This commit is contained in:
lmx
2025-10-29 13:10:02 +08:00
commit 49a07fa419
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#ifndef __DEV_MANAGER_H__
#define __DEV_MANAGER_H__
#include "system/includes.h"
#include "typedef.h"
#include "system/fs/fs.h"
enum {
DEV_MANAGER_ADD_OK = 0x0,
DEV_MANAGER_ADD_IN_LIST_AREADY,
DEV_MANAGER_ADD_ERR_PARM,
DEV_MANAGER_ADD_ERR_NOMEM,
DEV_MANAGER_ADD_ERR_NOT_FOUND,
DEV_MANAGER_ADD_ERR_MOUNT_FAIL,
};
struct __dev;
struct __scan_callback {
void (*enter)(struct __dev *dev);
void (*exit)(struct __dev *dev);
int (*scan_break)(void);
};
//dev_manager增加设备节点
int dev_manager_add(char *logo);
//dev_manager删除设备节点
int dev_manager_del(char *logo);
//dev_manager获取设备总数
u32 dev_manager_get_total(u8 valid);
//dev_manager通过设备节点检查设备是否在设备链表中
struct __dev *dev_manager_check(struct __dev *dev);
//dev_manager通过逻辑盘符检查设备是否在设备链表中
struct __dev *dev_manager_check_by_logo(char *logo);
//dev_manager查找第一个设备
struct __dev *dev_manager_find_first(u8 valid);
//dev_manager查找最后一个设备
struct __dev *dev_manager_find_last(u8 valid);
//dev_manager查找参数设备的前一个设备
struct __dev *dev_manager_find_prev(struct __dev *dev, u8 valid);
//dev_manager查找参数设备的后一个设备
struct __dev *dev_manager_find_next(struct __dev *dev, u8 valid);
//dev_manager查找最后活动设备
struct __dev *dev_manager_find_active(u8 valid);
//dev_manager查找指定逻辑盘符对应的设备
struct __dev *dev_manager_find_spec(char *logo, u8 valid);
//dev_manager查找指定序号设备
struct __dev *dev_manager_find_by_index(u32 index, u8 valid);
//dev_manager扫盘句柄释放
void dev_manager_scan_disk_release(struct vfscan *fsn);
//dev_manager扫盘
struct vfscan *dev_manager_scan_disk(struct __dev *dev, const char *path, const char *parm, u8 cycle_mode, struct __scan_callback *callback);
//dev_manager设定指定设备节点设备有效
void dev_manager_set_valid(struct __dev *dev, u8 flag);
//dev_manager设定指定设备节点设备为最后活动设备
void dev_manager_set_active(struct __dev *dev);
//dev_manager设定指定逻辑盘符的设备有效
void dev_manager_set_valid_by_logo(char *logo, u8 flag);
//dev_manager设定指定逻辑盘符的设备为最后活动设备
void dev_manager_set_active_by_logo(char *logo);
//dev_manager获取指定设备节点的逻辑盘符
char *dev_manager_get_logo(struct __dev *dev);
//获取物理设备节点的逻辑盘符(去掉_rec后缀)
char *dev_manager_get_phy_logo(struct __dev *dev);
//获取录音文件夹设备节点的逻辑盘符(追加_rec后缀)
char *dev_manager_get_rec_logo(struct __dev *dev);
//dev_manager获取指定设备节点的文件系统根目录
char *dev_manager_get_root_path(struct __dev *dev);
//dev_manager获取指定逻辑盘符的设备的文件系统根目录
char *dev_manager_get_root_path_by_logo(char *logo);
//dev_manager通过设备节点获取设备mount信息
struct imount *dev_manager_get_mount_hdl(struct __dev *dev);
//dev_manager通过设备节点检查设备是否在线
int dev_manager_online_check(struct __dev *dev, u8 valid);
//dev_manager通过逻辑盘符检查设备是否在线
int dev_manager_online_check_by_logo(char *logo, u8 valid);
//通过逻辑盘符判断设备是否在设备链表中
struct __dev *dev_manager_list_check_by_logo(char *logo);
//检查链表中没有挂载的设备并重新挂载
void dev_manager_list_check_mount(void);
//设备挂载
int dev_manager_mount(char *logo);
//设备卸载
int dev_manager_unmount(char *logo);
//dev_manager初始化
void dev_manager_init(void);
void dev_manager_var_init();
#endif//__DEV_MANAGER_H__

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#include "dev_reg.h"
#include "app_config.h"
//*----------------------------------------------------------------------------*/
/**@brief 设备配置表
@param 具体配置项请看struct __dev_reg结构体描述
@return
@note 注意:
例如logo逻辑盘符sd0_rec/sd1_rec/udisk_rec是做录音文件夹区分使用的,
在定义新的设备逻辑盘发的时候, 注意避开"_rec"后缀作为设备逻辑盘符
*/
/*----------------------------------------------------------------------------*/
const struct __dev_reg dev_reg[] = {
#if SDFILE_STORAGE && TCFG_CODE_FLASH_ENABLE
//内置flash
{
/*logo*/ SDFILE_DEV,
/*name*/ NULL,
/*storage_path*/ SDFILE_MOUNT_PATH,
/*root_path*/ SDFILE_RES_ROOT_PATH,
/*fs_type*/ "sdfile",
},
#endif
#if FLASH_INSIDE_REC_ENABLE
//内置录音
{
/*logo*/ "rec_sdfile",
/*name*/ NULL,
/*storage_path*/ "mnt/rec_sdfile",
/*root_path*/ "mnt/rec_sdfile/C/",
/*fs_type*/ "rec_sdfile",
},
#endif
#if (TCFG_SD0_ENABLE)
//sd0
{
/*logo*/ "sd0",
/*name*/ "sd0",
/*storage_path*/ "storage/sd0",
/*root_path*/ "storage/sd0/C/",
/*fs_type*/ "fat",
},
#endif
#if (TCFG_SD1_ENABLE)
//sd1
{
/*logo*/ "sd1",
/*name*/ "sd1",
/*storage_path*/ "storage/sd1",
/*root_path*/ "storage/sd1/C/",
/*fs_type*/ "fat",
},
#endif
#if (TCFG_UDISK_ENABLE)
//u盘
{
/*logo*/ "udisk0",
/*name*/ "udisk0",
/*storage_path*/ "storage/udisk0",
/*root_path*/ "storage/udisk0/C/",
/*fs_type*/ "fat",
},
#endif
#if (TCFG_SD0_ENABLE && TCFG_RECORD_FOLDER_DEV_ENABLE)
//sd0录音文件夹分区
{
/*logo*/ "sd0_rec",
/*name*/ "sd0",
/*storage_path*/ "storage/sd0",
/*root_path*/ "storage/sd0/C/"REC_FOLDER_NAME,
/*fs_type*/ "fat",
},
#endif
#if (TCFG_SD1_ENABLE && TCFG_RECORD_FOLDER_DEV_ENABLE)
//sd1录音文件夹分区
{
/*logo*/ "sd1_rec",
/*name*/ "sd1",
/*storage_path*/ "storage/sd1",
/*root_path*/ "storage/sd1/C/"REC_FOLDER_NAME,
/*fs_type*/ "fat",
},
#endif
#if (TCFG_UDISK_ENABLE && TCFG_RECORD_FOLDER_DEV_ENABLE)
//u盘录音文件夹分区
{
/*logo*/ "udisk0_rec",
/*name*/ "udisk0",
/*storage_path*/ "storage/udisk0",
/*root_path*/ "storage/udisk0/C/"REC_FOLDER_NAME,
/*fs_type*/ "fat",
},
#endif
#if TCFG_NOR_FAT
//外挂fat分区
{
/*logo*/ "fat_nor",
/*name*/ "fat_nor",
/*storage_path*/ "storage/fat_nor",
/*root_path*/ "storage/fat_nor/C/",
/*fs_type*/ "fat",
},
#endif
#if TCFG_NOR_FS
//外挂flash资源分区
{
/*logo*/ "res_nor",
/*name*/ "res_nor",
/*storage_path*/ "storage/res_nor",
/*root_path*/ "storage/res_nor/C/",
/*fs_type*/ "nor_sdfile",
},
#endif
#if TCFG_NOR_REC
///外挂录音分区
{
/*logo*/ "rec_nor",
/*name*/ "rec_nor",
/*storage_path*/ "storage/rec_nor",
/*root_path*/ "storage/rec_nor/C/",
/*fs_type*/ "rec_fs",
},
#endif
{
/*logo*/ "nor_ui",
/*name*/ "nor_ui",
/*storage_path*/ "storage/nor_ui",
/*root_path*/ "storage/nor_ui/C/",
/*fs_type*/ "nor_sdfile",
},
#if TCFG_VIR_UDISK_ENABLE
// 虚拟U盘
{
/*logo*/ "vir_udisk0",
/*name*/ "vir_udisk0",
/*storage_path*/ "storage/vir_udisk0",
/*root_path*/ "storage/vir_udisk0/C/",
/*fs_type*/ "fat",
},
#endif
#if TCFG_VIRFAT_FLASH_ENABLE
//flash 虚拟fat
{
/*logo*/ "virfat_flash",
/*name*/ "virfat_flash",
/*storage_path*/ "storage/virfat_flash",
/*root_path*/ "storage/virfat_flash/C/",
/*fs_type*/ "sdfile_fat",
},
#endif
#if TCFG_NANDFLASH_DEV_ENABLE
{
/*logo*/ "nandflash_ftl",
/*name*/ "nandflash_ftl",
/*storage_path*/ "storage/nandflash_ftl",
/*root_path*/ "storage/nandflash_ftl/C/",
/*fs_type*/ "fat",
},
#endif
//<新加设备参数请在reg end前添加!!
//<reg end
{
/*logo*/ NULL,
/*name*/ NULL,
/*storage_path*/ NULL,
/*root_path*/ NULL,
/*fs_type*/ NULL,
},
};

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#ifndef __DEV_REG_H__
#define __DEV_REG_H__
#include "system/includes.h"
#include "typedef.h"
///设备参数控制句柄
struct __dev_reg {
char *logo;//设备选择使用的逻辑盘符
char *name;//设备名称,底层匹配设备节点使用
char *storage_path;//设备路径文件系统mount时使用
char *root_path;//设备文件系统根目录
char *fs_type;//文件系统类型,如fat, sdfile
};
extern const struct __dev_reg dev_reg[];
#endif//__DEV_REG_H__

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#include "dev_update.h"
#include "dev_manager.h"
#include "update/update.h"
#include "update/update_loader_download.h"
#include "app_config.h"
#include "btcontroller_modules.h"
#if defined(CONFIG_SD_UPDATE_ENABLE) || defined(CONFIG_USB_UPDATE_ENABLE)
#define DEV_UPDATE_EN 1
#else
#define DEV_UPDATE_EN 0
#endif
#ifdef DEV_UPDATE_SUPPORT_JUMP
extern void __JUMP_TO_MASKROM();
extern void save_spi_port();
extern void update_close_hw(void *filter_name);
extern void ram_protect_close(void);
#endif //endif DEV_UPDATE_SUPPORT_JUMP
extern bool uart_update_send_update_ready(char *file_path);
extern bool get_uart_update_sta(void);
static char update_path[48] = {0};
extern const char updata_file_name[];
struct __update_dev_reg {
char *logo;
int type;
union {
UPDATA_SD sd;
} u;
};
#if TCFG_SD0_ENABLE
static const struct __update_dev_reg sd0_update = {
.logo = "sd0",
.type = SD0_UPDATA,
.u.sd.control_type = SD_CONTROLLER_0,
#ifdef TCFG_SD0_PORT_CMD
.u.sd.control_io_clk = TCFG_SD0_PORT_CLK,
.u.sd.control_io_cmd = TCFG_SD0_PORT_CMD,
.u.sd.control_io_dat = TCFG_SD0_PORT_DA0,
#else
#if (TCFG_SD0_PORTS=='A')
.u.sd.control_io = SD0_IO_A,
#elif (TCFG_SD0_PORTS=='B')
.u.sd.control_io = SD0_IO_B,
#elif (TCFG_SD0_PORTS=='C')
.u.sd.control_io = SD0_IO_C,
#elif (TCFG_SD0_PORTS=='D')
.u.sd.control_io = SD0_IO_D,
#elif (TCFG_SD0_PORTS=='E')
.u.sd.control_io = SD0_IO_E,
#elif (TCFG_SD0_PORTS=='F')
.u.sd.control_io = SD0_IO_F,
#endif
#endif
.u.sd.power = 1,
};
#endif//TCFG_SD0_ENABLE
#if TCFG_SD1_ENABLE
static const struct __update_dev_reg sd1_update = {
.logo = "sd1",
.type = SD1_UPDATA,
.u.sd.control_type = SD_CONTROLLER_1,
#if (TCFG_SD1_PORTS=='A')
.u.sd.control_io = SD1_IO_A,
#else
.u.sd.control_io = SD1_IO_B,
#endif
.u.sd.power = 1,
};
#endif//TCFG_SD1_ENABLE
#if TCFG_UDISK_ENABLE
static const struct __update_dev_reg udisk_update = {
.logo = "udisk0",
.type = USB_UPDATA,
};
#endif//TCFG_UDISK_ENABLE
static const struct __update_dev_reg *update_dev_list[] = {
#if TCFG_UDISK_ENABLE
&udisk_update,
#endif//TCFG_UDISK_ENABLE
#if TCFG_SD0_ENABLE
&sd0_update,
#endif//
#if TCFG_SD1_ENABLE
&sd1_update,
#endif//TCFG_SD1_ENABLE
};
void *dev_update_get_parm(int type)
{
struct __update_dev_reg *parm = NULL;
for (int i = 0; i < ARRAY_SIZE(update_dev_list); i++) {
if (update_dev_list[i]->type == type) {
parm = (struct __update_dev_reg *)update_dev_list[i];
}
}
if (parm == NULL) {
return NULL;
}
return (void *)&parm->u.sd;
}
struct strg_update {
void *fd;
char *update_path;
};
static struct strg_update strg_update = {0};
#define __this (&strg_update)
static u16 strg_f_open(void)
{
if (!__this->update_path) {
printf("file path err ");
return false;
}
if (__this->fd) {
return true;
/* fclose(__this->fd);
__this->fd = NULL; */
}
__this->fd = fopen(__this->update_path, "r");
if (!__this->fd) {
printf("file open err ");
return false;
}
return true;
}
static u16 strg_f_read(void *fp, u8 *buff, u16 len)
{
if (!__this->fd) {
return (u16) - 1;
}
len = fread(__this->fd, buff, len);
return len;
}
static int strg_f_seek(void *fp, u8 type, u32 offset)
{
if (!__this->fd) {
return (int) - 1;
}
int ret = fseek(__this->fd, offset, type);
/* return 0; // 0k */
return ret;
}
static u16 strg_f_stop(u8 err)
{
if (__this->fd) {
fclose(__this->fd);
__this->fd = NULL;
}
return true;
}
static int strg_update_set_file_path_and_hdl(char *update_path, void *fd)
{
__this->update_path = update_path;
__this->fd = fd;
return true;
}
static const update_op_api_t strg_dev_update_op = {
.f_open = strg_f_open,
.f_read = strg_f_read,
.f_seek = strg_f_seek,
.f_stop = strg_f_stop,
};
static void dev_update_param_private_handle(UPDATA_PARM *p)
{
u16 up_type = p->parm_type;
#ifdef CONFIG_SD_UPDATE_ENABLE
if ((up_type == SD0_UPDATA) || (up_type == SD1_UPDATA)) {
int sd_start = (u32)p->parm_priv;
void *sd = NULL;
sd = dev_update_get_parm(up_type);
if (sd) {
memcpy((void *)sd_start, sd, UPDATE_PRIV_PARAM_LEN);
} else {
memset((void *)sd_start, 0, UPDATE_PRIV_PARAM_LEN);
}
}
#endif
#ifdef CONFIG_USB_UPDATE_ENABLE
if (up_type == USB_UPDATA) {
printf("usb updata ");
int usb_start = (u32)p->parm_priv;
memset((void *)usb_start, 0, UPDATE_PRIV_PARAM_LEN);
}
#endif
memcpy(p->file_patch, updata_file_name, strlen(updata_file_name));
}
static void dev_update_before_jump_handle(u16 up_type)
{
#if (defined DEV_UPDATE_SUPPORT_JUMP) || (CONFIG_UPDATE_JUMP_TO_MASK)
#if TCFG_BLUETOOTH_BACK_MODE //后台模式需要把蓝牙关掉
if (BT_MODULES_IS_SUPPORT(BT_MODULE_LE)) {
ll_hci_destory();
}
hci_controller_destory();
#endif
#if CONFIG_UPDATE_JUMP_TO_MASK
y_printf(">>>[test]:latch reset update\n");
latch_reset();
#if 0
update_close_hw("null");
ram_protect_close();
save_spi_port();
extern void __BT_UPDATA_JUMP();
y_printf("update jump to __BT_UPDATA ...\n");
y_printf(">>>[test]:JL_IOMC = 0x%x\n", (JL_IOMAP->CON0 >> 16) & 0x3);
/* clk_set("sys", 48 * 1000000L); */
//跳转到uboot加载完,30ms左右(200410_yzb)
__BT_UPDATA_JUMP();
#endif
#else
printf("update jump to mask...\n");
/* JL_UART0->CON0 = 0; */
/* JL_UART1->CON0 = 0; */
__JUMP_TO_MASKROM();
#endif
#else
cpu_reset();
#endif //DEV_UPDATE_SUPPORT_JUMP
}
static void dev_update_state_cbk(int type, u32 state, void *priv)
{
update_ret_code_t *ret_code = (update_ret_code_t *)priv;
switch (state) {
case UPDATE_CH_EXIT:
if ((0 == ret_code->stu) && (0 == ret_code->err_code)) {
update_mode_api_v2(type,
dev_update_param_private_handle,
dev_update_before_jump_handle);
} else {
printf("update fail, cpu reset!!!\n");
cpu_reset();
}
break;
}
}
u16 dev_update_check(char *logo)
{
if (update_success_boot_check() == true) {
return UPDATA_NON;
}
struct __dev *dev = dev_manager_find_spec(logo, 0);
if (dev) {
#if DEV_UPDATE_EN
//<查找设备升级配置
struct __update_dev_reg *parm = NULL;
for (int i = 0; i < ARRAY_SIZE(update_dev_list); i++) {
if (0 == strcmp(update_dev_list[i]->logo, logo)) {
parm = (struct __update_dev_reg *)update_dev_list[i];
}
}
if (parm == NULL) {
printf("dev update without parm err!!!\n");
return UPDATA_PARM_ERR;
}
//<尝试按照路径打开升级文件
char *updata_file = (char *)updata_file_name;
if (*updata_file == '/') {
updata_file ++;
}
memset(update_path, 0, sizeof(update_path));
sprintf(update_path, "%s%s", dev_manager_get_root_path(dev), updata_file);
printf("update_path: %s\n", update_path);
FILE *fd = fopen(update_path, "r");
if (!fd) {
///没有升级文件, 继续跑其他解码相关的流程
printf("open update file err!!!\n");
return UPDATA_DEV_ERR;
}
#if(USER_UART_UPDATE_ENABLE) && (UART_UPDATE_ROLE == UART_UPDATE_MASTER)
uart_update_send_update_ready(update_path);
while (get_uart_update_sta()) {
os_time_dly(10);
}
#else
///进行升级
strg_update_set_file_path_and_hdl(update_path, (void *)fd);
update_mode_info_t info = {
.type = parm->type,
.state_cbk = dev_update_state_cbk,
.p_op_api = &strg_dev_update_op,
.task_en = 0,
};
app_active_update_task_init(&info);
#endif// USER_UART_UPDATE_ENABLE
#endif//DEV_UPDATE_EN
}
return UPDATA_READY;
}

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#ifndef __DEV_UPDATE_H__
#define __DEV_UPDATE_H__
#include "typedef.h"
#include "system/includes.h"
void *dev_update_get_parm(int type);
u16 dev_update_check(char *logo);
#endif//__DEV_UPDATE_H__