#define MSM_CAMERA_NEW_SESSION (MSM_CAMERA_EVENT_MIN + 1)
#define MSM_CAMERA_DEL_SESSION (MSM_CAMERA_EVENT_MIN + 2)
#define MSM_CAMERA_SET_PARM (MSM_CAMERA_EVENT_MIN + 3)
#define MSM_CAMERA_GET_PARM (MSM_CAMERA_EVENT_MIN + 4)
#define MSM_CAMERA_MAPPING_CFG (MSM_CAMERA_EVENT_MIN + 5)
#define MSM_CAMERA_MAPPING_SES (MSM_CAMERA_EVENT_MIN + 6)
#define MSM_CAMERA_MSM_NOTIFY (MSM_CAMERA_EVENT_MIN + 7)
#define MSM_CAMERA_EVENT_MAX (MSM_CAMERA_EVENT_MIN + 8)
/* data.command */
#define MSM_CAMERA_PRIV_S_CROP (V4L2_CID_PRIVATE_BASE + 1)
#define MSM_CAMERA_PRIV_G_CROP (V4L2_CID_PRIVATE_BASE + 2)
#define MSM_CAMERA_PRIV_G_FMT (V4L2_CID_PRIVATE_BASE + 3)
#define MSM_CAMERA_PRIV_S_FMT (V4L2_CID_PRIVATE_BASE + 4)
#define MSM_CAMERA_PRIV_TRY_FMT (V4L2_CID_PRIVATE_BASE + 5)
#define MSM_CAMERA_PRIV_METADATA (V4L2_CID_PRIVATE_BASE + 6)
#define MSM_CAMERA_PRIV_QUERY_CAP (V4L2_CID_PRIVATE_BASE + 7)
#define MSM_CAMERA_PRIV_STREAM_ON (V4L2_CID_PRIVATE_BASE + 8)
#define MSM_CAMERA_PRIV_STREAM_OFF (V4L2_CID_PRIVATE_BASE + 9)
#define MSM_CAMERA_PRIV_NEW_STREAM (V4L2_CID_PRIVATE_BASE + 10)
#define MSM_CAMERA_PRIV_DEL_STREAM (V4L2_CID_PRIVATE_BASE + 11)
#define MSM_CAMERA_PRIV_SHUTDOWN (V4L2_CID_PRIVATE_BASE + 12)
#define MSM_CAMERA_PRIV_STREAM_INFO_SYNC \
(V4L2_CID_PRIVATE_BASE + 13)
#define MSM_CAMERA_PRIV_G_SESSION_ID (V4L2_CID_PRIVATE_BASE + 14)
#define MSM_CAMERA_PRIV_CMD_MAX 20
/* data.status - success */
#define MSM_CAMERA_CMD_SUCESS 0x00000001
#define MSM_CAMERA_BUF_MAP_SUCESS 0x00000002
/* data.status - error */
#define MSM_CAMERA_ERR_EVT_BASE 0x00010000
#define MSM_CAMERA_ERR_CMD_FAIL (MSM_CAMERA_ERR_EVT_BASE + 1)
#define MSM_CAMERA_ERR_MAPPING (MSM_CAMERA_ERR_EVT_BASE + 2)
#define MSM_CAMERA_ERR_DEVICE_BUSY (MSM_CAMERA_ERR_EVT_BASE + 3)
/* The msm_v4l2_event_data structure should match the
* v4l2_event.u.data field.
* should not exceed 16 elements */
struct msm_v4l2_event_data {
/*word 0*/
unsigned int command;
/*word 1*/
unsigned int status;
/*word 2*/
unsigned int session_id;
/*word 3*/
unsigned int stream_id;
/*word 4*/
unsigned int map_op;
/*word 5*/
unsigned int map_buf_idx;
/*word 6*/
unsigned int notify;
/*word 7*/
unsigned int arg_value;
/*word 8*/
unsigned int ret_value;
/*word 9*/
unsigned int v4l2_event_type;
/*word 10*/
unsigned int v4l2_event_id;
/*word 11*/
unsigned int handle;
/*word 12*/
unsigned int nop6;
/*word 13*/
unsigned int nop7;
/*word 14*/
unsigned int nop8;
/*word 15*/
unsigned int nop9;
};
/* map to v4l2_format.fmt.raw_data */
struct msm_v4l2_format_data {
enum v4l2_buf_type type;
unsigned int width;
unsigned int height;
unsigned int pixelformat; /* FOURCC */
unsigned char num_planes;
unsigned int plane_sizes[VIDEO_MAX_PLANES];
};
/* MSM Four-character-code (FOURCC) */
#define msm_v4l2_fourcc(a, b, c, d)\
((__u32)(a) | ((__u32)(b) << 8) | ((__u32)(c) << 16) |\
((__u32)(d) << 24))
/* Composite stats */
#define MSM_V4L2_PIX_FMT_STATS_COMB v4l2_fourcc('S', 'T', 'C', 'M')
/* AEC stats */
#define MSM_V4L2_PIX_FMT_STATS_AE v4l2_fourcc('S', 'T', 'A', 'E')
/* AF stats */
#define MSM_V4L2_PIX_FMT_STATS_AF v4l2_fourcc('S', 'T', 'A', 'F')
/* AWB stats */
#define MSM_V4L2_PIX_FMT_STATS_AWB v4l2_fourcc('S', 'T', 'W', 'B')
/* IHIST stats */
#define MSM_V4L2_PIX_FMT_STATS_IHST v4l2_fourcc('I', 'H', 'S', 'T')
/* Column count stats */
#define MSM_V4L2_PIX_FMT_STATS_CS v4l2_fourcc('S', 'T', 'C', 'S')
/* Row count stats */
#define MSM_V4L2_PIX_FMT_STATS_RS v4l2_fourcc('S', 'T', 'R', 'S')
/* Bayer Grid stats */
#define MSM_V4L2_PIX_FMT_STATS_BG v4l2_fourcc('S', 'T', 'B', 'G')
/* Bayer focus stats */
#define MSM_V4L2_PIX_FMT_STATS_BF v4l2_fourcc('S', 'T', 'B', 'F')
/* Bayer hist stats */
#define MSM_V4L2_PIX_FMT_STATS_BHST v4l2_fourcc('B', 'H', 'S', 'T')
enum smmu_attach_mode {
NON_SECURE_MODE = 0x01,
SECURE_MODE = 0x02,
MAX_PROTECTION_MODE = 0x03,
};
struct msm_camera_smmu_attach_type {
enum smmu_attach_mode attach;
};
struct msm_camera_user_buf_cont_t {
unsigned int buf_cnt;
unsigned int buf_idx[MSM_CAMERA_MAX_USER_BUFF_CNT];
};
#endif /* __LINUX_MSMB_CAMERA_H */
+880
View File
@@ -0,0 +1,880 @@
#ifndef __MSMB_ISP__
#define __MSMB_ISP__
#include <linux/videodev2.h>
#define MAX_PLANES_PER_STREAM 3
#define MAX_NUM_STREAM 7
#define ISP_VERSION_47 47
#define ISP_VERSION_46 46
#define ISP_VERSION_44 44
#define ISP_VERSION_40 40
#define ISP_VERSION_32 32
#define ISP_NATIVE_BUF_BIT (0x10000 << 0)
#define ISP0_BIT (0x10000 << 1)
#define ISP1_BIT (0x10000 << 2)
#define ISP_META_CHANNEL_BIT (0x10000 << 3)
#define ISP_SCRATCH_BUF_BIT (0x10000 << 4)
#define ISP_OFFLINE_STATS_BIT (0x10000 << 5)
#define ISP_STATS_STREAM_BIT 0x80000000
struct msm_vfe_cfg_cmd_list;
enum ISP_START_PIXEL_PATTERN {
ISP_BAYER_RGRGRG,
ISP_BAYER_GRGRGR,
ISP_BAYER_BGBGBG,
ISP_BAYER_GBGBGB,
ISP_YUV_YCbYCr,
ISP_YUV_YCrYCb,
ISP_YUV_CbYCrY,
ISP_YUV_CrYCbY,
ISP_PIX_PATTERN_MAX
};
enum msm_vfe_plane_fmt {
Y_PLANE,
CB_PLANE,
CR_PLANE,
CRCB_PLANE,
CBCR_PLANE,
VFE_PLANE_FMT_MAX
};
enum msm_vfe_input_src {
VFE_PIX_0,
VFE_RAW_0,
VFE_RAW_1,
VFE_RAW_2,
VFE_SRC_MAX,
};
enum msm_vfe_axi_stream_src {
PIX_ENCODER,
PIX_VIEWFINDER,
PIX_VIDEO,
CAMIF_RAW,
IDEAL_RAW,
RDI_INTF_0,
RDI_INTF_1,
RDI_INTF_2,
VFE_AXI_SRC_MAX
};
enum msm_vfe_frame_skip_pattern {
NO_SKIP,
EVERY_2FRAME,
EVERY_3FRAME,
EVERY_4FRAME,
EVERY_5FRAME,
EVERY_6FRAME,
EVERY_7FRAME,
EVERY_8FRAME,
EVERY_16FRAME,
EVERY_32FRAME,
SKIP_ALL,
SKIP_RANGE,
MAX_SKIP,
};
/*
* Define an unused period. When this period is set it means that the stream is
* stopped(i.e the pattern is 0). We don't track the current pattern, just the
* period defines what the pattern is, if period is this then pattern is 0 else
* pattern is 1
*/
#define MSM_VFE_STREAM_STOP_PERIOD 15
enum msm_isp_stats_type {
MSM_ISP_STATS_AEC, /* legacy based AEC */
MSM_ISP_STATS_AF, /* legacy based AF */
MSM_ISP_STATS_AWB, /* legacy based AWB */
MSM_ISP_STATS_RS, /* legacy based RS */
MSM_ISP_STATS_CS, /* legacy based CS */
MSM_ISP_STATS_IHIST, /* legacy based HIST */
MSM_ISP_STATS_SKIN, /* legacy based SKIN */
MSM_ISP_STATS_BG, /* Bayer Grids */
MSM_ISP_STATS_BF, /* Bayer Focus */
MSM_ISP_STATS_BE, /* Bayer Exposure*/
MSM_ISP_STATS_BHIST, /* Bayer Hist */
MSM_ISP_STATS_BF_SCALE, /* Bayer Focus scale */
MSM_ISP_STATS_HDR_BE, /* HDR Bayer Exposure */
MSM_ISP_STATS_HDR_BHIST, /* HDR Bayer Hist */
MSM_ISP_STATS_AEC_BG, /* AEC BG */
MSM_ISP_STATS_MAX /* MAX */
};
/*
* @stats_type_mask: Stats type mask (enum msm_isp_stats_type).
* @stream_src_mask: Stream src mask (enum msm_vfe_axi_stream_src)
* @skip_mode: skip pattern, if skip mode is range only then min/max is used
* @min_frame_id: minimum frame id (valid only if skip_mode = RANGE)
* @max_frame_id: maximum frame id (valid only if skip_mode = RANGE)
*/
struct msm_isp_sw_framskip {
uint32_t stats_type_mask;
uint32_t stream_src_mask;
enum msm_vfe_frame_skip_pattern skip_mode;
uint32_t min_frame_id;
uint32_t max_frame_id;
};
enum msm_vfe_testgen_color_pattern {
COLOR_BAR_8_COLOR,
UNICOLOR_WHITE,
UNICOLOR_YELLOW,
UNICOLOR_CYAN,
UNICOLOR_GREEN,
UNICOLOR_MAGENTA,
UNICOLOR_RED,
UNICOLOR_BLUE,
UNICOLOR_BLACK,
MAX_COLOR,
};
enum msm_vfe_camif_input {
CAMIF_DISABLED,
CAMIF_PAD_REG_INPUT,
CAMIF_MIDDI_INPUT,
CAMIF_MIPI_INPUT,
};
struct msm_vfe_fetch_engine_cfg {
uint32_t input_format;
uint32_t buf_width;
uint32_t buf_height;
uint32_t fetch_width;
uint32_t fetch_height;
uint32_t x_offset;
uint32_t y_offset;
uint32_t buf_stride;
};
enum msm_vfe_camif_output_format {
CAMIF_QCOM_RAW,
CAMIF_MIPI_RAW,
CAMIF_PLAIN_8,
CAMIF_PLAIN_16,
CAMIF_MAX_FORMAT,
};
/*
* Camif output general configuration
*/
struct msm_vfe_camif_subsample_cfg {
uint32_t irq_subsample_period;
uint32_t irq_subsample_pattern;
uint32_t sof_counter_step;
uint32_t pixel_skip;
uint32_t line_skip;
uint32_t first_line;
uint32_t last_line;
uint32_t first_pixel;
uint32_t last_pixel;
enum msm_vfe_camif_output_format output_format;
};
/*
* Camif frame and window configuration
*/
struct msm_vfe_camif_cfg {
uint32_t lines_per_frame;
uint32_t pixels_per_line;
uint32_t first_pixel;
uint32_t last_pixel;
uint32_t first_line;
uint32_t last_line;
uint32_t epoch_line0;
uint32_t epoch_line1;
uint32_t is_split;
enum msm_vfe_camif_input camif_input;
struct msm_vfe_camif_subsample_cfg subsample_cfg;
};
struct msm_vfe_testgen_cfg {
uint32_t lines_per_frame;
uint32_t pixels_per_line;
uint32_t v_blank;
uint32_t h_blank;
enum ISP_START_PIXEL_PATTERN pixel_bayer_pattern;
uint32_t rotate_period;
enum msm_vfe_testgen_color_pattern color_bar_pattern;
uint32_t burst_num_frame;
};
enum msm_vfe_inputmux {
CAMIF,
TESTGEN,
EXTERNAL_READ,
};
enum msm_vfe_stats_composite_group {
STATS_COMPOSITE_GRP_NONE,
STATS_COMPOSITE_GRP_1,
STATS_COMPOSITE_GRP_2,
STATS_COMPOSITE_GRP_MAX,
};
enum msm_vfe_hvx_streaming_cmd {
HVX_DISABLE,
HVX_ONE_WAY,
HVX_ROUND_TRIP
};
struct msm_vfe_pix_cfg {
struct msm_vfe_camif_cfg camif_cfg;
struct msm_vfe_testgen_cfg testgen_cfg;
struct msm_vfe_fetch_engine_cfg fetch_engine_cfg;
enum msm_vfe_inputmux input_mux;
enum ISP_START_PIXEL_PATTERN pixel_pattern;
uint32_t input_format;
enum msm_vfe_hvx_streaming_cmd hvx_cmd;
uint32_t is_split;
};
struct msm_vfe_rdi_cfg {
uint8_t cid;
uint8_t frame_based;
};
struct msm_vfe_input_cfg {
union {
struct msm_vfe_pix_cfg pix_cfg;
struct msm_vfe_rdi_cfg rdi_cfg;
} d;
enum msm_vfe_input_src input_src;
uint32_t input_pix_clk;
};
struct msm_vfe_fetch_eng_start {
uint32_t session_id;
uint32_t stream_id;
uint32_t buf_idx;
uint8_t offline_mode;
uint32_t fd;
uint32_t buf_addr;
uint32_t frame_id;
};
struct msm_vfe_axi_plane_cfg {
uint32_t output_width; /*Include padding*/
uint32_t output_height;
uint32_t output_stride;
uint32_t output_scan_lines;
uint32_t output_plane_format; /*Y/Cb/Cr/CbCr*/
uint32_t plane_addr_offset;
uint8_t csid_src; /*RDI 0-2*/
uint8_t rdi_cid;/*CID 1-16*/
};
enum msm_stream_memory_input_t {
MEMORY_INPUT_DISABLED,
MEMORY_INPUT_ENABLED
};
struct msm_vfe_axi_stream_request_cmd {
uint32_t session_id;
uint32_t stream_id;
uint32_t vt_enable;
uint32_t output_format;/*Planar/RAW/Misc*/
enum msm_vfe_axi_stream_src stream_src; /*CAMIF/IDEAL/RDIs*/
struct msm_vfe_axi_plane_cfg plane_cfg[MAX_PLANES_PER_STREAM];
uint32_t burst_count;
uint32_t hfr_mode;
uint8_t frame_base;
uint32_t init_frame_drop; /*MAX 31 Frames*/
enum msm_vfe_frame_skip_pattern frame_skip_pattern;
uint8_t buf_divert; /* if TRUE no vb2 buf done. */
/*Return values*/
uint32_t axi_stream_handle;
uint32_t controllable_output;
uint32_t burst_len;
/* Flag indicating memory input stream */
enum msm_stream_memory_input_t memory_input;
};
struct msm_vfe_axi_stream_release_cmd {
uint32_t stream_handle;
};
enum msm_vfe_axi_stream_cmd {
STOP_STREAM,
START_STREAM,
STOP_IMMEDIATELY,
};
struct msm_vfe_axi_stream_cfg_cmd {
uint8_t num_streams;
uint32_t stream_handle[VFE_AXI_SRC_MAX];
enum msm_vfe_axi_stream_cmd cmd;
uint8_t sync_frame_id_src;
};
enum msm_vfe_axi_stream_update_type {
ENABLE_STREAM_BUF_DIVERT,
DISABLE_STREAM_BUF_DIVERT,
UPDATE_STREAM_FRAMEDROP_PATTERN,
UPDATE_STREAM_STATS_FRAMEDROP_PATTERN,
UPDATE_STREAM_AXI_CONFIG,
UPDATE_STREAM_REQUEST_FRAMES,
UPDATE_STREAM_ADD_BUFQ,
UPDATE_STREAM_REMOVE_BUFQ,
UPDATE_STREAM_SW_FRAME_DROP,
};
enum msm_vfe_iommu_type {
IOMMU_ATTACH,
IOMMU_DETACH,
};
enum msm_vfe_buff_queue_id {
VFE_BUF_QUEUE_DEFAULT,
VFE_BUF_QUEUE_SHARED,
VFE_BUF_QUEUE_MAX,
};
struct msm_vfe_axi_stream_cfg_update_info {
uint32_t stream_handle;
uint32_t output_format;
uint32_t user_stream_id;
uint32_t frame_id;
enum msm_vfe_frame_skip_pattern skip_pattern;
struct msm_vfe_axi_plane_cfg plane_cfg[MAX_PLANES_PER_STREAM];
struct msm_isp_sw_framskip sw_skip_info;
};
struct msm_vfe_axi_halt_cmd {
uint32_t stop_camif;
uint32_t overflow_detected;
uint32_t blocking_halt;
};
struct msm_vfe_axi_reset_cmd {
uint32_t blocking;
uint32_t frame_id;
};
struct msm_vfe_axi_restart_cmd {
uint32_t enable_camif;
};
struct msm_vfe_axi_stream_update_cmd {
uint32_t num_streams;
enum msm_vfe_axi_stream_update_type update_type;
struct msm_vfe_axi_stream_cfg_update_info
update_info[MSM_ISP_STATS_MAX];
};
struct msm_vfe_smmu_attach_cmd {
uint32_t security_mode;
uint32_t iommu_attach_mode;
};
struct msm_vfe_stats_stream_request_cmd {
uint32_t session_id;
uint32_t stream_id;
enum msm_isp_stats_type stats_type;
uint32_t composite_flag;
uint32_t framedrop_pattern;
uint32_t init_frame_drop; /*MAX 31 Frames*/
uint32_t irq_subsample_pattern;
uint32_t buffer_offset;
uint32_t stream_handle;
};
struct msm_vfe_stats_stream_release_cmd {
uint32_t stream_handle;
};
struct msm_vfe_stats_stream_cfg_cmd {
uint8_t num_streams;
uint32_t stream_handle[MSM_ISP_STATS_MAX];
uint8_t enable;
uint32_t stats_burst_len;
};
enum msm_vfe_reg_cfg_type {
VFE_WRITE,
VFE_WRITE_MB,
VFE_READ,
VFE_CFG_MASK,
VFE_WRITE_DMI_16BIT,
VFE_WRITE_DMI_32BIT,
VFE_WRITE_DMI_64BIT,
VFE_READ_DMI_16BIT,
VFE_READ_DMI_32BIT,
VFE_READ_DMI_64BIT,
GET_MAX_CLK_RATE,
GET_CLK_RATES,
GET_ISP_ID,
VFE_HW_UPDATE_LOCK,
VFE_HW_UPDATE_UNLOCK,
SET_WM_UB_SIZE,
SET_UB_POLICY,
};
struct msm_vfe_cfg_cmd2 {
uint16_t num_cfg;
uint16_t cmd_len;
void __user *cfg_data;
void __user *cfg_cmd;
};
struct msm_vfe_cfg_cmd_list {
struct msm_vfe_cfg_cmd2 cfg_cmd;
struct msm_vfe_cfg_cmd_list *next;
uint32_t next_size;
};
struct msm_vfe_reg_rw_info {
uint32_t reg_offset;
uint32_t cmd_data_offset;
uint32_t len;
};
struct msm_vfe_reg_mask_info {
uint32_t reg_offset;
uint32_t mask;
uint32_t val;
};
struct msm_vfe_reg_dmi_info {
uint32_t hi_tbl_offset; /*Optional*/
uint32_t lo_tbl_offset; /*Required*/
uint32_t len;
};
struct msm_vfe_reg_cfg_cmd {
union {
struct msm_vfe_reg_rw_info rw_info;
struct msm_vfe_reg_mask_info mask_info;
struct msm_vfe_reg_dmi_info dmi_info;
} u;
enum msm_vfe_reg_cfg_type cmd_type;
};
enum vfe_sd_type {
VFE_SD_0 = 0,
VFE_SD_1,
VFE_SD_COMMON,
VFE_SD_MAX,
};
/* When you change the value below, check for the sof event_data size.
* V4l2 limits payload to 64 bytes */
#define MS_NUM_SLAVE_MAX 1
/* Usecases when 2 HW need to be related or synced */
enum msm_vfe_dual_hw_type {
DUAL_NONE = 0,
DUAL_HW_VFE_SPLIT = 1,
DUAL_HW_MASTER_SLAVE = 2,
};
/* Type for 2 INTF when used in Master-Slave mode */
enum msm_vfe_dual_hw_ms_type {
MS_TYPE_NONE,
MS_TYPE_MASTER,
MS_TYPE_SLAVE,
};
struct msm_isp_set_dual_hw_ms_cmd {
uint8_t num_src;
/* Each session can be only one type but multiple intf if YUV cam */
enum msm_vfe_dual_hw_ms_type dual_hw_ms_type;
/* Primary intf is mostly associated with preview.
* This primary intf SOF frame_id and timestamp is tracked
* and used to calculate delta */
enum msm_vfe_input_src primary_intf;
/* input_src array indicates other input INTF that may be Master/Slave.
* For these additional intf, frame_id and timestamp are not saved.
* However, if these are slaves then they will still get their
* frame_id from Master */
enum msm_vfe_input_src input_src[VFE_SRC_MAX];
uint32_t sof_delta_threshold; /* In milliseconds. Sent for Master */
};
enum msm_isp_buf_type {
ISP_PRIVATE_BUF,
ISP_SHARE_BUF,
MAX_ISP_BUF_TYPE,
};
struct msm_isp_unmap_buf_req {
uint32_t fd;
};
struct msm_isp_buf_request {
uint32_t session_id;
uint32_t stream_id;
uint8_t num_buf;
uint32_t handle;
enum msm_isp_buf_type buf_type;
};
struct msm_isp_qbuf_plane {
uint32_t addr;
uint32_t offset;
uint32_t length;
};
struct msm_isp_qbuf_buffer {
struct msm_isp_qbuf_plane planes[MAX_PLANES_PER_STREAM];
uint32_t num_planes;
};
struct msm_isp_qbuf_info {
uint32_t handle;
int32_t buf_idx;
/*Only used for prepare buffer*/
struct msm_isp_qbuf_buffer buffer;
/*Only used for diverted buffer*/
uint32_t dirty_buf;
};
struct msm_isp_clk_rates {
uint32_t svs_rate;
uint32_t nominal_rate;
uint32_t high_rate;
};
struct msm_vfe_axi_src_state {
enum msm_vfe_input_src input_src;
uint32_t src_active;
uint32_t src_frame_id;
};
enum msm_isp_event_mask_index {
ISP_EVENT_MASK_INDEX_STATS_NOTIFY = 0,
ISP_EVENT_MASK_INDEX_ERROR = 1,
ISP_EVENT_MASK_INDEX_IOMMU_P_FAULT = 2,
ISP_EVENT_MASK_INDEX_STREAM_UPDATE_DONE = 3,
ISP_EVENT_MASK_INDEX_REG_UPDATE = 4,
ISP_EVENT_MASK_INDEX_SOF = 5,
ISP_EVENT_MASK_INDEX_BUF_DIVERT = 6,
ISP_EVENT_MASK_INDEX_COMP_STATS_NOTIFY = 7,
ISP_EVENT_MASK_INDEX_MASK_FE_READ_DONE = 8,
ISP_EVENT_MASK_INDEX_BUF_DONE = 9,
ISP_EVENT_MASK_INDEX_REG_UPDATE_MISSING = 10,
ISP_EVENT_MASK_INDEX_PING_PONG_MISMATCH = 11,
ISP_EVENT_MASK_INDEX_BUF_FATAL_ERROR = 12,
};
#define ISP_EVENT_SUBS_MASK_NONE 0
#define ISP_EVENT_SUBS_MASK_STATS_NOTIFY \
(1 << ISP_EVENT_MASK_INDEX_STATS_NOTIFY)
#define ISP_EVENT_SUBS_MASK_ERROR \
(1 << ISP_EVENT_MASK_INDEX_ERROR)
#define ISP_EVENT_SUBS_MASK_IOMMU_P_FAULT \
(1 << ISP_EVENT_MASK_INDEX_IOMMU_P_FAULT)
#define ISP_EVENT_SUBS_MASK_STREAM_UPDATE_DONE \
(1 << ISP_EVENT_MASK_INDEX_STREAM_UPDATE_DONE)
#define ISP_EVENT_SUBS_MASK_REG_UPDATE \
(1 << ISP_EVENT_MASK_INDEX_REG_UPDATE)
#define ISP_EVENT_SUBS_MASK_SOF \
(1 << ISP_EVENT_MASK_INDEX_SOF)
#define ISP_EVENT_SUBS_MASK_BUF_DIVERT \
(1 << ISP_EVENT_MASK_INDEX_BUF_DIVERT)
#define ISP_EVENT_SUBS_MASK_COMP_STATS_NOTIFY \
(1 << ISP_EVENT_MASK_INDEX_COMP_STATS_NOTIFY)
#define ISP_EVENT_SUBS_MASK_FE_READ_DONE \
(1 << ISP_EVENT_MASK_INDEX_MASK_FE_READ_DONE)
#define ISP_EVENT_SUBS_MASK_BUF_DONE \
(1 << ISP_EVENT_MASK_INDEX_BUF_DONE)
#define ISP_EVENT_SUBS_MASK_REG_UPDATE_MISSING \
(1 << ISP_EVENT_MASK_INDEX_REG_UPDATE_MISSING)
#define ISP_EVENT_SUBS_MASK_PING_PONG_MISMATCH \
(1 << ISP_EVENT_MASK_INDEX_PING_PONG_MISMATCH)
#define ISP_EVENT_SUBS_MASK_BUF_FATAL_ERROR \
(1 << ISP_EVENT_MASK_INDEX_BUF_FATAL_ERROR)
enum msm_isp_event_idx {
ISP_REG_UPDATE = 0,
ISP_EPOCH_0 = 1,
ISP_EPOCH_1 = 2,
ISP_START_ACK = 3,
ISP_STOP_ACK = 4,
ISP_IRQ_VIOLATION = 5,
ISP_STATS_OVERFLOW = 6,
ISP_BUF_DONE = 7,
ISP_FE_RD_DONE = 8,
ISP_IOMMU_P_FAULT = 9,
ISP_ERROR = 10,
ISP_HW_FATAL_ERROR = 11,
ISP_PING_PONG_MISMATCH = 12,
ISP_REG_UPDATE_MISSING = 13,
ISP_BUF_FATAL_ERROR = 14,
ISP_EVENT_MAX = 15
};
#define ISP_EVENT_OFFSET 8
#define ISP_EVENT_BASE (V4L2_EVENT_PRIVATE_START)
#define ISP_BUF_EVENT_BASE (ISP_EVENT_BASE + (1 << ISP_EVENT_OFFSET))
#define ISP_STATS_EVENT_BASE (ISP_EVENT_BASE + (2 << ISP_EVENT_OFFSET))
#define ISP_CAMIF_EVENT_BASE (ISP_EVENT_BASE + (3 << ISP_EVENT_OFFSET))
#define ISP_STREAM_EVENT_BASE (ISP_EVENT_BASE + (4 << ISP_EVENT_OFFSET))
#define ISP_EVENT_REG_UPDATE (ISP_EVENT_BASE + ISP_REG_UPDATE)
#define ISP_EVENT_EPOCH_0 (ISP_EVENT_BASE + ISP_EPOCH_0)
#define ISP_EVENT_EPOCH_1 (ISP_EVENT_BASE + ISP_EPOCH_1)
#define ISP_EVENT_START_ACK (ISP_EVENT_BASE + ISP_START_ACK)
#define ISP_EVENT_STOP_ACK (ISP_EVENT_BASE + ISP_STOP_ACK)
#define ISP_EVENT_IRQ_VIOLATION (ISP_EVENT_BASE + ISP_IRQ_VIOLATION)
#define ISP_EVENT_STATS_OVERFLOW (ISP_EVENT_BASE + ISP_STATS_OVERFLOW)
#define ISP_EVENT_ERROR (ISP_EVENT_BASE + ISP_ERROR)
#define ISP_EVENT_SOF (ISP_CAMIF_EVENT_BASE)
#define ISP_EVENT_EOF (ISP_CAMIF_EVENT_BASE + 1)
#define ISP_EVENT_BUF_DONE (ISP_EVENT_BASE + ISP_BUF_DONE)
#define ISP_EVENT_BUF_DIVERT (ISP_BUF_EVENT_BASE)
#define ISP_EVENT_STATS_NOTIFY (ISP_STATS_EVENT_BASE)
#define ISP_EVENT_COMP_STATS_NOTIFY (ISP_EVENT_STATS_NOTIFY + MSM_ISP_STATS_MAX)
#define ISP_EVENT_FE_READ_DONE (ISP_EVENT_BASE + ISP_FE_RD_DONE)
#define ISP_EVENT_IOMMU_P_FAULT (ISP_EVENT_BASE + ISP_IOMMU_P_FAULT)
#define ISP_EVENT_HW_FATAL_ERROR (ISP_EVENT_BASE + ISP_HW_FATAL_ERROR)
#define ISP_EVENT_PING_PONG_MISMATCH (ISP_EVENT_BASE + ISP_PING_PONG_MISMATCH)
#define ISP_EVENT_REG_UPDATE_MISSING (ISP_EVENT_BASE + ISP_REG_UPDATE_MISSING)
#define ISP_EVENT_BUF_FATAL_ERROR (ISP_EVENT_BASE + ISP_BUF_FATAL_ERROR)
#define ISP_EVENT_STREAM_UPDATE_DONE (ISP_STREAM_EVENT_BASE)
/* The msm_v4l2_event_data structure should match the
* v4l2_event.u.data field.
* should not exceed 64 bytes */
struct msm_isp_buf_event {
uint32_t session_id;
uint32_t stream_id;
uint32_t handle;
uint32_t output_format;
int8_t buf_idx;
};
struct msm_isp_fetch_eng_event {
uint32_t session_id;
uint32_t stream_id;
uint32_t handle;
uint32_t fd;
int8_t buf_idx;
int8_t offline_mode;
};
struct msm_isp_stats_event {
uint32_t stats_mask; /* 4 bytes */
uint8_t stats_buf_idxs[MSM_ISP_STATS_MAX]; /* 11 bytes */
};
struct msm_isp_stream_ack {
uint32_t session_id;
uint32_t stream_id;
uint32_t handle;
};
enum msm_vfe_error_type {
ISP_ERROR_NONE,
ISP_ERROR_CAMIF,
ISP_ERROR_BUS_OVERFLOW,
ISP_ERROR_RETURN_EMPTY_BUFFER,
ISP_ERROR_FRAME_ID_MISMATCH,
ISP_ERROR_MAX,
};
struct msm_isp_error_info {
enum msm_vfe_error_type err_type;
uint32_t session_id;
uint32_t stream_id;
uint32_t stream_id_mask;
};
/* This structure reports delta between master and slave */
struct msm_isp_ms_delta_info {
uint8_t num_delta_info;
uint32_t delta[MS_NUM_SLAVE_MAX];
};
/* This is sent in EPOCH irq */
struct msm_isp_output_info {
uint8_t regs_not_updated;
/* mask with bufq_handle for regs not updated or return empty */
uint16_t output_err_mask;
/* mask with stream_idx for get_buf failed */
uint8_t stream_framedrop_mask;
/* mask with stats stream_idx for get_buf failed */
uint16_t stats_framedrop_mask;
/* delta between master and slave */
};
/* This structure is piggybacked with SOF event */
struct msm_isp_sof_info {
uint8_t regs_not_updated;
/* mask with AXI_SRC for regs not updated */
uint16_t reg_update_fail_mask;
/* mask with bufq_handle for get_buf failed */
uint32_t stream_get_buf_fail_mask;
/* mask with stats stream_idx for get_buf failed */
uint16_t stats_get_buf_fail_mask;
/* delta between master and slave */
struct msm_isp_ms_delta_info ms_delta_info;
};
struct msm_isp_event_data {
/*Wall clock except for buffer divert events
*which use monotonic clock
*/
struct timeval timestamp;
/* Monotonic timestamp since bootup */
struct timeval mono_timestamp;
uint32_t frame_id;
union {
/* Sent for Stats_Done event */
struct msm_isp_stats_event stats;
/* Sent for Buf_Divert event */
struct msm_isp_buf_event buf_done;
/* Sent for offline fetch done event */
struct msm_isp_fetch_eng_event fetch_done;
/* Sent for Error_Event */
struct msm_isp_error_info error_info;
/*
* This struct needs to be removed once
* userspace switches to sof_info
*/
struct msm_isp_output_info output_info;
/* Sent for SOF event */
struct msm_isp_sof_info sof_info;
} u; /* union can have max 52 bytes */
};
#ifdef CONFIG_COMPAT
struct msm_isp_event_data32 {
struct compat_timeval timestamp;
struct compat_timeval mono_timestamp;
uint32_t frame_id;
union {
struct msm_isp_stats_event stats;
struct msm_isp_buf_event buf_done;
struct msm_isp_fetch_eng_event fetch_done;
struct msm_isp_error_info error_info;
struct msm_isp_output_info output_info;
struct msm_isp_sof_info sof_info;
} u;
};
#endif
#define V4L2_PIX_FMT_QBGGR8 v4l2_fourcc('Q', 'B', 'G', '8')
#define V4L2_PIX_FMT_QGBRG8 v4l2_fourcc('Q', 'G', 'B', '8')
#define V4L2_PIX_FMT_QGRBG8 v4l2_fourcc('Q', 'G', 'R', '8')
#define V4L2_PIX_FMT_QRGGB8 v4l2_fourcc('Q', 'R', 'G', '8')
#define V4L2_PIX_FMT_QBGGR10 v4l2_fourcc('Q', 'B', 'G', '0')
#define V4L2_PIX_FMT_QGBRG10 v4l2_fourcc('Q', 'G', 'B', '0')
#define V4L2_PIX_FMT_QGRBG10 v4l2_fourcc('Q', 'G', 'R', '0')
#define V4L2_PIX_FMT_QRGGB10 v4l2_fourcc('Q', 'R', 'G', '0')
#define V4L2_PIX_FMT_QBGGR12 v4l2_fourcc('Q', 'B', 'G', '2')
#define V4L2_PIX_FMT_QGBRG12 v4l2_fourcc('Q', 'G', 'B', '2')
#define V4L2_PIX_FMT_QGRBG12 v4l2_fourcc('Q', 'G', 'R', '2')
#define V4L2_PIX_FMT_QRGGB12 v4l2_fourcc('Q', 'R', 'G', '2')
#define V4L2_PIX_FMT_QBGGR14 v4l2_fourcc('Q', 'B', 'G', '4')
#define V4L2_PIX_FMT_QGBRG14 v4l2_fourcc('Q', 'G', 'B', '4')
#define V4L2_PIX_FMT_QGRBG14 v4l2_fourcc('Q', 'G', 'R', '4')
#define V4L2_PIX_FMT_QRGGB14 v4l2_fourcc('Q', 'R', 'G', '4')
#define V4L2_PIX_FMT_P16BGGR10 v4l2_fourcc('P', 'B', 'G', '0')
#define V4L2_PIX_FMT_P16GBRG10 v4l2_fourcc('P', 'G', 'B', '0')
#define V4L2_PIX_FMT_P16GRBG10 v4l2_fourcc('P', 'G', 'R', '0')
#define V4L2_PIX_FMT_P16RGGB10 v4l2_fourcc('P', 'R', 'G', '0')
#define V4L2_PIX_FMT_NV14 v4l2_fourcc('N', 'V', '1', '4')
#define V4L2_PIX_FMT_NV41 v4l2_fourcc('N', 'V', '4', '1')
#define V4L2_PIX_FMT_META v4l2_fourcc('Q', 'M', 'E', 'T')
#define V4L2_PIX_FMT_SBGGR14 v4l2_fourcc('B', 'G', '1', '4') /* 14 BGBG.GRGR.*/
#define V4L2_PIX_FMT_SGBRG14 v4l2_fourcc('G', 'B', '1', '4') /* 14 GBGB.RGRG.*/
#define V4L2_PIX_FMT_SGRBG14 v4l2_fourcc('B', 'A', '1', '4') /* 14 GRGR.BGBG.*/
#define V4L2_PIX_FMT_SRGGB14 v4l2_fourcc('R', 'G', '1', '4') /* 14 RGRG.GBGB.*/
#define VIDIOC_MSM_VFE_REG_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE, struct msm_vfe_cfg_cmd2)
#define VIDIOC_MSM_ISP_REQUEST_BUF \
_IOWR('V', BASE_VIDIOC_PRIVATE+1, struct msm_isp_buf_request)
#define VIDIOC_MSM_ISP_ENQUEUE_BUF \
_IOWR('V', BASE_VIDIOC_PRIVATE+2, struct msm_isp_qbuf_info)
#define VIDIOC_MSM_ISP_RELEASE_BUF \
_IOWR('V', BASE_VIDIOC_PRIVATE+3, struct msm_isp_buf_request)
#define VIDIOC_MSM_ISP_REQUEST_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+4, struct msm_vfe_axi_stream_request_cmd)
#define VIDIOC_MSM_ISP_CFG_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+5, struct msm_vfe_axi_stream_cfg_cmd)
#define VIDIOC_MSM_ISP_RELEASE_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+6, struct msm_vfe_axi_stream_release_cmd)
#define VIDIOC_MSM_ISP_INPUT_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE+7, struct msm_vfe_input_cfg)
#define VIDIOC_MSM_ISP_SET_SRC_STATE \
_IOWR('V', BASE_VIDIOC_PRIVATE+8, struct msm_vfe_axi_src_state)
#define VIDIOC_MSM_ISP_REQUEST_STATS_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+9, \
struct msm_vfe_stats_stream_request_cmd)
#define VIDIOC_MSM_ISP_CFG_STATS_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+10, struct msm_vfe_stats_stream_cfg_cmd)
#define VIDIOC_MSM_ISP_RELEASE_STATS_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+11, \
struct msm_vfe_stats_stream_release_cmd)
#define VIDIOC_MSM_ISP_REG_UPDATE_CMD \
_IOWR('V', BASE_VIDIOC_PRIVATE+12, enum msm_vfe_input_src)
#define VIDIOC_MSM_ISP_UPDATE_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+13, struct msm_vfe_axi_stream_update_cmd)
#define VIDIOC_MSM_VFE_REG_LIST_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE+14, struct msm_vfe_cfg_cmd_list)
#define VIDIOC_MSM_ISP_SMMU_ATTACH \
_IOWR('V', BASE_VIDIOC_PRIVATE+15, struct msm_vfe_smmu_attach_cmd)
#define VIDIOC_MSM_ISP_UPDATE_STATS_STREAM \
_IOWR('V', BASE_VIDIOC_PRIVATE+16, struct msm_vfe_axi_stream_update_cmd)
#define VIDIOC_MSM_ISP_AXI_HALT \
_IOWR('V', BASE_VIDIOC_PRIVATE+17, struct msm_vfe_axi_halt_cmd)
#define VIDIOC_MSM_ISP_AXI_RESET \
_IOWR('V', BASE_VIDIOC_PRIVATE+18, struct msm_vfe_axi_reset_cmd)
#define VIDIOC_MSM_ISP_AXI_RESTART \
_IOWR('V', BASE_VIDIOC_PRIVATE+19, struct msm_vfe_axi_restart_cmd)
#define VIDIOC_MSM_ISP_FETCH_ENG_START \
_IOWR('V', BASE_VIDIOC_PRIVATE+20, struct msm_vfe_fetch_eng_start)
#define VIDIOC_MSM_ISP_DEQUEUE_BUF \
_IOWR('V', BASE_VIDIOC_PRIVATE+21, struct msm_isp_qbuf_info)
#define VIDIOC_MSM_ISP_SET_DUAL_HW_MASTER_SLAVE \
_IOWR('V', BASE_VIDIOC_PRIVATE+22, struct msm_isp_set_dual_hw_ms_cmd)
#define VIDIOC_MSM_ISP_MAP_BUF_START_FE \
_IOWR('V', BASE_VIDIOC_PRIVATE+23, struct msm_vfe_fetch_eng_start)
#define VIDIOC_MSM_ISP_UNMAP_BUF \
_IOWR('V', BASE_VIDIOC_PRIVATE+24, struct msm_isp_unmap_buf_req)
#endif /* __MSMB_ISP__ */
+125
View File
@@ -0,0 +1,125 @@
#ifndef MSM_CAM_ISPIF_H
#define MSM_CAM_ISPIF_H
#define CSID_VERSION_V20 0x02000011
#define CSID_VERSION_V22 0x02001000
#define CSID_VERSION_V30 0x30000000
#define CSID_VERSION_V3 0x30000000
enum msm_ispif_vfe_intf {
VFE0,
VFE1,
VFE_MAX
};
#define VFE0_MASK (1 << VFE0)
#define VFE1_MASK (1 << VFE1)
enum msm_ispif_intftype {
PIX0,
RDI0,
PIX1,
RDI1,
RDI2,
INTF_MAX
};
#define MAX_PARAM_ENTRIES (INTF_MAX * 2)
#define MAX_CID_CH 8
#define PIX0_MASK (1 << PIX0)
#define PIX1_MASK (1 << PIX1)
#define RDI0_MASK (1 << RDI0)
#define RDI1_MASK (1 << RDI1)
#define RDI2_MASK (1 << RDI2)
enum msm_ispif_vc {
VC0,
VC1,
VC2,
VC3,
VC_MAX
};
enum msm_ispif_cid {
CID0,
CID1,
CID2,
CID3,
CID4,
CID5,
CID6,
CID7,
CID8,
CID9,
CID10,
CID11,
CID12,
CID13,
CID14,
CID15,
CID_MAX
};
enum msm_ispif_csid {
CSID0,
CSID1,
CSID2,
CSID3,
CSID_MAX
};
struct msm_ispif_params_entry {
enum msm_ispif_vfe_intf vfe_intf;
enum msm_ispif_intftype intftype;
int num_cids;
enum msm_ispif_cid cids[3];
enum msm_ispif_csid csid;
int crop_enable;
uint16_t crop_start_pixel;
uint16_t crop_end_pixel;
};
struct msm_ispif_param_data {
uint32_t num;
struct msm_ispif_params_entry entries[MAX_PARAM_ENTRIES];
};
struct msm_isp_info {
uint32_t max_resolution;
uint32_t id;
uint32_t ver;
};
struct msm_ispif_vfe_info {
int num_vfe;
struct msm_isp_info info[VFE_MAX];
};
enum ispif_cfg_type_t {
ISPIF_CLK_ENABLE,
ISPIF_CLK_DISABLE,
ISPIF_INIT,
ISPIF_CFG,
ISPIF_START_FRAME_BOUNDARY,
ISPIF_RESTART_FRAME_BOUNDARY,
ISPIF_STOP_FRAME_BOUNDARY,
ISPIF_STOP_IMMEDIATELY,
ISPIF_RELEASE,
ISPIF_ENABLE_REG_DUMP,
ISPIF_SET_VFE_INFO,
};
struct ispif_cfg_data {
enum ispif_cfg_type_t cfg_type;
union {
int reg_dump; /* ISPIF_ENABLE_REG_DUMP */
uint32_t csid_version; /* ISPIF_INIT */
struct msm_ispif_vfe_info vfe_info; /* ISPIF_SET_VFE_INFO */
struct msm_ispif_param_data params; /* CFG, START, STOP */
};
};
#define VIDIOC_MSM_ISPIF_CFG \
_IOWR('V', BASE_VIDIOC_PRIVATE, struct ispif_cfg_data)
#endif /* MSM_CAM_ISPIF_H */
+20
View File
@@ -0,0 +1,20 @@
#include "system/camerad/cameras/camera_common.h"
#include <cassert>
#include "common/params.h"
#include "common/util.h"
#include "system/hardware/hw.h"
int main(int argc, char *argv[]) {
if (!Hardware::PC()) {
int ret;
ret = util::set_realtime_priority(53);
assert(ret == 0);
ret = util::set_core_affinity({6});
assert(ret == 0 || Params().getBool("IsOffroad")); // failure ok while offroad due to offlining cores
}
camerad_thread();
return 0;
}
View File
+126
View File
@@ -0,0 +1,126 @@
#!/usr/bin/env python3
import subprocess
import time
import numpy as np
from PIL import Image
import cereal.messaging as messaging
from cereal.visionipc import VisionIpcClient, VisionStreamType
from common.params import Params
from common.realtime import DT_MDL
from system.hardware import PC
from selfdrive.controls.lib.alertmanager import set_offroad_alert
from selfdrive.manager.process_config import managed_processes
LM_THRESH = 120 # defined in system/camerad/imgproc/utils.h
VISION_STREAMS = {
"roadCameraState": VisionStreamType.VISION_STREAM_ROAD,
"driverCameraState": VisionStreamType.VISION_STREAM_DRIVER,
"wideRoadCameraState": VisionStreamType.VISION_STREAM_WIDE_ROAD,
}
def jpeg_write(fn, dat):
img = Image.fromarray(dat)
img.save(fn, "JPEG")
def yuv_to_rgb(y, u, v):
ul = np.repeat(np.repeat(u, 2).reshape(u.shape[0], y.shape[1]), 2, axis=0).reshape(y.shape)
vl = np.repeat(np.repeat(v, 2).reshape(v.shape[0], y.shape[1]), 2, axis=0).reshape(y.shape)
yuv = np.dstack((y, ul, vl)).astype(np.int16)
yuv[:, :, 1:] -= 128
m = np.array([
[1.00000, 1.00000, 1.00000],
[0.00000, -0.39465, 2.03211],
[1.13983, -0.58060, 0.00000],
])
rgb = np.dot(yuv, m)
return rgb.astype(np.uint8)
def extract_image(buf, w, h, stride, uv_offset):
y = np.array(buf[:uv_offset], dtype=np.uint8).reshape((-1, stride))[:h, :w]
u = np.array(buf[uv_offset::2], dtype=np.uint8).reshape((-1, stride//2))[:h//2, :w//2]
v = np.array(buf[uv_offset+1::2], dtype=np.uint8).reshape((-1, stride//2))[:h//2, :w//2]
return yuv_to_rgb(y, u, v)
def get_snapshots(frame="roadCameraState", front_frame="driverCameraState"):
sockets = [s for s in (frame, front_frame) if s is not None]
sm = messaging.SubMaster(sockets)
vipc_clients = {s: VisionIpcClient("camerad", VISION_STREAMS[s], True) for s in sockets}
# wait 4 sec from camerad startup for focus and exposure
while sm[sockets[0]].frameId < int(4. / DT_MDL):
sm.update()
for client in vipc_clients.values():
client.connect(True)
# grab images
rear, front = None, None
if frame is not None:
c = vipc_clients[frame]
rear = extract_image(c.recv(), c.width, c.height, c.stride, c.uv_offset)
if front_frame is not None:
c = vipc_clients[front_frame]
front = extract_image(c.recv(), c.width, c.height, c.stride, c.uv_offset)
return rear, front
def snapshot():
params = Params()
if (not params.get_bool("IsOffroad")) or params.get_bool("IsTakingSnapshot"):
print("Already taking snapshot")
return None, None
front_camera_allowed = params.get_bool("RecordFront")
params.put_bool("IsTakingSnapshot", True)
set_offroad_alert("Offroad_IsTakingSnapshot", True)
time.sleep(2.0) # Give thermald time to read the param, or if just started give camerad time to start
# Check if camerad is already started
try:
subprocess.check_call(["pgrep", "camerad"])
print("Camerad already running")
params.put_bool("IsTakingSnapshot", False)
params.delete("Offroad_IsTakingSnapshot")
return None, None
except subprocess.CalledProcessError:
pass
try:
# Allow testing on replay on PC
if not PC:
managed_processes['camerad'].start()
frame = "wideRoadCameraState"
front_frame = "driverCameraState" if front_camera_allowed else None
rear, front = get_snapshots(frame, front_frame)
finally:
managed_processes['camerad'].stop()
params.put_bool("IsTakingSnapshot", False)
set_offroad_alert("Offroad_IsTakingSnapshot", False)
if not front_camera_allowed:
front = None
return rear, front
if __name__ == "__main__":
pic, fpic = snapshot()
if pic is not None:
print(pic.shape)
jpeg_write("/tmp/back.jpg", pic)
if fpic is not None:
jpeg_write("/tmp/front.jpg", fpic)
else:
print("Error taking snapshot")
+1
View File
@@ -0,0 +1 @@
jpegs/
+67
View File
@@ -0,0 +1,67 @@
// unittest for set_exposure_target
#include "ae_gray_test.h"
#include <cassert>
#include <cmath>
#include <cstring>
#include "common/util.h"
#include "system/camerad/cameras/camera_common.h"
int main() {
// set up fake camerabuf
CameraBuf cb = {};
VisionBuf vb = {};
uint8_t * fb_y = new uint8_t[W*H];
vb.y = fb_y;
cb.cur_yuv_buf = &vb;
cb.rgb_width = W;
cb.rgb_height = H;
printf("AE test patterns %dx%d\n", cb.rgb_width, cb.rgb_height);
// mix of 5 tones
uint8_t l[5] = {0, 24, 48, 96, 235}; // 235 is yuv max
bool passed = true;
float rtol = 0.05;
// generate pattern and calculate EV
int cnt = 0;
for (int i_0=0; i_0<TONE_SPLITS; i_0++) {
for (int i_1=0; i_1<TONE_SPLITS; i_1++) {
for (int i_2=0; i_2<TONE_SPLITS; i_2++) {
for (int i_3=0; i_3<TONE_SPLITS; i_3++) {
int h_0 = i_0 * H / TONE_SPLITS;
int h_1 = i_1 * (H - h_0) / TONE_SPLITS;
int h_2 = i_2 * (H - h_0 - h_1) / TONE_SPLITS;
int h_3 = i_3 * (H - h_0 - h_1 - h_2) / TONE_SPLITS;
int h_4 = H - h_0 - h_1 - h_2 - h_3;
memset(&fb_y[0], l[0], h_0*W);
memset(&fb_y[h_0*W], l[1], h_1*W);
memset(&fb_y[h_0*W+h_1*W], l[2], h_2*W);
memset(&fb_y[h_0*W+h_1*W+h_2*W], l[3], h_3*W);
memset(&fb_y[h_0*W+h_1*W+h_2*W+h_3*W], l[4], h_4*W);
float ev = set_exposure_target((const CameraBuf*) &cb, 0, W-1, 1, 0, H-1, 1);
// printf("%d/%d/%d/%d/%d ev is %f\n", h_0, h_1, h_2, h_3, h_4, ev);
// printf("%f\n", ev);
// compare to gt
float evgt = gts[cnt];
if (fabs(ev - evgt) > rtol*evgt) {
passed = false;
}
// report
printf("%d/%d/%d/%d/%d: ev %f, gt %f, err %f\n", h_0, h_1, h_2, h_3, h_4, ev, evgt, fabs(ev - evgt) / (evgt != 0 ? evgt : 0.00001f));
cnt++;
}
}
}
}
assert(passed);
delete[] fb_y;
return 0;
}
+18
View File
@@ -0,0 +1,18 @@
#pragma once
#define W 240
#define H 160
#define TONE_SPLITS 3
float gts[TONE_SPLITS*TONE_SPLITS*TONE_SPLITS*TONE_SPLITS] = {
0.917969,0.917969,0.375000,0.917969,0.375000,0.375000,0.187500,0.187500,0.187500,0.917969,
0.375000,0.375000,0.187500,0.187500,0.187500,0.187500,0.187500,0.187500,0.093750,0.093750,
0.093750,0.093750,0.093750,0.093750,0.093750,0.093750,0.093750,0.917969,0.375000,0.375000,
0.187500,0.187500,0.187500,0.187500,0.187500,0.187500,0.093750,0.093750,0.093750,0.093750,
0.093750,0.093750,0.093750,0.093750,0.093750,0.093750,0.093750,0.093750,0.093750,0.093750,
0.093750,0.093750,0.093750,0.093750,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,
0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,
0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,0.000000,
0.000000
};
+25
View File
@@ -0,0 +1,25 @@
// TODO: cleanup AE tests
// needed by camera_common.cc
void camera_autoexposure(CameraState *s, float grey_frac) {}
void cameras_init(VisionIpcServer *v, MultiCameraState *s, cl_device_id device_id, cl_context ctx) {}
void cameras_open(MultiCameraState *s) {}
void cameras_run(MultiCameraState *s) {}
typedef struct CameraState {
int camera_num;
CameraInfo ci;
int fps;
float digital_gain = 0;
CameraBuf buf;
} CameraState;
typedef struct MultiCameraState {
CameraState road_cam;
CameraState driver_cam;
PubMaster *pm = nullptr;
} MultiCameraState;
+27
View File
@@ -0,0 +1,27 @@
#!/usr/bin/env python3
# type: ignore
import cereal.messaging as messaging
all_sockets = ['roadCameraState', 'driverCameraState', 'wideRoadCameraState']
prev_id = [None,None,None]
this_id = [None,None,None]
dt = [None,None,None]
num_skipped = [0,0,0]
if __name__ == "__main__":
sm = messaging.SubMaster(all_sockets)
while True:
sm.update()
for i in range(len(all_sockets)):
if not sm.updated[all_sockets[i]]:
continue
this_id[i] = sm[all_sockets[i]].frameId
if prev_id[i] is None:
prev_id[i] = this_id[i]
continue
dt[i] = this_id[i] - prev_id[i]
if dt[i] != 1:
num_skipped[i] += dt[i] - 1
print(all_sockets[i] ,dt[i] - 1, num_skipped[i])
prev_id[i] = this_id[i]
+37
View File
@@ -0,0 +1,37 @@
#!/usr/bin/env python3
import numpy as np
import cereal.messaging as messaging
from PIL import ImageFont, ImageDraw, Image
font = ImageFont.truetype("arial", size=72)
def get_frame(idx):
img = np.zeros((874, 1164, 3), np.uint8)
img[100:400, 100:100+(idx % 10) * 100] = 255
# big number
im2 = Image.new("RGB", (200, 200))
draw = ImageDraw.Draw(im2)
draw.text((10, 100), "%02d" % idx, font=font)
img[400:600, 400:600] = np.array(im2.getdata()).reshape((200, 200, 3))
return img.tostring()
if __name__ == "__main__":
from common.realtime import Ratekeeper
rk = Ratekeeper(20)
pm = messaging.PubMaster(['roadCameraState'])
frm = [get_frame(x) for x in range(30)]
idx = 0
while 1:
print("send %d" % idx)
dat = messaging.new_message('roadCameraState')
dat.valid = True
dat.frame = {
"frameId": idx,
"image": frm[idx % len(frm)],
}
pm.send('roadCameraState', dat)
idx += 1
rk.keep_time()
#time.sleep(1.0)
+32
View File
@@ -0,0 +1,32 @@
#!/usr/bin/env python3
import os
from tqdm import tqdm
from common.file_helpers import mkdirs_exists_ok
from tools.lib.logreader import LogReader
from tools.lib.route import Route
import argparse
if __name__ == "__main__":
parser = argparse.ArgumentParser()
parser.add_argument("route", help="The route name")
parser.add_argument("segment", type=int, help="The index of the segment")
args = parser.parse_args()
out_path = os.path.join("jpegs", f"{args.route.replace('|', '_')}_{args.segment}")
mkdirs_exists_ok(out_path)
r = Route(args.route)
path = r.log_paths()[args.segment] or r.qlog_paths()[args.segment]
lr = list(LogReader(path))
for msg in tqdm(lr):
if msg.which() == 'thumbnail':
with open(os.path.join(out_path, f"{msg.thumbnail.frameId}.jpg"), 'wb') as f:
f.write(msg.thumbnail.thumbnail)
elif msg.which() == 'navThumbnail':
with open(os.path.join(out_path, f"nav_{msg.navThumbnail.frameId}.jpg"), 'wb') as f:
f.write(msg.navThumbnail.thumbnail)
+9
View File
@@ -0,0 +1,9 @@
#!/bin/sh
cd ..
while :; do
./camerad &
pid="$!"
sleep 2
kill -2 $pid
wait $pid
done
+63
View File
@@ -0,0 +1,63 @@
#!/usr/bin/env python3
import time
import unittest
import cereal.messaging as messaging
from system.hardware import TICI
from selfdrive.test.helpers import with_processes
TEST_TIMESPAN = 30 # random.randint(60, 180) # seconds
SKIP_FRAME_TOLERANCE = 0
LAG_FRAME_TOLERANCE = 2 # ms
FPS_BASELINE = 20
CAMERAS = {
"roadCameraState": FPS_BASELINE,
"driverCameraState": FPS_BASELINE // 2,
}
if TICI:
CAMERAS["driverCameraState"] = FPS_BASELINE
CAMERAS["wideRoadCameraState"] = FPS_BASELINE
class TestCamerad(unittest.TestCase):
@classmethod
def setUpClass(cls):
if not TICI:
raise unittest.SkipTest
@with_processes(['camerad'])
def test_frame_packets(self):
print("checking frame pkts continuity")
print(TEST_TIMESPAN)
sm = messaging.SubMaster([socket_name for socket_name in CAMERAS])
last_frame_id = dict.fromkeys(CAMERAS, None)
last_ts = dict.fromkeys(CAMERAS, None)
start_time_sec = time.time()
while time.time()- start_time_sec < TEST_TIMESPAN:
sm.update()
for camera in CAMERAS:
if sm.updated[camera]:
ct = (sm[camera].timestampEof if not TICI else sm[camera].timestampSof) / 1e6
if last_frame_id[camera] is None:
last_frame_id[camera] = sm[camera].frameId
last_ts[camera] = ct
continue
dfid = sm[camera].frameId - last_frame_id[camera]
self.assertTrue(abs(dfid - 1) <= SKIP_FRAME_TOLERANCE, "%s frame id diff is %d" % (camera, dfid))
dts = ct - last_ts[camera]
self.assertTrue(abs(dts - (1000/CAMERAS[camera])) < LAG_FRAME_TOLERANCE, f"{camera} frame t(ms) diff is {dts:f}")
last_frame_id[camera] = sm[camera].frameId
last_ts[camera] = ct
time.sleep(0.01)
if __name__ == "__main__":
unittest.main()
+57
View File
@@ -0,0 +1,57 @@
#!/usr/bin/env python3
import time
import unittest
import numpy as np
from selfdrive.test.helpers import with_processes
from system.camerad.snapshot.snapshot import get_snapshots
from system.hardware import TICI
TEST_TIME = 45
REPEAT = 5
class TestCamerad(unittest.TestCase):
@classmethod
def setUpClass(cls):
if not TICI:
raise unittest.SkipTest
def _numpy_rgb2gray(self, im):
ret = np.clip(im[:,:,2] * 0.114 + im[:,:,1] * 0.587 + im[:,:,0] * 0.299, 0, 255).astype(np.uint8)
return ret
def _is_exposure_okay(self, i, med_mean=np.array([[0.2,0.4],[0.2,0.6]])):
h, w = i.shape[:2]
i = i[h//10:9*h//10,w//10:9*w//10]
med_ex, mean_ex = med_mean
i = self._numpy_rgb2gray(i)
i_median = np.median(i) / 255.
i_mean = np.mean(i) / 255.
print([i_median, i_mean])
return med_ex[0] < i_median < med_ex[1] and mean_ex[0] < i_mean < mean_ex[1]
@with_processes(['camerad'])
def test_camera_operation(self):
passed = 0
start = time.time()
while time.time() - start < TEST_TIME and passed < REPEAT:
rpic, dpic = get_snapshots(frame="roadCameraState", front_frame="driverCameraState")
res = self._is_exposure_okay(rpic)
res = res and self._is_exposure_okay(dpic)
if TICI:
wpic, _ = get_snapshots(frame="wideRoadCameraState")
res = res and self._is_exposure_okay(wpic)
if passed > 0 and not res:
passed = -passed # fails test if any failure after first sus
break
passed += int(res)
time.sleep(2)
self.assertGreaterEqual(passed, REPEAT)
if __name__ == "__main__":
unittest.main()
+36
View File
@@ -0,0 +1,36 @@
#include "system/camerad/transforms/rgb_to_yuv.h"
#include <cassert>
#include <cstdio>
Rgb2Yuv::Rgb2Yuv(cl_context ctx, cl_device_id device_id, int width, int height, int rgb_stride) {
assert(width % 2 == 0 && height % 2 == 0);
char args[1024];
snprintf(args, sizeof(args),
"-cl-fast-relaxed-math -cl-denorms-are-zero "
#ifdef CL_DEBUG
"-DCL_DEBUG "
#endif
"-DWIDTH=%d -DHEIGHT=%d -DUV_WIDTH=%d -DUV_HEIGHT=%d -DRGB_STRIDE=%d -DRGB_SIZE=%d",
width, height, width / 2, height / 2, rgb_stride, width * height);
cl_program prg = cl_program_from_file(ctx, device_id, "transforms/rgb_to_yuv.cl", args);
krnl = CL_CHECK_ERR(clCreateKernel(prg, "rgb_to_yuv", &err));
CL_CHECK(clReleaseProgram(prg));
work_size[0] = (width + (width % 4 == 0 ? 0 : (4 - width % 4))) / 4;
work_size[1] = (height + (height % 4 == 0 ? 0 : (4 - height % 4))) / 4;
}
Rgb2Yuv::~Rgb2Yuv() {
CL_CHECK(clReleaseKernel(krnl));
}
void Rgb2Yuv::queue(cl_command_queue q, cl_mem rgb_cl, cl_mem yuv_cl) {
CL_CHECK(clSetKernelArg(krnl, 0, sizeof(cl_mem), &rgb_cl));
CL_CHECK(clSetKernelArg(krnl, 1, sizeof(cl_mem), &yuv_cl));
cl_event event;
CL_CHECK(clEnqueueNDRangeKernel(q, krnl, 2, NULL, &work_size[0], NULL, 0, 0, &event));
CL_CHECK(clWaitForEvents(1, &event));
CL_CHECK(clReleaseEvent(event));
}
+127
View File
@@ -0,0 +1,127 @@
#define RGB_TO_Y(r, g, b) ((((mul24(b, 13) + mul24(g, 65) + mul24(r, 33)) + 64) >> 7) + 16)
#define RGB_TO_U(r, g, b) ((mul24(b, 56) - mul24(g, 37) - mul24(r, 19) + 0x8080) >> 8)
#define RGB_TO_V(r, g, b) ((mul24(r, 56) - mul24(g, 47) - mul24(b, 9) + 0x8080) >> 8)
#define AVERAGE(x, y, z, w) ((convert_ushort(x) + convert_ushort(y) + convert_ushort(z) + convert_ushort(w) + 1) >> 1)
inline void convert_2_ys(__global uchar * out_yuv, int yi, const uchar8 rgbs1) {
uchar2 yy = (uchar2)(
RGB_TO_Y(rgbs1.s2, rgbs1.s1, rgbs1.s0),
RGB_TO_Y(rgbs1.s5, rgbs1.s4, rgbs1.s3)
);
#ifdef CL_DEBUG
if(yi >= RGB_SIZE)
printf("Y vector2 overflow, %d > %d\n", yi, RGB_SIZE);
#endif
vstore2(yy, 0, out_yuv + yi);
}
inline void convert_4_ys(__global uchar * out_yuv, int yi, const uchar8 rgbs1, const uchar8 rgbs3) {
const uchar4 yy = (uchar4)(
RGB_TO_Y(rgbs1.s2, rgbs1.s1, rgbs1.s0),
RGB_TO_Y(rgbs1.s5, rgbs1.s4, rgbs1.s3),
RGB_TO_Y(rgbs3.s0, rgbs1.s7, rgbs1.s6),
RGB_TO_Y(rgbs3.s3, rgbs3.s2, rgbs3.s1)
);
#ifdef CL_DEBUG
if(yi > RGB_SIZE - 4)
printf("Y vector4 overflow, %d > %d\n", yi, RGB_SIZE - 4);
#endif
vstore4(yy, 0, out_yuv + yi);
}
inline void convert_uv(__global uchar * out_yuv, int ui, int vi,
const uchar8 rgbs1, const uchar8 rgbs2) {
// U & V: average of 2x2 pixels square
const short ab = AVERAGE(rgbs1.s0, rgbs1.s3, rgbs2.s0, rgbs2.s3);
const short ag = AVERAGE(rgbs1.s1, rgbs1.s4, rgbs2.s1, rgbs2.s4);
const short ar = AVERAGE(rgbs1.s2, rgbs1.s5, rgbs2.s2, rgbs2.s5);
#ifdef CL_DEBUG
if(ui >= RGB_SIZE + RGB_SIZE / 4)
printf("U overflow, %d >= %d\n", ui, RGB_SIZE + RGB_SIZE / 4);
if(vi >= RGB_SIZE + RGB_SIZE / 2)
printf("V overflow, %d >= %d\n", vi, RGB_SIZE + RGB_SIZE / 2);
#endif
out_yuv[ui] = RGB_TO_U(ar, ag, ab);
out_yuv[vi] = RGB_TO_V(ar, ag, ab);
}
inline void convert_2_uvs(__global uchar * out_yuv, int ui, int vi,
const uchar8 rgbs1, const uchar8 rgbs2, const uchar8 rgbs3, const uchar8 rgbs4) {
// U & V: average of 2x2 pixels square
const short ab1 = AVERAGE(rgbs1.s0, rgbs1.s3, rgbs2.s0, rgbs2.s3);
const short ag1 = AVERAGE(rgbs1.s1, rgbs1.s4, rgbs2.s1, rgbs2.s4);
const short ar1 = AVERAGE(rgbs1.s2, rgbs1.s5, rgbs2.s2, rgbs2.s5);
const short ab2 = AVERAGE(rgbs1.s6, rgbs3.s1, rgbs2.s6, rgbs4.s1);
const short ag2 = AVERAGE(rgbs1.s7, rgbs3.s2, rgbs2.s7, rgbs4.s2);
const short ar2 = AVERAGE(rgbs3.s0, rgbs3.s3, rgbs4.s0, rgbs4.s3);
uchar2 u2 = (uchar2)(
RGB_TO_U(ar1, ag1, ab1),
RGB_TO_U(ar2, ag2, ab2)
);
uchar2 v2 = (uchar2)(
RGB_TO_V(ar1, ag1, ab1),
RGB_TO_V(ar2, ag2, ab2)
);
#ifdef CL_DEBUG1
if(ui > RGB_SIZE + RGB_SIZE / 4 - 2)
printf("U 2 overflow, %d >= %d\n", ui, RGB_SIZE + RGB_SIZE / 4 - 2);
if(vi > RGB_SIZE + RGB_SIZE / 2 - 2)
printf("V 2 overflow, %d >= %d\n", vi, RGB_SIZE + RGB_SIZE / 2 - 2);
#endif
vstore2(u2, 0, out_yuv + ui);
vstore2(v2, 0, out_yuv + vi);
}
__kernel void rgb_to_yuv(__global uchar const * const rgb,
__global uchar * out_yuv)
{
const int dx = get_global_id(0);
const int dy = get_global_id(1);
const int col = mul24(dx, 4); // Current column in rgb image
const int row = mul24(dy, 4); // Current row in rgb image
const int bgri_start = mad24(row, RGB_STRIDE, mul24(col, 3)); // Start offset of rgb data being converted
const int yi_start = mad24(row, WIDTH, col); // Start offset in the target yuv buffer
int ui = mad24(row / 2, UV_WIDTH, RGB_SIZE + col / 2);
int vi = mad24(row / 2 , UV_WIDTH, RGB_SIZE + UV_WIDTH * UV_HEIGHT + col / 2);
int num_col = min(WIDTH - col, 4);
int num_row = min(HEIGHT - row, 4);
if(num_row == 4) {
const uchar8 rgbs0_0 = vload8(0, rgb + bgri_start);
const uchar8 rgbs0_1 = vload8(0, rgb + bgri_start + 8);
const uchar8 rgbs1_0 = vload8(0, rgb + bgri_start + RGB_STRIDE);
const uchar8 rgbs1_1 = vload8(0, rgb + bgri_start + RGB_STRIDE + 8);
const uchar8 rgbs2_0 = vload8(0, rgb + bgri_start + RGB_STRIDE * 2);
const uchar8 rgbs2_1 = vload8(0, rgb + bgri_start + RGB_STRIDE * 2 + 8);
const uchar8 rgbs3_0 = vload8(0, rgb + bgri_start + RGB_STRIDE * 3);
const uchar8 rgbs3_1 = vload8(0, rgb + bgri_start + RGB_STRIDE * 3 + 8);
if(num_col == 4) {
convert_4_ys(out_yuv, yi_start, rgbs0_0, rgbs0_1);
convert_4_ys(out_yuv, yi_start + WIDTH, rgbs1_0, rgbs1_1);
convert_4_ys(out_yuv, yi_start + WIDTH * 2, rgbs2_0, rgbs2_1);
convert_4_ys(out_yuv, yi_start + WIDTH * 3, rgbs3_0, rgbs3_1);
convert_2_uvs(out_yuv, ui, vi, rgbs0_0, rgbs1_0, rgbs0_1, rgbs1_1);
convert_2_uvs(out_yuv, ui + UV_WIDTH, vi + UV_WIDTH, rgbs2_0, rgbs3_0, rgbs2_1, rgbs3_1);
} else if(num_col == 2) {
convert_2_ys(out_yuv, yi_start, rgbs0_0);
convert_2_ys(out_yuv, yi_start + WIDTH, rgbs1_0);
convert_2_ys(out_yuv, yi_start + WIDTH * 2, rgbs2_0);
convert_2_ys(out_yuv, yi_start + WIDTH * 3, rgbs3_0);
convert_uv(out_yuv, ui, vi, rgbs0_0, rgbs1_0);
convert_uv(out_yuv, ui + UV_WIDTH, vi + UV_WIDTH, rgbs2_0, rgbs3_0);
}
} else {
const uchar8 rgbs0_0 = vload8(0, rgb + bgri_start);
const uchar8 rgbs0_1 = vload8(0, rgb + bgri_start + 8);
const uchar8 rgbs1_0 = vload8(0, rgb + bgri_start + RGB_STRIDE);
const uchar8 rgbs1_1 = vload8(0, rgb + bgri_start + RGB_STRIDE + 8);
if(num_col == 4) {
convert_4_ys(out_yuv, yi_start, rgbs0_0, rgbs0_1);
convert_4_ys(out_yuv, yi_start + WIDTH, rgbs1_0, rgbs1_1);
convert_2_uvs(out_yuv, ui, vi, rgbs0_0, rgbs1_0, rgbs0_1, rgbs1_1);
} else if(num_col == 2) {
convert_2_ys(out_yuv, yi_start, rgbs0_0);
convert_2_ys(out_yuv, yi_start + WIDTH, rgbs1_0);
convert_uv(out_yuv, ui, vi, rgbs0_0, rgbs1_0);
}
}
}
+14
View File
@@ -0,0 +1,14 @@
#pragma once
#include "common/clutil.h"
class Rgb2Yuv {
public:
Rgb2Yuv(cl_context ctx, cl_device_id device_id, int width, int height, int rgb_stride);
~Rgb2Yuv();
void queue(cl_command_queue q, cl_mem rgb_cl, cl_mem yuv_cl);
private:
size_t work_size[2];
cl_kernel krnl;
};
@@ -0,0 +1,191 @@
#include <fcntl.h>
#include <getopt.h>
#include <memory.h>
#include <unistd.h>
#include <cassert>
#include <cmath>
#include <csignal>
#include <cstdint>
#include <cstdlib>
#include <fstream>
#include <iomanip>
#include <iostream>
#include <string>
#include <thread>
#include <vector>
#ifdef ANDROID
#define MAXE 0
#include <unistd.h>
#else
// The libyuv implementation on ARM is slightly different than on x86
// Our implementation matches the ARM version, so accept errors of 1
#define MAXE 1
#endif
#include <CL/cl.h>
#include "libyuv.h"
#include "system/camerad/transforms/rgb_to_yuv.h"
#include "common/clutil.h"
static inline double millis_since_boot() {
struct timespec t;
clock_gettime(CLOCK_BOOTTIME, &t);
return t.tv_sec * 1000.0 + t.tv_nsec * 1e-6;
}
void cl_init(cl_device_id &device_id, cl_context &context) {
device_id = cl_get_device_id(CL_DEVICE_TYPE_DEFAULT);
context = CL_CHECK_ERR(clCreateContext(NULL, 1, &device_id, NULL, NULL, &err));
}
bool compare_results(uint8_t *a, uint8_t *b, int len, int stride, int width, int height, uint8_t *rgb) {
int min_diff = 0., max_diff = 0., max_e = 0.;
int e1 = 0, e0 = 0;
int e0y = 0, e0u = 0, e0v = 0, e1y = 0, e1u = 0, e1v = 0;
int max_e_i = 0;
for (int i = 0;i < len;i++) {
int e = ((int)a[i]) - ((int)b[i]);
if(e < min_diff) {
min_diff = e;
}
if(e > max_diff) {
max_diff = e;
}
int e_abs = std::abs(e);
if(e_abs > max_e) {
max_e = e_abs;
max_e_i = i;
}
if(e_abs < 1) {
e0++;
if(i < stride * height)
e0y++;
else if(i < stride * height + stride * height / 4)
e0u++;
else
e0v++;
} else {
e1++;
if(i < stride * height)
e1y++;
else if(i < stride * height + stride * height / 4)
e1u++;
else
e1v++;
}
}
//printf("max diff : %d, min diff : %d, e < 1: %d, e >= 1: %d\n", max_diff, min_diff, e0, e1);
//printf("Y: e < 1: %d, e >= 1: %d, U: e < 1: %d, e >= 1: %d, V: e < 1: %d, e >= 1: %d\n", e0y, e1y, e0u, e1u, e0v, e1v);
if(max_e <= MAXE) {
return true;
}
int row = max_e_i / stride;
if(row < height) {
printf("max error is Y: %d = (libyuv: %u - cl: %u), row: %d, col: %d\n", max_e, a[max_e_i], b[max_e_i], row, max_e_i % stride);
} else if(row >= height && row < (height + height / 4)) {
printf("max error is U: %d = %u - %u, row: %d, col: %d\n", max_e, a[max_e_i], b[max_e_i], (row - height) / 2, max_e_i % stride / 2);
} else {
printf("max error is V: %d = %u - %u, row: %d, col: %d\n", max_e, a[max_e_i], b[max_e_i], (row - height - height / 4) / 2, max_e_i % stride / 2);
}
return false;
}
int main(int argc, char** argv) {
srand(1337);
cl_device_id device_id;
cl_context context;
cl_init(device_id, context) ;
int err;
const cl_queue_properties props[] = {0}; //CL_QUEUE_PRIORITY_KHR, CL_QUEUE_PRIORITY_HIGH_KHR, 0};
cl_command_queue q = clCreateCommandQueueWithProperties(context, device_id, props, &err);
if(err != 0) {
std::cout << "clCreateCommandQueueWithProperties error: " << err << std::endl;
}
int width = 1164;
int height = 874;
int opt = 0;
while ((opt = getopt(argc, argv, "f")) != -1)
{
switch (opt)
{
case 'f':
std::cout << "Using front camera dimensions" << std::endl;
int width = 1152;
int height = 846;
}
}
std::cout << "Width: " << width << " Height: " << height << std::endl;
uint8_t *rgb_frame = new uint8_t[width * height * 3];
RGBToYUVState rgb_to_yuv_state;
rgb_to_yuv_init(&rgb_to_yuv_state, context, device_id, width, height, width * 3);
int frame_yuv_buf_size = width * height * 3 / 2;
cl_mem yuv_cl = CL_CHECK_ERR(clCreateBuffer(context, CL_MEM_READ_WRITE, frame_yuv_buf_size, (void*)NULL, &err));
uint8_t *frame_yuv_buf = new uint8_t[frame_yuv_buf_size];
uint8_t *frame_yuv_ptr_y = frame_yuv_buf;
uint8_t *frame_yuv_ptr_u = frame_yuv_buf + (width * height);
uint8_t *frame_yuv_ptr_v = frame_yuv_ptr_u + ((width/2) * (height/2));
cl_mem rgb_cl = CL_CHECK_ERR(clCreateBuffer(context, CL_MEM_READ_WRITE, width * height * 3, (void*)NULL, &err));
int mismatched = 0;
int counter = 0;
srand (time(NULL));
for (int i = 0; i < 100; i++) {
for (int i = 0; i < width * height * 3; i++) {
rgb_frame[i] = (uint8_t)rand();
}
double t1 = millis_since_boot();
libyuv::RGB24ToI420((uint8_t*)rgb_frame, width * 3,
frame_yuv_ptr_y, width,
frame_yuv_ptr_u, width/2,
frame_yuv_ptr_v, width/2,
width, height);
double t2 = millis_since_boot();
//printf("Libyuv: rgb to yuv: %.2fms\n", t2-t1);
clEnqueueWriteBuffer(q, rgb_cl, CL_TRUE, 0, width * height * 3, (void *)rgb_frame, 0, NULL, NULL);
t1 = millis_since_boot();
rgb_to_yuv_queue(&rgb_to_yuv_state, q, rgb_cl, yuv_cl);
t2 = millis_since_boot();
//printf("OpenCL: rgb to yuv: %.2fms\n", t2-t1);
uint8_t *yyy = (uint8_t *)clEnqueueMapBuffer(q, yuv_cl, CL_TRUE,
CL_MAP_READ, 0, frame_yuv_buf_size,
0, NULL, NULL, &err);
if(!compare_results(frame_yuv_ptr_y, yyy, frame_yuv_buf_size, width, width, height, (uint8_t*)rgb_frame))
mismatched++;
clEnqueueUnmapMemObject(q, yuv_cl, yyy, 0, NULL, NULL);
// std::this_thread::sleep_for(std::chrono::milliseconds(20));
if(counter++ % 100 == 0)
printf("Matched: %d, Mismatched: %d\n", counter - mismatched, mismatched);
}
printf("Matched: %d, Mismatched: %d\n", counter - mismatched, mismatched);
delete[] frame_yuv_buf;
rgb_to_yuv_destroy(&rgb_to_yuv_state);
clReleaseContext(context);
delete[] rgb_frame;
if (mismatched == 0)
return 0;
else
return -1;
}