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/*
* Copyright (C) 2015, Samsung Electronics Co. LTD
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#ifndef EXYNOS_VISION_IMAGE_H
#define EXYNOS_VISION_IMAGE_H
#include "ExynosVisionReference.h"
#include "ExynosVisionContext.h"
enum vx_MEMORY_e {
VX_MEM_0 = 0,
VX_MEM_1,
VX_MEM_2,
VX_MEM_3,
VX_MEM_MAX,
};
enum vx_plane_e {
VX_PLANE_0 = 0,
VX_PLANE_1,
VX_PLANE_2,
VX_PLANE_3,
VX_PLANE_MAX,
};
enum vx_dim_e {
/*! \brief Channels dimension, stride */
VX_DIM_C = 0,
/*! \brief Width (dimension) or x stride */
VX_DIM_X,
/*! \brief Height (dimension) or y stride */
VX_DIM_Y,
/*! \brief [hidden] The maximum number of dimensions */
VX_DIM_MAX,
};
enum vx_bounds_e {
/*! \brief The starting inclusive bound */
VX_BOUND_START,
/*! \brief The ending exclusive bound */
VX_BOUND_END,
/*! \brief [hidden] The maximum bound dimension */
VX_BOUND_MAX,
};
namespace android {
struct image_buffer {
/* plane accessing information */
vx_enum access_mode[VX_PLANE_MAX];
vx_enum usage[VX_PLANE_MAX];
/* vx_uint16 : 2B, vx_uint32 : 4B, other : 1B(Each Y, U, V, R, G, B is 1B) */
vx_int32 element_byte_size;
/*! \brief The number of memory */
vx_uint32 memory_num;
/*! \brief The number of sub-plane including each memory */
vx_uint32 subplane_num[VX_MEM_MAX];
/*! \brief The offset of plane from start address of memory */
vx_uint32 subplane_mem_offset[VX_MEM_MAX][VX_PLANE_MAX];
/*! \brief The dimensional values per memory */
vx_uint32 dims[VX_MEM_MAX][VX_PLANE_MAX][VX_DIM_MAX];
/*! \brief The per memory stride values per dimension */
vx_uint32 strides[VX_MEM_MAX][VX_PLANE_MAX][VX_DIM_MAX];
/* memory offset for ROI, offset of memory on parent image's memory */
vx_uint64 parent_plane_offset[VX_MEM_MAX];
};
class ExynosVisionImageROI;
class ExynosVisionImage : public ExynosVisionDataReference {
typedef struct _mem_location_t {
/* index of nptrs */
vx_uint32 memory_index;
/* plane index of each ptr */
vx_uint32 subplane_index;
} mem_location_t;
private:
List<ExynosVisionImageROI*> m_roi_descendant_list;
protected:
/* variable for resource management */
ExynosVisionResManager<image_resource_t*> *m_res_mngr;
List<image_resource_t*> m_res_list;
/* variable for accessing resoruce, each buf_element coressponding with each plane */
image_resource_t *m_cur_res;
/*! \brief The write locks. Used by Access/Commit pairs on usages which have
* VX_WRITE_ONLY or VX_READ_AND_WRITE flag parts. Only single writers are permitted.
*/
Mutex m_memory_locks[VX_PLANE_MAX];
struct image_buffer m_memory;
/*! \brief Width of the Image in Pixels */
vx_uint32 m_width;
/*! \brief Height of the Image in Pixels */
vx_uint32 m_height;
/*! \brief Format of the Image in VX_DF_IMAGE codes */
vx_df_image m_format;
/*! \brief The number of active planes */
vx_uint32 m_planes;
/* indicate that the memories of planes are continuous (default is a non-continuous) */
vx_bool m_continuous;
/*! \brief The constants space (BT601 or BT709) */
vx_enum m_space;
/*! \brief The desired color range */
vx_enum m_range;
/*! \brief The location information of each plane */
mem_location_t m_plane_loc[VX_PLANE_MAX];
/*! \brief The sub-channel scaling for each plane */
vx_uint32 m_scale[VX_PLANE_MAX][VX_DIM_MAX];
/*! \brief The per-plane, per-dimension bounds (start, end). */
vx_uint32 m_bounds[VX_PLANE_MAX][VX_DIM_MAX][VX_BOUND_MAX];
/*! \brief Indicates if the image is constant. */
vx_bool m_constant;
/*! \brief The valid region(region that datas are written) */
vx_rectangle_t m_region;
/*! \brief The import type */
vx_enum m_import_type;
public:
private:
void initImage(vx_uint32 width, vx_uint32 height, vx_df_image format);
vx_uint32 computePlaneRangeSize(vx_uint32 range, vx_uint32 p);
void initPlane(vx_uint32 index, vx_uint32 channels, vx_uint32 coordinate_scale, vx_uint32 width, vx_uint32 height);
void initMemory(vx_uint32 plane_index, vx_uint32 mem_index, vx_uint32 subplane_index, vx_uint32 channels, vx_uint32 width, vx_uint32 height);
public:
static vx_status checkValidCreateImage(vx_uint32 width, vx_uint32 height, vx_df_image format);
static void *formatImagePatchAddress1d(void *ptr, vx_uint32 index, const vx_imagepatch_addressing_t *addr);
static void *formatImagePatchAddress2d(void *ptr, vx_uint32 x, vx_uint32 y, const vx_imagepatch_addressing_t *addr);
static vx_bool checkImageDependenct(ExynosVisionImage *image1, ExynosVisionImage *image2);
/* Constructor */
ExynosVisionImage(ExynosVisionContext *context, ExynosVisionReference *scope, vx_bool is_virtual);
/* Destructor */
virtual ~ExynosVisionImage();
/* copy member variables that initialized at init() */
void operator=(const ExynosVisionImage& src_image);
virtual vx_status init(vx_uint32 width, vx_uint32 height, vx_df_image color);
virtual vx_status destroy(void);
vx_uint32 computePlaneOffset(vx_uint32 x, vx_uint32 y, vx_uint32 p);
virtual ExynosVisionImage *locateROI(vx_rectangle_t *rect);
vx_status fillUniformValue(const void *value);
virtual vx_status verifyMeta(ExynosVisionMeta *meta);
virtual void displayInfo(vx_uint32 tab_num, vx_bool detail_info);
void displayInfoMemory(void);
virtual vx_status accessImagePatch(const vx_rectangle_t *rect,
vx_uint32 plane_index,
vx_imagepatch_addressing_t *addr,
void **ptr,
vx_enum usage);
virtual vx_status commitImagePatch(vx_rectangle_t *rect,
vx_uint32 plane_index,
vx_imagepatch_addressing_t *addr,
const void *ptr);
virtual vx_status accessImageHandle(vx_uint32 plane_index,
vx_int32 *fd,
vx_rectangle_t *rect,
vx_enum usage);
virtual vx_status commitImageHandle(vx_uint32 plane_index,
const vx_int32 fd);
vx_size computeImagePatchSize(const vx_rectangle_t *rect,
vx_uint32 plane_index);
vx_status getValidRegionImage(vx_rectangle_t *rect);
vx_status getDimension(vx_uint32 *width, vx_uint32 *height);
vx_status queryImage(vx_enum attribute, void *ptr, vx_size size);
vx_status releaseImage(void);
vx_status setImageAttribute(vx_enum attribute, const void *ptr, vx_size size);
virtual vx_status swapImageHandle(void *const new_ptrs[], void *prev_ptrs[], vx_size num_planes);
vx_status setDirective(vx_enum directive);
vx_status setImportType(vx_enum import_type)
{
m_import_type = import_type;
return VX_SUCCESS;
}
virtual vx_status pushImagePatch(vx_uint32 index, void *ptrs[], vx_uint32 num_buf)
{
VXLOGE("%s can't support this type, %d, %p, %d", getName(), index, ptrs, num_buf);
displayInfo(0, vx_true_e);
return VX_FAILURE;
}
virtual vx_status pushImageHandle(vx_uint32 index, vx_int32 fd[], vx_uint32 num_buf)
{
VXLOGE("%s can't support this type, %d, %p, %d", getName(), index, fd, num_buf);
displayInfo(0, vx_true_e);
return VX_FAILURE;
}
virtual vx_status popImage(vx_uint32 *ret_index, vx_bool *ret_data_valid)
{
VXLOGE("%s can't support this type, %p, %p", getName(), ret_index, ret_data_valid);
displayInfo(0, vx_true_e);
return VX_FAILURE;
}
/* resource management function */
void copyMemoryInfo(const ExynosVisionImage *src_image);
virtual vx_status allocateMemory(vx_enum res_type, struct resource_param *param);
virtual vx_status allocateResource(image_resource_t **ret_resource);
virtual vx_status freeResource(image_resource_t *buf_vector);
virtual ExynosVisionDataReference *getInputShareRef(vx_uint32 frame_cnt, vx_bool *ret_data_valid);
virtual vx_status putInputShareRef(vx_uint32 frame_cnt);
virtual ExynosVisionDataReference *getOutputShareRef(vx_uint32 frame_cnt);
virtual vx_status putOutputShareRef(vx_uint32 frame_cnt, vx_uint32 demand_num, vx_bool data_valid);
virtual vx_status createCloneObject(image_resource_t *buf_vector);
virtual vx_status destroyCloneObject(image_resource_t *buf_vector);
virtual vx_status registerRoiDescendant(ExynosVisionImageROI *roi_descendant);
image_resource_t* getCurResource(void) {
return m_cur_res;
}
#ifdef USE_OPENCL_KERNEL
vx_status getClMemoryInfo(cl_context context, vxcl_mem_t **memory);
#endif
};
class ExynosVisionImageROI : public ExynosVisionImage {
private:
/*! \brief A pointer to a parent image object. */
ExynosVisionImage *m_roi_parent;
vx_rectangle_t m_rect_info;
public:
/* Constructor */
ExynosVisionImageROI(ExynosVisionContext *context, ExynosVisionReference *scope);
virtual vx_status destroy(void);
virtual vx_status init(vx_uint32 width, vx_uint32 height, vx_df_image color);
vx_status initFromROI(ExynosVisionImage *parent_image, const vx_rectangle_t *rect);
virtual vx_status allocateMemory(vx_enum res_type, struct resource_param *param);
virtual ExynosVisionImage *locateROI(vx_rectangle_t *rect);
virtual vx_status registerRoiDescendant(ExynosVisionImageROI *roi_descendant);
virtual vx_status accessImagePatch(const vx_rectangle_t *rect,
vx_uint32 plane_index,
vx_imagepatch_addressing_t *addr,
void **ptr,
vx_enum usage);
virtual vx_status commitImagePatch(vx_rectangle_t *rect,
vx_uint32 plane_index,
vx_imagepatch_addressing_t *addr,
const void *ptr);
virtual vx_status accessImageHandle(vx_uint32 plane_index,
vx_int32 *fd,
vx_rectangle_t *rect,
vx_enum usage);
virtual vx_status commitImageHandle(vx_uint32 plane_index,
const vx_int32 fd);
virtual ExynosVisionDataReference* getInputExclusiveRef(vx_uint32 frame_cnt, vx_bool *ret_data_valid);
virtual vx_status putInputExclusiveRef(vx_uint32 frame_cnt);
virtual ExynosVisionDataReference* getOutputExclusiveRef(vx_uint32 frame_cnt);
virtual vx_status putOutputExclusiveRef(vx_uint32 frame_cnt, vx_bool data_valid);
};
class ExynosVisionImageHandle : public ExynosVisionImage {
public:
/* Constructor */
ExynosVisionImageHandle(ExynosVisionContext *context, ExynosVisionReference *scope);
virtual vx_status destroy(void);
virtual vx_status swapImageHandle(void *const new_ptrs[], void *prev_ptrs[], vx_size num_planes);
vx_status checkContinuous(vx_df_image format, void *ptrs[]);
virtual vx_status allocateMemory(vx_enum res_type, struct resource_param *param);
vx_status importMemory(vx_imagepatch_addressing_t addrs[], void *ptrs[], vx_enum import_type);
};
class ExynosVisionImageQueue : public ExynosVisionImage {
public:
/* Constructor */
ExynosVisionImageQueue(ExynosVisionContext *context, ExynosVisionReference *scope);
virtual vx_status allocateMemory(void);
virtual vx_bool isQueue(void)
{
return vx_true_e;
}
virtual vx_status pushImagePatch(vx_uint32 index, void *ptrs[], vx_uint32 num_buf);
virtual vx_status pushImageHandle(vx_uint32 index, vx_int32 fd[], vx_uint32 num_buf);
virtual vx_status popImage(vx_uint32 *ret_index, vx_bool *ret_data_valid);
virtual ExynosVisionDataReference* getInputExclusiveRef(vx_uint32 frame_cnt, vx_bool *ret_data_valid);
virtual vx_status putInputExclusiveRef(vx_uint32 frame_cnt);
virtual ExynosVisionDataReference* getOutputExclusiveRef(vx_uint32 frame_cnt);
virtual vx_status putOutputExclusiveRef(vx_uint32 frame_cnt, vx_bool data_valid);
};
class ExynosVisionImageClone : public ExynosVisionImage {
public:
/* Constructor */
ExynosVisionImageClone(ExynosVisionContext *context, ExynosVisionReference *scope);
virtual vx_status destroy(void);
virtual vx_status allocateMemory(vx_enum res_type, struct resource_param *param);
};
}; // namespace android
#endif