/************************************************************************************************** Phyplus Microelectronics Limited confidential and proprietary. All rights reserved. IMPORTANT: All rights of this software belong to Phyplus Microelectronics Limited ("Phyplus"). Your use of this Software is limited to those specific rights granted under the terms of the business contract, the confidential agreement, the non-disclosure agreement and any other forms of agreements as a customer or a partner of Phyplus. You may not use this Software unless you agree to abide by the terms of these agreements. You acknowledge that the Software may not be modified, copied, distributed or disclosed unless embedded on a Phyplus Bluetooth Low Energy (BLE) integrated circuit, either as a product or is integrated into your products. Other than for the aforementioned purposes, you may not use, reproduce, copy, prepare derivative works of, modify, distribute, perform, display or sell this Software and/or its documentation for any purposes. YOU FURTHER ACKNOWLEDGE AND AGREE THAT THE SOFTWARE AND DOCUMENTATION ARE PROVIDED AS IS WITHOUT WARRANTY OF ANY KIND, EITHER EXPRESS OR IMPLIED, INCLUDING WITHOUT LIMITATION, ANY WARRANTY OF MERCHANTABILITY, TITLE, NON-INFRINGEMENT AND FITNESS FOR A PARTICULAR PURPOSE. IN NO EVENT SHALL PHYPLUS OR ITS SUBSIDIARIES BE LIABLE OR OBLIGATED UNDER CONTRACT, NEGLIGENCE, STRICT LIABILITY, CONTRIBUTION, BREACH OF WARRANTY, OR OTHER LEGAL EQUITABLE THEORY ANY DIRECT OR INDIRECT DAMAGES OR EXPENSES INCLUDING BUT NOT LIMITED TO ANY INCIDENTAL, SPECIAL, INDIRECT, PUNITIVE OR CONSEQUENTIAL DAMAGES, LOST PROFITS OR LOST DATA, COST OF PROCUREMENT OF SUBSTITUTE GOODS, TECHNOLOGY, SERVICES, OR ANY CLAIMS BY THIRD PARTIES (INCLUDING BUT NOT LIMITED TO ANY DEFENSE THEREOF), OR OTHER SIMILAR COSTS. **************************************************************************************************/ #include "osal.h" #include "crc16.h" #include "fs.h" #include "error.h" #include "fs_test.h" #include "log.h" #include "common.h" #include "flash.h" #ifdef FS_MODULE_TEST #define FTST_MAX_FILE_CNT 256 #define FTST_MAX_FILE_SIZE 4095 typedef struct{ uint16_t fid; uint16_t fsize; uint16_t fcrc; uint16_t del_flg;//0: file exist; 1: file deleted }ftst_t; static ftst_t s_fpool[FTST_MAX_FILE_CNT]; static uint16_t s_ftst_fid_num = 0; uint8_t s_ftst_buf[4095]; static void fstest_init(void)// { int i = 0; osal_memset((void*)s_fpool, 0, sizeof(s_fpool)); osal_memset(s_ftst_buf, 0, sizeof(s_ftst_buf)); s_ftst_fid_num = 0; for(i = 0; i< FTST_MAX_FILE_CNT; i++) { s_fpool[i].fid = 0xffff; } } uint16_t fstest_gen_new_fid(uint16_t fid_num_limit) { uint16_t id; uint32_t i; bool new_flag = false; do { id = (uint16_t)osal_rand(); new_flag = true; for(i = 0; i< s_ftst_fid_num; i++) { if((s_fpool[i].fid == id)&&(s_fpool[i].del_flg == false)) { new_flag = false; break; } } } while(new_flag == false); if(s_ftst_fid_num >= fid_num_limit || s_ftst_fid_num >= FTST_MAX_FILE_CNT) { fid_num_limit = fid_num_limit>FTST_MAX_FILE_CNT ? FTST_MAX_FILE_CNT : fid_num_limit; id = id%s_ftst_fid_num; return s_fpool[id].fid; } if(id == 0xffff) id = id/2; return id; } static void fstest_gen_fsdata(ftst_t* pftst, uint16_t size_limit, uint16_t fid_num_limit) { uint16_t size; uint16_t i; size_limit = size_limit >FTST_MAX_FILE_SIZE?FTST_MAX_FILE_SIZE:size_limit; size = 1+ osal_rand()%(size_limit-1); if(pftst->fid == 0xffff){ pftst->fid = fstest_gen_new_fid(fid_num_limit); } for(i = 0; i< size; i++){ s_ftst_buf[i] = (uint8_t)(osal_rand()&0xff); } pftst->del_flg = 0; pftst->fcrc = crc16(0, s_ftst_buf, size); pftst->fsize = size; } static uint16_t fstest_save_fsdata(ftst_t* pftst, uint16_t fid_num_limit) { uint16_t i; fid_num_limit = (fid_num_limit > FTST_MAX_FILE_CNT )? FTST_MAX_FILE_CNT: fid_num_limit; for(i = 0; i< fid_num_limit; i++){ if(s_fpool[i].fid == pftst->fid){ s_fpool[i].del_flg = pftst->del_flg; s_fpool[i].fcrc = pftst->fcrc; s_fpool[i].fsize = pftst->fsize; return i; } if(s_fpool[i].fid == 0xffff){ s_fpool[i].fid = pftst->fid; s_fpool[i].del_flg = pftst->del_flg; s_fpool[i].fcrc = pftst->fcrc; s_fpool[i].fsize = pftst->fsize; s_ftst_fid_num++; return i; } } LOG("file count out of test range\n"); //while(1);;; return 0xffff; } bool fstest_validate_fsdata(ftst_t* pftst) { int i; int ret; uint16_t crc = 0; ftst_t* pft; if(pftst){ pft = pftst; ret = hal_fs_item_read(pft->fid, s_ftst_buf, pft->fsize, NULL); if(ret != 0){ LOG("ftest_validate_fsdata failed!,fid[0x%x], fsize[%d]\n", pft->fid, pft->fsize); //while(1);;; return FALSE; } crc = crc16(0, s_ftst_buf, pft->fsize); if(crc != pft->fcrc){ LOG("ftest_validate_fsdata CRC error!,fid[0x%x], fsize[%d]\n", pft->fid, pft->fsize); //while(1);;; return FALSE; } return TRUE; } for(i = 0; i< s_ftst_fid_num; i++){ pft = &(s_fpool[i]); if(pft->del_flg) continue; ret = hal_fs_item_read(pft->fid, s_ftst_buf, pft->fsize, NULL); if(ret != 0){ LOG("ftest_validate_fsdata failed!,fid[0x%x], fsize[%d]\n", pft->fid, pft->fsize); //hile(1);;; return FALSE; } crc = crc16(0, s_ftst_buf, pft->fsize); if(crc != pft->fcrc){ LOG("ftest_validate_fsdata CRC error!,fid[0x%x], fsize[%d]\n", pft->fid, pft->fsize); //while(1);;; return FALSE; } } return TRUE; } int fstest_del(void) { int ret; uint32_t id_index; while(1){ id_index = osal_rand()%s_ftst_fid_num; if(s_fpool[id_index].del_flg == false){ break; } } ret = hal_fs_item_del(s_fpool[id_index].fid); if(ret == PPlus_SUCCESS){ s_fpool[id_index].del_flg = true; return PPlus_SUCCESS; } return PPlus_ERR_FATAL; } void ftcase_simple_write_test(void) { int i; int iret; uint16_t index; char* str_result = "Skip"; ftst_t ftst_item; bool error_flag = false; fstest_init(); //if(PPlus_ERR_FS_CONTEXT == hal_fs_init(FS_OFFSET_ADDRESS,FS_SECTOR_NUM)) { iret = hal_fs_format(FS_OFFSET_ADDRESS,FS_SECTOR_NUM); if(iret != PPlus_SUCCESS){ LOG("format error\n"); while(1); } } str_result = "Success"; for(i = 0; i < 20; i++) { ftst_item.fid = 0xffff; fstest_gen_fsdata(&ftst_item, 256, 0xffff);//size_limit fid_num_limit iret = hal_fs_item_write(ftst_item.fid,s_ftst_buf,ftst_item.fsize); if(iret != 0){ LOG("fs write error[%d], fid[0x%x], fsize[%d]\n",iret,ftst_item.fid,ftst_item.fsize); str_result = "FS data validation error"; error_flag = true; //while(1);;; break; } index = fstest_save_fsdata(&ftst_item,256); if(index == 0xffff){ LOG("fs save error[%d], fid[0x%x], fsize[%d]\n",index, ftst_item.fid, ftst_item.fsize); str_result = "FS data validation error"; error_flag = true; break; } if(fstest_validate_fsdata(NULL) == FALSE){ str_result = "FS data validation error"; error_flag = true; break; } } LOG("fstest_simple_write_test %s\n", str_result); if(error_flag == true) { LOG("fs error!\n"); while(1);;; } } void ftcase_write_del_test(void) { int i; int iret; uint16_t index; uint32_t garbage_num = 0; char* str_result = "Skip"; ftst_t ftst_item; bool error_flag = false; fstest_init(); //if(PPlus_ERR_FS_CONTEXT == hal_fs_init(FS_OFFSET_ADDRESS,FS_SECTOR_NUM)) { iret = hal_fs_format(FS_OFFSET_ADDRESS,FS_SECTOR_NUM); if(iret != PPlus_SUCCESS){ LOG("format error\n"); while(1); } } str_result = "Success"; for(i=0;;i++){ ftst_item.fid = 0xffff; fstest_gen_fsdata(&ftst_item, 256, 0xfffe); if(ftst_item.fsize > hal_fs_get_free_size()){ LOG("test end!\n"); break; } iret = hal_fs_item_write(ftst_item.fid , s_ftst_buf, ftst_item.fsize); if(iret != 0){ LOG("fs write error[%d], fid[0x%x], fsize[%d]\n", iret,ftst_item.fid, ftst_item.fsize); str_result = "FS data validation error"; error_flag = true; break; } index = fstest_save_fsdata(&ftst_item, 256); if(index == 0xffff){ LOG("fs save error[%d], fid[0x%x], fsize[%d]\n", iret,ftst_item.fid, ftst_item.fsize); str_result = "FS data validation error"; error_flag = true; break; } if(fstest_validate_fsdata(NULL) == FALSE){ str_result = "FS data validation error"; error_flag = true; break; } if(((i%8)==0) && (i>0)){ iret = fstest_del(); if(iret != PPlus_SUCCESS){ str_result = "FS del error"; error_flag = true; } } if(hal_fs_get_garbage_size(&garbage_num) > 256){ iret = hal_fs_garbage_collect(); if(iret != PPlus_SUCCESS){ str_result = "FS compresss error"; error_flag = true; } else{ LOG("compress_ok\n"); } } WaitMs(1); } LOG("ftcase_write_del_test %s\n", str_result); if(error_flag == true) { LOG("fs error!\n"); while(1);;; } } void ftcase_write_del_and_ble_enable_test(void) { static int i; int iret; uint16_t index; ftst_t ftst_item; bool error_flag = false; static bool firstFlag = true; uint32_t garbage_num = 0; if(firstFlag == true) { fstest_init(); //if(PPlus_ERR_FS_CONTEXT == hal_fs_init(FS_OFFSET_ADDRESS,FS_SECTOR_NUM)) { iret = hal_fs_format(FS_OFFSET_ADDRESS,FS_SECTOR_NUM); if(iret != PPlus_SUCCESS){ LOG("format error\n"); while(1); } } firstFlag = false; i =0; } else { i++; } { ftst_item.fid = 0xffff; fstest_gen_fsdata(&ftst_item, 256, 0xfffe); if(ftst_item.fsize > hal_fs_get_free_size()){ LOG("\nreinit_and_test:%d %d \n",ftst_item.fsize,hal_fs_get_free_size()); firstFlag = true; return; } iret = hal_fs_item_write(ftst_item.fid , s_ftst_buf, ftst_item.fsize); if(iret != 0){ LOG("fs write error[%d], fid[0x%x], fsize[%d],%d\n", iret,ftst_item.fid, ftst_item.fsize); iret = hal_fs_item_write(ftst_item.fid , s_ftst_buf, ftst_item.fsize);//to debug error_flag = true; while(1);;; } index = fstest_save_fsdata(&ftst_item, 256); if(index == 0xffff){ LOG("fs save error[%d], fid[0x%x], fsize[%d]\n", iret,ftst_item.fid, ftst_item.fsize); error_flag = true; while(1);;; } if(fstest_validate_fsdata(NULL) == FALSE){ LOG("FS data validation error\n"); error_flag = true; while(1);;; } if(((i%4)==0) && (i>0)){ iret = fstest_del(); if(iret != PPlus_SUCCESS){ LOG("FS del error\n"); error_flag = true; while(1);;; } else{ LOG("."); } } if(hal_fs_get_garbage_size(&garbage_num) > 1024){ iret = hal_fs_garbage_collect(); if(iret != PPlus_SUCCESS){ LOG("FS compresss error,%d\n",iret); error_flag = true; while(1); } else{ LOG("compress_ok\n"); } } } if(error_flag == true) { LOG("fs error!\n"); while(1);;; } } #endif #ifdef FS_EXAMPLE uint8_t id_buf[4095]; void fs_example(void) { int ret; uint32_t free_size; uint16 id = 1,id_len; uint16 i,file_len; static uint8_t testCase = 1; static uint8_t testCycle = 0; bool errFlag; uint32_t garbage_num = 0; if(testCycle >= 10){ LOG("fs example end!\n"); return; } if(hal_fs_initialized() == FALSE){ ret = hal_fs_init(0x11005000,4); if(PPlus_SUCCESS != ret) LOG("error:%d\n",ret); } osal_memset(id_buf,0x00,4095); for(i=0;i<4095;i++){ id_buf[i] = i%256; } switch(testCase) { case 1://write two files to fs,one is the mix length,one is the max length { LOG("\nfs_write................................................\n"); free_size = hal_fs_get_free_size(); LOG("free_size:%d\n",free_size); id = 1; id_len = 1; if(id_len < free_size){ ret = hal_fs_item_write(id,id_buf,id_len); if(PPlus_SUCCESS != ret) LOG("error:%d\n",ret); else LOG("write ok\n"); } id = 4095; id_len = 4095; if(id_len < free_size){ ret = hal_fs_item_write(id,id_buf,id_len); if(PPlus_SUCCESS != ret) LOG("error:%d\n",ret); else LOG("write ok\n"); } free_size = hal_fs_get_free_size(); LOG("free_size:%d\n",free_size); break; } case 2://read the two files { LOG("\nfs_read................................................\n"); osal_memset(id_buf,0x00,4095); id = 1; ret = hal_fs_item_read(id,id_buf,4095,&file_len); if(PPlus_SUCCESS != ret) LOG("error:%d\n",ret); LOG("id:%d\n",id); LOG("id len:%d\n",file_len); LOG("id data:\n"); errFlag = FALSE; for(i=0;i 4){ testCase = 1; testCycle++; LOG("\nfs test cycle:%d................................................\n",testCycle); } } #endif #ifdef FS_TIMING_TEST #define TOGGLE_GPIO GPIO_P14 uint8_t id_buf[4095]; void fs_timing_test(void) { uint8_t testCase = 4; uint16_t i,file_len; int ret; uint32_t garbage_size,garbage_num; hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); testCase = 9; switch(testCase) { case 0: hal_gpio_write(TOGGLE_GPIO,0); flash_sector_erase(0x11005000); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); break; case 1: hal_gpio_write(TOGGLE_GPIO,0); WriteFlash(0x1100500c,0x12345678); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); break; case 2: hal_gpio_write(TOGGLE_GPIO,0); osal_memcpy((uint8_t*)id_buf,(uint8_t*)0x11005000,4); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); break; case 3: hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_format(0x11005000,3); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); if(ret != PPlus_SUCCESS){ LOG("ret:%d",ret); } break; case 4: hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_init(0x11005000,3); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); if(ret != PPlus_SUCCESS){ LOG("ret:%d",ret); } ret = hal_fs_item_write(1,id_buf,1); ret = hal_fs_item_write(2,id_buf,2); ret = hal_fs_item_write(3,id_buf,3); ret = hal_fs_item_write(4,id_buf,4); ret = hal_fs_item_write(5,id_buf,5); ret = hal_fs_item_write(6,id_buf,6); ret = hal_fs_item_write(7,id_buf,7); ret = hal_fs_item_write(8,id_buf,8); ret = hal_fs_item_write(9,id_buf,9); ret = hal_fs_item_write(10,id_buf,10); WaitMs(1); break; case 5: hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_init(0x11005000,3); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); if(ret != PPlus_SUCCESS){ LOG("ret:%d",ret); } break; case 6: LOG("write file\n"); for(i=0;i<4095;i++) id_buf[i] = (i+1)%256; ret = hal_fs_format(0x11005000,3); if(ret != PPlus_SUCCESS){ LOG("ret:%d",ret); } WaitMs(1); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_write(1,id_buf,1); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(5); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_write(2,id_buf,100); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(5); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_write(3,id_buf,100); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(5); break; case 7: LOG("read file\n"); ret = hal_fs_init(0x11005000,3); WaitMs(1); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_read(1,id_buf,4095,&file_len); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); LOG("ret:%d",ret); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_read(2,id_buf,4095,&file_len); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); LOG("ret:%d",ret); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_read(3,id_buf,4095,&file_len); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); LOG("ret:%d",ret); break; case 8: LOG("del file\n"); ret = hal_fs_init(0x11005000,3); WaitMs(1); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_del(1); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); LOG("ret:%d",ret); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_item_del(2); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); LOG("ret:%d",ret); hal_gpio_write(TOGGLE_GPIO,0); ret =hal_fs_item_del(3); hal_gpio_write(TOGGLE_GPIO,1); WaitMs(1); LOG("ret:%d",ret); break; case 9: LOG("garbage calc and collect\n"); ret = hal_fs_init(0x11005000,3); if(ret != PPlus_SUCCESS){ LOG("hal_fs_init error:%d\n",ret); } WaitMs(5); hal_gpio_write(TOGGLE_GPIO,0); garbage_size = hal_fs_get_garbage_size(&garbage_num); hal_gpio_write(TOGGLE_GPIO,1); LOG("garbage_num:%d garbage_size:%d\n",garbage_num,garbage_size); WaitMs(5); hal_gpio_write(TOGGLE_GPIO,0); ret = hal_fs_garbage_collect(); hal_gpio_write(TOGGLE_GPIO,1); if(ret != PPlus_SUCCESS){ LOG("hal_fs_garbage_collect error:%d\n",ret); } WaitMs(5); break; default: break; } while(1);;; } #endif