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在VDSP++中使用ADI的Image Processig Tool Box

Posted on 2013-05-22 14:53  BitArt  阅读(1221)  评论(0编辑  收藏  举报

1.库的简述

  对于一些常用的且不需要经常修改的函数,我们可以将它们封装到一个库文件(.dlb)中,同时创建一个.h文件,来声明库中的函数的接口。

比如我们这次要用的图像处理库,名字为“libadi_image_tool_box.dlb”,它的接口在“adi_image_tool_box.h”中声明。如果您熟悉模块化变成的规范,应该知道想要调用库中的函数,该做些什么了啊?没错,#include “adi_image_tool_box.h”即可,但由于该库中的一些函数与硬件紧密相关,因此还要做一些针对ldf文件的修改。下面请看详细步骤:

2.详细步骤:

  1)到ADI官网下载“ImageProcessingToolbox-BF-Rel2.3.0_PROD.exe”,并任意安装到一个位置,可以得到一个同名目录,其中包含如下文件和文件夹:

        

  2)在Include文件夹中,赋值4个文件到工程目录下,同时在工程中添加文件包含:

    #include "adi_image_tool_box.h"
    #include "adi_image_tool_box_defines.h"
    #include "adi_float16.h"
    #include "adi_tool_chain.h"

  3)将库文件加入到工程中,如下图:(注意,此处不能用#include "xxx.dlb",否则会报错)

         

   4)调用库中的函数

    库中的函数大致分为两类,一类是native API,就是ADI的API函数,函数名称以"adi_"开头;还有一类是类OPENCV的API,以"cv“开头,使用类cv的API时还要进行一些其它的文件包含和初始化工作,这里就不多介绍了,感兴趣的朋友可以查看Documents下的帮助文档。

  这里使用一个native API,例如:

            if(test)

      adi_sobel_3x3_horz_i8( (const uint8_t *)L2_CoreA_Data1,288,360, (int16_t *)L2_CoreA_Data2);

    (函数的说明在Documents\Image_Tool_Box_ProductReferenceGuide_Rel2.3.0.pdf中)

           编译该工程,会出现以下错误:

    

    该Error是由上面的Warning产生的,集中问题解决Warnig即可。Warning的含义是:

    在库tool_box.dlb中的目标文件soble_3x3_horz_i8.doJ中的一个段"adi_fast_prio0_code"没有被映射,我们将它进行映射即可,方法如下:

    使用Open with source windows,打开ldf文件,将下面内容替换原文件中p0部分的内容(红色为修改过的部分):

    

PROCESSOR p0
{
   
   MEMORY
   {
       MEM_A_L1_SCRATCH                   { START(0xFFB00000) END(0xFFB00FFF) TYPE(RAM) WIDTH(8) }
       MEM_A_L1_CODE_CACHE               { START(0xFFA10000) END(0xFFA13FFF) TYPE(RAM) WIDTH(8) }
       MEM_A_L1_CODE                     { START(0xFFA00000) END(0xFFA03FFF) TYPE(RAM) WIDTH(8) }

       MEM_A_L1_DATA_B_CACHE             { START(0xFF904000) END(0xFF907FFF) TYPE(RAM) WIDTH(8) }
       MEM_A_L1_DATA_B                   { START(0xFF900000) END(0xFF903FFF) TYPE(RAM) WIDTH(8) }

       MEM_A_L1_DATA_A_CACHE             { START(0xFF804000) END(0xFF807FFF) TYPE(RAM) WIDTH(8) }
       MEM_A_L1_DATA_A                   { START(0xFF800000) END(0xFF803FFF) TYPE(RAM) WIDTH(8) }

      /*$VDSG<insert-new-memory-segments-for-CORE-A>            */
      /* Text inserted between these $VDSG comments will be preserved */
      /*$VDSG<insert-new-memory-segments-for-CORE-A>            */
      
   } /* MEMORY */
   
   OUTPUT($COMMAND_LINE_OUTPUT_DIRECTORY/p0.dxe)
   RESOLVE(start, 0xFFA00000)
   KEEP(start,_main)
   
   /*$VDSG<insert-user-ldf-commands-for-CORE-A>                 */
   /* Text inserted between these $VDSG comments will be preserved */
   /*$VDSG<insert-user-ldf-commands-for-CORE-A>                 */
   
   SECTIONS
   {
      /* FEB1FC00->FEB1FFFF : Reserved in boot Phase for 2nd stage boot loader. */
      RESERVE(___ssld=0xFEB1FC00, ___lssld = 0x400)
      /* Workaround for hardware errata 05-00-0189 and 05-00-0310 -
      ** "Speculative (and fetches made at boundary of reserved memory
      ** space) for instruction or data fetches may cause false
      ** protection exceptions" and "False hardware errors caused by
      ** fetches at the boundary of reserved memory ".
      **
      ** Done by avoiding use of 76 bytes from at the end of blocks
      ** that are adjacent to reserved memory. Workaround is enabled
      ** for appropriate silicon revisions (-si-revision switch).
      */
      RESERVE(___waba1=MEMORY_END(MEM_A_L1_SCRATCH) - 75, ___la1 = 76)
      RESERVE(___waba2=MEMORY_END(MEM_A_L1_CODE_CACHE) - 75, ___la2 = 76)
      RESERVE(___waba3=MEMORY_END(MEM_A_L1_CODE) - 75, ___la3 = 76)
      RESERVE(___waba5=MEMORY_END(MEM_A_L1_DATA_B) - 75, ___la5 = 76)
      RESERVE(___waba7=MEMORY_END(MEM_A_L1_DATA_A) - 75, ___la7 = 76)
      
      /*$VDSG<insert-new-sections-at-the-start-for-CORE-A>      */
      /* Text inserted between these $VDSG comments will be preserved */
      /*$VDSG<insert-new-sections-at-the-start-for-CORE-A>      */
      
      scratchpad
      {
         INPUT_SECTION_ALIGN(4)
         
         /*$VDSG<insert-input-sections-at-the-start-of-scratchpad-for-CORE-A>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-start-of-scratchpad-for-CORE-A>  */
         
         INPUT_SECTIONS($OBJECTS_CORE_A(L1_A_scratchpad) $LIBRARIES_CORE_A(L1_A_scratchpad))
      } > MEM_A_L1_SCRATCH
      
      L1_code
      {
         INPUT_SECTION_ALIGN(4)
         __CORE = 0;
         INPUT_SECTIONS($OBJECTS_CORE_A(L1_code) $LIBRARIES_CORE_A(L1_code) libadi_image_tool_box.dlb(adi_fast_prio0_code))
         
         /*$VDSG<insert-input-sections-at-the-start-of-l1_code>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-start-of-l1_code>  */
         
         INPUT_SECTIONS($OBJECTS_CORE_A(VDK_ISR_code) $LIBRARIES_CORE_A(VDK_ISR_code))
         INPUT_SECTIONS($OBJECTS_CORE_A(cplb) $LIBRARIES_CORE_A(cplb))
         INPUT_SECTIONS($OBJECTS_CORE_A(cplb_code) $LIBRARIES_CORE_A(cplb_code))
         INPUT_SECTIONS($OBJECTS_CORE_A(noncache_code) $LIBRARIES_CORE_A(noncache_code))
         INPUT_SECTIONS($OBJS_LIBS_INTERNAL_CORE_A(program))
         INPUT_SECTIONS($OBJS_LIBS_NOT_EXTERNAL_CORE_A(program))
         INPUT_SECTIONS($OBJECTS_CORE_A(program) $LIBRARIES_CORE_A(program))
         
         /*$VDSG<insert-input-sections-at-the-end-of-l1_code>   */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-end-of-l1_code>   */
         
      } > MEM_A_L1_CODE
      
      L1_code_cache
      {
          INPUT_SECTION_ALIGN(4)
         ___l1_code_cache = 0;
         INPUT_SECTIONS($OBJECTS_CORE_A(L1_code) $LIBRARIES_CORE_A(L1_code) libadi_image_tool_box.dlb(adi_fast_prio0_code))
         
         /*$VDSG<insert-input-sections-at-the-start-of-l1_code_cache>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-start-of-l1_code_cache>  */
         
         INPUT_SECTIONS($OBJECTS_CORE_A(VDK_ISR_code) $LIBRARIES_CORE_A(VDK_ISR_code))
         INPUT_SECTIONS($OBJECTS_CORE_A(cplb) $LIBRARIES_CORE_A(cplb))
         INPUT_SECTIONS($OBJECTS_CORE_A(cplb_code) $LIBRARIES_CORE_A(cplb_code))
         INPUT_SECTIONS($OBJS_LIBS_INTERNAL_CORE_A(program))
         INPUT_SECTIONS($OBJS_LIBS_NOT_EXTERNAL_CORE_A(program))
         INPUT_SECTIONS($OBJECTS_CORE_A(program) $LIBRARIES_CORE_A(program))
         
         /*$VDSG<insert-input-sections-at-the-end-of-l1_code_cache>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-end-of-l1_code_cache>  */
         
      } > MEM_A_L1_CODE_CACHE
      
      L1_data_a_1
      {
         INPUT_SECTION_ALIGN(4)
         ___l1_data_cache_a = 0;
         INPUT_SECTIONS($OBJECTS_CORE_A(L1_data_a) $LIBRARIES_CORE_A(L1_data_a))
         
         /*$VDSG<insert-input-sections-at-the-start-of-l1_data_a>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-start-of-l1_data_a>  */
         
         RESERVE(heaps_and_stack_in_L1_data_a, heaps_and_stack_in_L1_data_a_length = 2048,4)
      } > MEM_A_L1_DATA_A
      
      L1_data_a_bsz ZERO_INIT
      {
         INPUT_SECTION_ALIGN(4)
         INPUT_SECTIONS( $OBJECTS_CORE_A(L1_bsz) $LIBRARIES_CORE_A(L1_bsz))
      } > MEM_A_L1_DATA_A
      
      L1_data_a
      {
         INPUT_SECTION_ALIGN(4)
         INPUT_SECTIONS($OBJECTS_CORE_A{DualCoreMem("CoreA")}(cplb_data) $LIBRARIES_CORE_A{DualCoreMem("CoreA")}(cplb_data))
         INPUT_SECTIONS($OBJECTS_CORE_A(cplb_data) $LIBRARIES_CORE_A(cplb_data))
         INPUT_SECTIONS($OBJECTS_CORE_A(voldata) $LIBRARIES_CORE_A(voldata))
         INPUT_SECTIONS($OBJECTS_CORE_A(constdata) $LIBRARIES_CORE_A(constdata))
         INPUT_SECTIONS($OBJS_LIBS_INTERNAL_CORE_A(data1))
         INPUT_SECTIONS($OBJS_LIBS_NOT_EXTERNAL_CORE_A(data1))
         INPUT_SECTIONS($OBJECTS_CORE_A(data1) $LIBRARIES_CORE_A(data1))
         INPUT_SECTIONS($OBJECTS_CORE_A(.edt) $LIBRARIES_CORE_A(.edt))
         INPUT_SECTIONS($OBJECTS_CORE_A(.cht) $LIBRARIES_CORE_A(.cht))
         
         INPUT_SECTIONS($OBJECTS_CORE_A(adi_appl_fastb0_prio0_rw) $LIBRARIES_CORE_A(adi_appl_fastb0_prio0_rw))
         INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb0_prio0_temp) $LIBRARIES_CORE_A(adi_fastb0_prio0_temp))
         /*$VDSG<insert-input-sections-at-the-end-of-l1_data_a>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-end-of-l1_data_a>  */
         
      } > MEM_A_L1_DATA_A
      
      bsz_L1_data_a ZERO_INIT
      {
         INPUT_SECTION_ALIGN(4)
         INPUT_SECTIONS($OBJECTS_CORE_A(bsz) $LIBRARIES_CORE_A(bsz))
      } > MEM_A_L1_DATA_A
      
      L1_data_a_stack_heap
      {
         INPUT_SECTION_ALIGN(4)
         RESERVE_EXPAND(heaps_and_stack_in_L1_data_a, heaps_and_stack_in_L1_data_a_length , 0, 4)
         ldf_heap_space = heaps_and_stack_in_L1_data_a;
         ldf_heap_end = (ldf_heap_space + (heaps_and_stack_in_L1_data_a_length - 4)) & 0xfffffffc;
         ldf_heap_length = ldf_heap_end - ldf_heap_space;
      } > MEM_A_L1_DATA_A
      
      L1_data_b_bsz ZERO_INIT
      {
         INPUT_SECTION_ALIGN(4)
         INPUT_SECTIONS( $OBJECTS_CORE_A(L1_bsz) $LIBRARIES_CORE_A(L1_bsz))
      } > MEM_A_L1_DATA_B
      
      L1_data_b_tables
      {
         INPUT_SECTION_ALIGN(4)
         FORCE_CONTIGUITY
         INPUT_SECTIONS($OBJECTS_CORE_A(ctor) $LIBRARIES_CORE_A(ctor))
         INPUT_SECTIONS($LIBRARIES_SML2_CM(ctor) $LIBRARIES_SML3_CM(ctor))
         INPUT_SECTIONS($OBJECTS_CORE_A(ctorl) $LIBRARIES_CORE_A(ctorl))
         INPUT_SECTIONS($OBJECTS_CORE_A(vtbl) $LIBRARIES_CORE_A(vtbl))
         INPUT_SECTIONS($OBJECTS_CORE_A(.frt) $LIBRARIES_CORE_A(.frt))
         INPUT_SECTIONS($OBJECTS_CORE_A(.rtti) $LIBRARIES_CORE_A(.rtti))
         INPUT_SECTIONS($OBJECTS_CORE_A(.edt) $LIBRARIES_CORE_A(.edt))
         INPUT_SECTIONS($OBJECTS_CORE_A(.cht) $LIBRARIES_CORE_A(.cht))
      } > MEM_A_L1_DATA_B
      
      L1_data_b
      {
         INPUT_SECTION_ALIGN(4)
         ___l1_data_cache_b = 0;
         INPUT_SECTIONS($OBJECTS_CORE_A(L1_data_b) $LIBRARIES_CORE_A(L1_data_b))
         
         /*$VDSG<insert-input-sections-at-the-start-of-l1_data_b>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-start-of-l1_data_b>  */
         
         RESERVE(heaps_and_stack_in_L1_data_b, heaps_and_stack_in_L1_data_b_length = 2048,4)
         INPUT_SECTIONS($OBJS_LIBS_INTERNAL_CORE_A(data1))
         INPUT_SECTIONS($OBJS_LIBS_NOT_EXTERNAL_CORE_A(data1))
         INPUT_SECTIONS($OBJECTS_CORE_A(data1) $LIBRARIES_CORE_A(data1))
         INPUT_SECTIONS($OBJECTS_CORE_A{DualCoreMem("CoreA")}(cplb_data) $LIBRARIES_CORE_A{DualCoreMem("CoreA")}(cplb_data))
         INPUT_SECTIONS($OBJECTS_CORE_A(cplb_data) $LIBRARIES_CORE_A(cplb_data))
         INPUT_SECTIONS($OBJECTS_CORE_A(voldata) $LIBRARIES_CORE_A(voldata))
         INPUT_SECTIONS($OBJECTS_CORE_A(constdata) $LIBRARIES_CORE_A(constdata))
         
         INPUT_SECTIONS($OBJECTS_CORE_A(adi_appl_fastb1_prio0_rw) $LIBRARIES_CORE_A(adi_appl_fastb1_prio0_rw))      
         INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb1_prio0_temp) $LIBRARIES_CORE_A(adi_fastb1_prio0_temp))
         /*$VDSG<insert-input-sections-at-the-end-of-l1_data_b>  */
         /* Text inserted between these $VDSG comments will be preserved */
         /*$VDSG<insert-input-sections-at-the-end-of-l1_data_b>  */
  #ifdef GRAPHICS_DLB              
         INPUT_SECTION_ALIGN(4) INPUT_SECTIONS(../../Support-Modules/graphics/Lib-Production-VDSP/libadi_graphics2d.dlb (adi_fastb0_prio0_temp))
         //INPUT_SECTION_ALIGN(4) INPUT_SECTIONS(../../Support-Modules/graphics/Lib-Production-VDSP/libadi_graphics2d.dlb (adi_fastb0_prio1_temp))
  #endif  
      } > MEM_A_L1_DATA_B
      
      bsz_L1_data_b ZERO_INIT
      {
         INPUT_SECTION_ALIGN(4)
         INPUT_SECTIONS($OBJS_LIBS_INTERNAL_CORE_A(bsz))
         INPUT_SECTIONS($OBJS_LIBS_NOT_EXTERNAL_CORE_A(bsz))
         INPUT_SECTIONS($OBJECTS_CORE_A(bsz) $LIBRARIES_CORE_A(bsz))
      } > MEM_A_L1_DATA_B
      
      p0_gdt
      {
         FORCE_CONTIGUITY
         INPUT_SECTION_ALIGN(4)
         INPUT_SECTIONS($OBJECTS_CORE_A(.gdt) $LIBRARIES_CORE_A(.gdt))
         INPUT_SECTIONS($LIBRARIES_SML3_CM(.gdt))
         INPUT_SECTIONS($LIBRARIES_SML2_CM(.gdt))
         INPUT_SECTIONS($OBJECTS_CORE_A(.gdtl) $LIBRARIES_CORE_A(.gdtl))
         INPUT_SECTIONS($LIBRARIES_SML3_CM(.gdtl))
         INPUT_SECTIONS($LIBRARIES_SML2_CM(.gdtl))
      } > MEM_A_L1_DATA_B
      
      L1_data_b_stack_heap
      {
         INPUT_SECTION_ALIGN(4)
         RESERVE_EXPAND(heaps_and_stack_in_L1_data_b, heaps_and_stack_in_L1_data_b_length , 0, 4)
         ldf_stack_space = heaps_and_stack_in_L1_data_b;
         ldf_stack_end = (ldf_stack_space + (heaps_and_stack_in_L1_data_b_length - 4)) & 0xfffffffc;
      } > MEM_A_L1_DATA_B
      
      L1_code_lib
      {
#ifndef ENABLE_I_CACHE
         INPUT_SECTION_ALIGN(4)
         INPUT_SECTIONS($OBJECTS_CORE_A(adi_fast_prio0_code) $LIBRARIES_CORE_A(adi_fast_prio0_code))
         INPUT_SECTIONS($OBJECTS_CORE_A(adi_fast_prio1_code) $LIBRARIES_CORE_A(adi_fast_prio1_code))
#endif
       } >MEM_A_L1_CODE_CACHE
      L1_code_sram_app
      {
         INPUT_SECTION_ALIGN(4)
     /*__CORE = 0;*/
          INPUT_SECTIONS( $OBJECTS_CORE_A(ez_L1_code))
          INPUT_SECTIONS($OBJECTS_CORE_A(adi_appl_fast_prio0_code) $LIBRARIES_CORE_A(adi_appl_fast_prio0_code))
          INPUT_SECTIONS( $OBJECTS_CORE_A(L1_code) $LIBRARIES_CORE_A(L1_code))
          INPUT_SECTION_ALIGN(4) INPUT_SECTIONS(libdsp561y.dlb [ f32tou32z.doj(program) ])  
          INPUT_SECTION_ALIGN(4) INPUT_SECTIONS(libf64ieee561y.dlb (program))              
      
      } > MEM_A_L1_CODE

       L1_data_a_cache_lib
       {
    #ifndef ENABLE_D_CACHE
          INPUT_SECTION_ALIGN(4)
          INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb0_prio0_rw) $LIBRARIES_CORE_A(adi_fastb0_prio0_rw))
          INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb0_prio0_r) $LIBRARIES_CORE_A(adi_fastb0_prio0_r))
          INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb0_prio2_rw) $LIBRARIES_CORE_A(adi_fastb0_prio2_rw))
          INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb0_prio2_r) $LIBRARIES_CORE_A(adi_fastb0_prio2_r))
    #endif
       } >MEM_A_L1_DATA_A_CACHE
       
       L1_data_b_cache_lib
       {
    #ifndef ENABLE_D_CACHE
          INPUT_SECTION_ALIGN(4)
          INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb1_prio0_rw) $LIBRARIES_CORE_A(adi_fastb1_prio0_rw))
          INPUT_SECTIONS($OBJECTS_CORE_A(adi_fastb1_prio0_r) $LIBRARIES_CORE_A(adi_fastb1_prio0_r))
    #endif
       } >MEM_A_L1_DATA_B_CACHE
      /*$VDSG<insert-new-sections-at-the-end-for-CORE-A>        */
      /* Text inserted between these $VDSG comments will be preserved */
      /*$VDSG<insert-new-sections-at-the-end-for-CORE-A>        */
      
   } /* SECTIONS */
} /* p0 */

 

  5)关闭ldf的源代码文件,保存,重新编译,link成功通过!

   其它函数的使用方法基本相同。