completed on-board-decode for CC265X

This commit is contained in:
2017-03-19 18:07:09 +08:00
parent 5b29cc7748
commit 5b0dd13050
3 changed files with 469 additions and 431 deletions

View File

@@ -18,6 +18,413 @@ extern "C"
#include "ir_defs.h" #include "ir_defs.h"
#define TAG_COUNT_FOR_PROTOCOL 29
#define TAG_INVALID 0xffff
#define MAX_DELAYCODE_NUM 16
#define MAX_BITNUM 16
#define AC_PARAMETER_TYPE_1 0
#define AC_PARAMETER_TYPE_2 1
typedef enum
{
AC_POWER_ON = 0,
AC_POWER_OFF,
AC_POWER_MAX
} ac_power;
typedef enum
{
AC_TEMP_16 = 0,
AC_TEMP_17,
AC_TEMP_18,
AC_TEMP_19,
AC_TEMP_20,
AC_TEMP_21,
AC_TEMP_22,
AC_TEMP_23,
AC_TEMP_24,
AC_TEMP_25,
AC_TEMP_26,
AC_TEMP_27,
AC_TEMP_28,
AC_TEMP_29,
AC_TEMP_30,
AC_TEMP_MAX
} ac_temperature;
typedef enum
{
AC_MODE_COOL = 0,
AC_MODE_HEAT,
AC_MODE_AUTO,
AC_MODE_FAN,
AC_MODE_DRY,
AC_MODE_MAX
} ac_mode;
typedef enum
{
AC_FUNCTION_POWER = 1,
AC_FUNCTION_MODE,
AC_FUNCTION_TEMPERATURE_UP,
AC_FUNCTION_TEMPERATURE_DOWN,
AC_FUNCTION_WIND_SPEED,
AC_FUNCTION_WIND_SWING,
AC_FUNCTION_WIND_FIX,
AC_FUNCTION_MAX,
} ac_function;
typedef enum
{
AC_WS_AUTO = 0,
AC_WS_LOW,
AC_WS_MEDIUM,
AC_WS_HIGH,
AC_WS_MAX
} ac_wind_speed;
typedef enum
{
AC_SWING_ON = 0,
AC_SWING_OFF,
AC_SWING_MAX
} ac_swing;
typedef enum
{
SWING_TYPE_SWING_ONLY = 0,
SWING_TYPE_NORMAL,
SWING_TYPE_NOT_SPECIFIED,
SWING_TYPE_MAX
} swing_type;
typedef enum
{
TEMP_TYPE_DYNAMIC = 0,
TEMP_TYPE_STATIC,
TEMP_TYPE_MAX,
} temp_type;
// enumeration for application polymorphism
typedef enum
{
AC_APPLY_POWER = 0,
AC_APPLY_MODE,
AC_APPLY_TEMPERATURE_UP,
AC_APPLY_TEMPERATURE_DOWN,
AC_APPLY_WIND_SPEED,
AC_APPLY_WIND_SWING,
AC_APPLY_WIND_FIX,
AC_APPLY_MAX
} ac_apply;
typedef struct _ac_hex
{
UINT8 len;
UINT8 *data;
} ac_hex;
typedef struct _ac_level
{
UINT16 low;
UINT16 high;
} ac_level;
typedef struct _ac_bootcode
{
UINT16 len;
UINT16 data[16];
} ac_bootcode;
typedef struct _ac_delaycode
{
INT16 pos;
UINT16 time[8];
UINT16 time_cnt;
} ac_delaycode;
/*
* the array of tag_100X application data
* seg_len : length for each segment
* byte_pos : the position of update byte
* byte_value : the value to be updated to position
*/
typedef struct _tag_comp_type_1
{
UINT8 seg_len;
UINT8 *segment;
} tag_comp;
typedef struct _tag_swing_info
{
swing_type type;
UINT8 mode_count;
UINT8 dir_index;
} swing_info;
typedef struct _tag_power_1
{
UINT8 len;
tag_comp comp_data[AC_POWER_MAX];
} power_1;
typedef struct _tag_temp_1
{
UINT8 len;
UINT8 type;
tag_comp comp_data[AC_TEMP_MAX];
} temp_1;
typedef struct tag_mode_1
{
UINT8 len;
tag_comp comp_data[AC_MODE_MAX];
} mode_1;
typedef struct tag_speed_1
{
UINT8 len;
tag_comp comp_data[AC_WS_MAX];
} speed_1;
typedef struct tag_swing_1
{
UINT8 len;
UINT16 count;
tag_comp *comp_data;
} swing_1;
typedef struct tag_temp_2
{
UINT8 len;
UINT8 type;
tag_comp comp_data[AC_TEMP_MAX];
} temp_2;
typedef struct tag_mode_2
{
UINT8 len;
tag_comp comp_data[AC_MODE_MAX];
} mode_2;
typedef struct tag_speed_2
{
UINT8 len;
tag_comp comp_data[AC_WS_MAX];
} speed_2;
typedef struct tag_swing_2
{
UINT8 len;
UINT16 count;
tag_comp *comp_data;
} swing_2;
#if defined SUPPORT_HORIZONTAL_SWING
typedef struct tag_horiswing_1
{
UINT16 len;
tag_comp comp_data[AC_HORI_SWING_MAX];
} hori_swing_1;
#endif
typedef struct _tag_checksum_data
{
UINT8 len;
UINT8 type;
UINT8 start_byte_pos;
UINT8 end_byte_pos;
UINT8 checksum_byte_pos;
UINT8 checksum_plus;
UINT8 *spec_pos;
} tag_checksum_data;
typedef struct tag_checksum
{
UINT8 len;
UINT16 count;
tag_checksum_data *checksum_data;
} tchecksum;
typedef struct tag_function_1
{
UINT8 len;
tag_comp comp_data[AC_FUNCTION_MAX - 1];
} function_1;
typedef struct tag_function_2
{
UINT8 len;
tag_comp comp_data[AC_FUNCTION_MAX - 1];
} function_2;
typedef struct tag_solo_code
{
UINT8 len;
UINT8 solo_func_count;
UINT8 solo_function_codes[AC_FUNCTION_MAX - 1];
} solo_code;
typedef struct _ac_bitnum
{
INT16 pos;
UINT16 bits;
} ac_bitnum;
typedef enum
{
N_COOL = 0,
N_HEAT,
N_AUTO,
N_FAN,
N_DRY,
N_MODE_MAX,
} ac_n_mode;
typedef enum
{
CHECKSUM_TYPE_BYTE = 1,
CHECKSUM_TYPE_BYTE_INVERSE,
CHECKSUM_TYPE_HALF_BYTE,
CHECKSUM_TYPE_HALF_BYTE_INVERSE,
CHECKSUM_TYPE_SPEC_HALF_BYTE,
CHECKSUM_TYPE_SPEC_HALF_BYTE_INVERSE,
CHECKSUM_TYPE_SPEC_HALF_BYTE_ONE_BYTE,
CHECKSUM_TYPE_SPEC_HALF_BYTE_INVERSE_ONE_BYTE,
CHECKSUM_TYPE_MAX,
} checksum_type;
typedef struct _ac_n_mode_info
{
UINT8 enable;
UINT8 allspeed;
UINT8 alltemp;
UINT8 temp[AC_TEMP_MAX];
UINT8 temp_cnt;
UINT8 speed[AC_WS_MAX];
UINT8 speed_cnt;
} ac_n_mode_info;
typedef struct ac_protocol
{
UINT8 endian;
// ac_hex default_code;
ac_hex default_code;
ac_level zero;
ac_level one;
ac_bootcode bootcode;
ac_delaycode dc[MAX_DELAYCODE_NUM];
power_1 power1;
temp_1 temp1;
mode_1 mode1;
speed_1 speed1;
swing_1 swing1;
tchecksum checksum;
function_1 function1;
function_2 function2;
temp_2 temp2;
mode_2 mode2;
speed_2 speed2;
swing_2 swing2;
swing_info si;
solo_code sc;
UINT8 swing_status;
BOOL change_wind_direction;
UINT16 dc_cnt;
ac_bitnum bitnum[MAX_BITNUM];
UINT16 bitnum_cnt;
UINT16 repeat_times;
UINT16 frame_length;
ac_n_mode_info n_mode[N_MODE_MAX];
UINT16 code_cnt;
UINT8 lastbit;
UINT16 *time;
UINT8 solo_function_mark;
} protocol;
typedef struct tag_head
{
UINT16 tag;
UINT16 len;
unsigned short offset;
UINT8 *pdata;
} t_tag_head;
struct ir_bin_buffer
{
UINT8 *data;
UINT16 len;
UINT16 offset;
};
typedef struct REMOTE_AC_STATUS
{
UINT8 acPower;
UINT8 acTemp;
UINT8 acMode;
UINT8 acWindDir;
UINT8 acWindSpeed;
UINT8 acDisplay;
UINT8 acSleep;
UINT8 acTimer;
} remote_ac_status_t;
// function polymorphism
typedef INT8 (*lp_apply_ac_parameter)(remote_ac_status_t ac_status, UINT8 function_code);
#define TAG_AC_BOOT_CODE 1
#define TAG_AC_ZERO 2
#define TAG_AC_ONE 3
#define TAG_AC_DELAY_CODE 4
#define TAG_AC_FRAME_LENGTH 5
#define TAG_AC_ENDIAN 6
#define TAG_AC_LASTBIT 7
#define TAG_AC_POWER_1 21
#define TAG_AC_DEFAULT_CODE 22
#define TAG_AC_TEMP_1 23
#define TAG_AC_MODE_1 24
#define TAG_AC_SPEED_1 25
#define TAG_AC_SWING_1 26
#define TAG_AC_CHECKSUM_TYPE 27
#define TAG_AC_SOLO_FUNCTION 28
#define TAG_AC_FUNCTION_1 29
#define TAG_AC_TEMP_2 30
#define TAG_AC_MODE_2 31
#define TAG_AC_SPEED_2 32
#define TAG_AC_SWING_2 33
#define TAG_AC_FUNCTION_2 34
#define TAG_AC_BAN_FUNCTION_IN_COOL_MODE 41
#define TAG_AC_BAN_FUNCTION_IN_HEAT_MODE 42
#define TAG_AC_BAN_FUNCTION_IN_AUTO_MODE 43
#define TAG_AC_BAN_FUNCTION_IN_FAN_MODE 44
#define TAG_AC_BAN_FUNCTION_IN_DRY_MODE 45
#define TAG_AC_SWING_INFO 46
#define TAG_AC_REPEAT_TIMES 47
#define TAG_AC_BITNUM 48
// definition about size
#define PROTOCOL_SIZE (sizeof(protocol))
/* exported variables */
extern UINT8 *ir_hex_code;
extern UINT8 ir_hex_len;
extern protocol *context;
extern INT8 ir_ac_lib_parse(); extern INT8 ir_ac_lib_parse();
extern INT8 free_ac_context(); extern INT8 free_ac_context();

View File

@@ -19,416 +19,13 @@ extern "C"
#include <stdio.h> #include <stdio.h>
#include "ir_defs.h" #include "ir_defs.h"
#include "ir_ac_control.h"
#define TAG_COUNT_FOR_PROTOCOL 29 #include "ir_tv_control.h"
#define EXPECTED_MEM_SIZE 1024
#define TAG_INVALID 0xffff
#define MAX_DELAYCODE_NUM 16
#define MAX_BITNUM 16
#define IR_DECODE_FAILED (-1) #define IR_DECODE_FAILED (-1)
#define IR_DECODE_SUCCEEDED (0) #define IR_DECODE_SUCCEEDED (0)
#define AC_PARAMETER_TYPE_1 0 #define EXPECTED_MEM_SIZE 1024
#define AC_PARAMETER_TYPE_2 1
typedef enum
{
AC_POWER_ON = 0,
AC_POWER_OFF,
AC_POWER_MAX
} ac_power;
typedef enum
{
AC_TEMP_16 = 0,
AC_TEMP_17,
AC_TEMP_18,
AC_TEMP_19,
AC_TEMP_20,
AC_TEMP_21,
AC_TEMP_22,
AC_TEMP_23,
AC_TEMP_24,
AC_TEMP_25,
AC_TEMP_26,
AC_TEMP_27,
AC_TEMP_28,
AC_TEMP_29,
AC_TEMP_30,
AC_TEMP_MAX
} ac_temperature;
typedef enum
{
AC_MODE_COOL = 0,
AC_MODE_HEAT,
AC_MODE_AUTO,
AC_MODE_FAN,
AC_MODE_DRY,
AC_MODE_MAX
} ac_mode;
typedef enum
{
AC_FUNCTION_POWER = 1,
AC_FUNCTION_MODE,
AC_FUNCTION_TEMPERATURE_UP,
AC_FUNCTION_TEMPERATURE_DOWN,
AC_FUNCTION_WIND_SPEED,
AC_FUNCTION_WIND_SWING,
AC_FUNCTION_WIND_FIX,
AC_FUNCTION_MAX,
} ac_function;
typedef enum
{
AC_WS_AUTO = 0,
AC_WS_LOW,
AC_WS_MEDIUM,
AC_WS_HIGH,
AC_WS_MAX
} ac_wind_speed;
typedef enum
{
AC_SWING_ON = 0,
AC_SWING_OFF,
AC_SWING_MAX
} ac_swing;
typedef enum
{
SWING_TYPE_SWING_ONLY = 0,
SWING_TYPE_NORMAL,
SWING_TYPE_NOT_SPECIFIED,
SWING_TYPE_MAX
} swing_type;
typedef enum
{
TEMP_TYPE_DYNAMIC = 0,
TEMP_TYPE_STATIC,
TEMP_TYPE_MAX,
} temp_type;
// enumeration for application polymorphism
typedef enum
{
AC_APPLY_POWER = 0,
AC_APPLY_MODE,
AC_APPLY_TEMPERATURE_UP,
AC_APPLY_TEMPERATURE_DOWN,
AC_APPLY_WIND_SPEED,
AC_APPLY_WIND_SWING,
AC_APPLY_WIND_FIX,
AC_APPLY_MAX
} ac_apply;
typedef struct _ac_hex
{
UINT8 len;
UINT8 *data;
} ac_hex;
typedef struct _ac_level
{
UINT16 low;
UINT16 high;
} ac_level;
typedef struct _ac_bootcode
{
UINT16 len;
UINT16 data[16];
} ac_bootcode;
typedef struct _ac_delaycode
{
INT16 pos;
UINT16 time[8];
UINT16 time_cnt;
} ac_delaycode;
/*
* the array of tag_100X application data
* seg_len : length for each segment
* byte_pos : the position of update byte
* byte_value : the value to be updated to position
*/
typedef struct _tag_comp_type_1
{
UINT8 seg_len;
UINT8 *segment;
} tag_comp;
typedef struct _tag_swing_info
{
swing_type type;
UINT8 mode_count;
UINT8 dir_index;
} swing_info;
typedef struct _tag_power_1
{
UINT8 len;
tag_comp comp_data[AC_POWER_MAX];
} power_1;
typedef struct _tag_temp_1
{
UINT8 len;
UINT8 type;
tag_comp comp_data[AC_TEMP_MAX];
} temp_1;
typedef struct tag_mode_1
{
UINT8 len;
tag_comp comp_data[AC_MODE_MAX];
} mode_1;
typedef struct tag_speed_1
{
UINT8 len;
tag_comp comp_data[AC_WS_MAX];
} speed_1;
typedef struct tag_swing_1
{
UINT8 len;
UINT16 count;
tag_comp *comp_data;
} swing_1;
typedef struct tag_temp_2
{
UINT8 len;
UINT8 type;
tag_comp comp_data[AC_TEMP_MAX];
} temp_2;
typedef struct tag_mode_2
{
UINT8 len;
tag_comp comp_data[AC_MODE_MAX];
} mode_2;
typedef struct tag_speed_2
{
UINT8 len;
tag_comp comp_data[AC_WS_MAX];
} speed_2;
typedef struct tag_swing_2
{
UINT8 len;
UINT16 count;
tag_comp *comp_data;
} swing_2;
#if defined SUPPORT_HORIZONTAL_SWING
typedef struct tag_horiswing_1
{
UINT16 len;
tag_comp comp_data[AC_HORI_SWING_MAX];
} hori_swing_1;
#endif
typedef struct _tag_checksum_data
{
UINT8 len;
UINT8 type;
UINT8 start_byte_pos;
UINT8 end_byte_pos;
UINT8 checksum_byte_pos;
UINT8 checksum_plus;
UINT8 *spec_pos;
} tag_checksum_data;
typedef struct tag_checksum
{
UINT8 len;
UINT16 count;
tag_checksum_data *checksum_data;
} tchecksum;
typedef struct tag_function_1
{
UINT8 len;
tag_comp comp_data[AC_FUNCTION_MAX - 1];
} function_1;
typedef struct tag_function_2
{
UINT8 len;
tag_comp comp_data[AC_FUNCTION_MAX - 1];
} function_2;
typedef struct tag_solo_code
{
UINT8 len;
UINT8 solo_func_count;
UINT8 solo_function_codes[AC_FUNCTION_MAX - 1];
} solo_code;
typedef struct _ac_bitnum
{
INT16 pos;
UINT16 bits;
} ac_bitnum;
typedef enum
{
N_COOL = 0,
N_HEAT,
N_AUTO,
N_FAN,
N_DRY,
N_MODE_MAX,
} ac_n_mode;
typedef enum
{
CHECKSUM_TYPE_BYTE = 1,
CHECKSUM_TYPE_BYTE_INVERSE,
CHECKSUM_TYPE_HALF_BYTE,
CHECKSUM_TYPE_HALF_BYTE_INVERSE,
CHECKSUM_TYPE_SPEC_HALF_BYTE,
CHECKSUM_TYPE_SPEC_HALF_BYTE_INVERSE,
CHECKSUM_TYPE_SPEC_HALF_BYTE_ONE_BYTE,
CHECKSUM_TYPE_SPEC_HALF_BYTE_INVERSE_ONE_BYTE,
CHECKSUM_TYPE_MAX,
} checksum_type;
typedef struct _ac_n_mode_info
{
UINT8 enable;
UINT8 allspeed;
UINT8 alltemp;
UINT8 temp[AC_TEMP_MAX];
UINT8 temp_cnt;
UINT8 speed[AC_WS_MAX];
UINT8 speed_cnt;
} ac_n_mode_info;
typedef struct ac_protocol
{
UINT8 endian;
// ac_hex default_code;
ac_hex default_code;
ac_level zero;
ac_level one;
ac_bootcode bootcode;
ac_delaycode dc[MAX_DELAYCODE_NUM];
power_1 power1;
temp_1 temp1;
mode_1 mode1;
speed_1 speed1;
swing_1 swing1;
tchecksum checksum;
function_1 function1;
function_2 function2;
temp_2 temp2;
mode_2 mode2;
speed_2 speed2;
swing_2 swing2;
swing_info si;
solo_code sc;
UINT8 swing_status;
BOOL change_wind_direction;
UINT16 dc_cnt;
ac_bitnum bitnum[MAX_BITNUM];
UINT16 bitnum_cnt;
UINT16 repeat_times;
UINT16 frame_length;
ac_n_mode_info n_mode[N_MODE_MAX];
UINT16 code_cnt;
UINT8 lastbit;
UINT16 *time;
UINT8 solo_function_mark;
} protocol;
typedef struct tag_head
{
UINT16 tag;
UINT16 len;
unsigned short offset;
UINT8 *pdata;
} t_tag_head;
struct ir_bin_buffer
{
UINT8 *data;
UINT16 len;
UINT16 offset;
};
typedef struct REMOTE_AC_STATUS
{
UINT8 acPower;
UINT8 acTemp;
UINT8 acMode;
UINT8 acWindDir;
UINT8 acWindSpeed;
UINT8 acDisplay;
UINT8 acSleep;
UINT8 acTimer;
} remote_ac_status_t;
// function polymorphism
typedef INT8 (*lp_apply_ac_parameter)(remote_ac_status_t ac_status, UINT8 function_code);
#define TAG_AC_BOOT_CODE 1
#define TAG_AC_ZERO 2
#define TAG_AC_ONE 3
#define TAG_AC_DELAY_CODE 4
#define TAG_AC_FRAME_LENGTH 5
#define TAG_AC_ENDIAN 6
#define TAG_AC_LASTBIT 7
#define TAG_AC_POWER_1 21
#define TAG_AC_DEFAULT_CODE 22
#define TAG_AC_TEMP_1 23
#define TAG_AC_MODE_1 24
#define TAG_AC_SPEED_1 25
#define TAG_AC_SWING_1 26
#define TAG_AC_CHECKSUM_TYPE 27
#define TAG_AC_SOLO_FUNCTION 28
#define TAG_AC_FUNCTION_1 29
#define TAG_AC_TEMP_2 30
#define TAG_AC_MODE_2 31
#define TAG_AC_SPEED_2 32
#define TAG_AC_SWING_2 33
#define TAG_AC_FUNCTION_2 34
#define TAG_AC_BAN_FUNCTION_IN_COOL_MODE 41
#define TAG_AC_BAN_FUNCTION_IN_HEAT_MODE 42
#define TAG_AC_BAN_FUNCTION_IN_AUTO_MODE 43
#define TAG_AC_BAN_FUNCTION_IN_FAN_MODE 44
#define TAG_AC_BAN_FUNCTION_IN_DRY_MODE 45
#define TAG_AC_SWING_INFO 46
#define TAG_AC_REPEAT_TIMES 47
#define TAG_AC_BITNUM 48
// definition about size
#define PROTOCOL_SIZE (sizeof(protocol))
/* exported variables */
extern UINT8 *ir_hex_code;
extern UINT8 ir_hex_len;
extern protocol *context;
/* exported functions */ /* exported functions */

View File

@@ -140,9 +140,21 @@ static decode_control_block dccb =
.decoded_length = 0, .decoded_length = 0,
}; };
static remote_ac_status_t ac_status =
{
.acPower = AC_POWER_OFF,
.acTemp = AC_TEMP_24,
.acMode = AC_MODE_COOL,
.acWindDir = AC_SWING_ON,
.acWindSpeed = AC_WS_AUTO,
.acDisplay = 0,
.acSleep = 0,
.acTimer = 0,
};
// local function prototypes // local function prototypes
static void IRext_uartDebug(); static void IRext_uartFeedback();
static void ParseSummary(uint8_t* data, uint16_t len); static void ParseSummary(uint8_t* data, uint16_t len);
@@ -258,7 +270,7 @@ static void IRext_processKey(uint8_t ir_type, uint8_t ir_key, char* key_display)
if (dccb.decoded_length > 0) if (dccb.decoded_length > 0)
{ {
LCD_WRITE_STRING(key_display, LCD_PAGE6); LCD_WRITE_STRING(key_display, LCD_PAGE6);
IRext_uartDebug(); IRext_uartFeedback();
} }
else else
{ {
@@ -272,38 +284,21 @@ static void IRext_processKey(uint8_t ir_type, uint8_t ir_key, char* key_display)
} }
// UART operation // UART operation
static void IRext_uartDebug() static void IRext_uartFeedback()
{ {
uint16_t index = 0;
if (dccb.source_code_length > 0) if (dccb.decoded_length > 0)
{ {
// output to UART for (uint16_t index = 0; index < dccb.decoded_length; index++)
char debug[16] = { 0 };
for (index = 0; index < dccb.decoded_length; index++)
{ {
memset(debug, 0x00, 16); WriteBytes((uint8_t*)&dccb.ir_decoded[index], 2);
sprintf(debug, "%d,", dccb.ir_decoded[index]);
UART_WriteTransport((uint8_t*)debug, strlen(debug));
UART_DLY_ms(10); UART_DLY_ms(10);
} }
UART_WriteTransport((uint8_t*)"\n", 1);
} }
} }
static void IRext_processUartMsg(uint8_t* data, uint16_t len) static void IRext_processUartMsg(uint8_t* data, uint16_t len)
{ {
#if defined UART_DEBUG
uint16_t index = 0;
for (index = 0; index < len; index++)
{
PrintValue(" ", data[index], FORMAT_HEX);
UART_DLY_ms(10);
}
PrintString("\n");
#endif
if (NULL == data) if (NULL == data)
{ {
return; return;
@@ -314,19 +309,22 @@ static void IRext_processUartMsg(uint8_t* data, uint16_t len)
if (HEADER_SR == header) if (HEADER_SR == header)
{ {
// since there is 1 more byte for eos LCD_WRITE_STRING("PARSE SUMMARY", LCD_PAGE6);
ParseSummary(&data[1], len - 2); ParseSummary(&data[1], len - 2);
} }
else if (HEADER_BT == header) else if (HEADER_BT == header)
{ {
LCD_WRITE_STRING("PARSE BINARY", LCD_PAGE6);
ParseBinary(&data[1], len - 1); ParseBinary(&data[1], len - 1);
} }
else if (HEADER_CMD == header) else if (HEADER_CMD == header)
{ {
LCD_WRITE_STRING("PARSE COMMAND", LCD_PAGE6);
ParseCommand(&data[1], len - 1); ParseCommand(&data[1], len - 1);
} }
else else
{ {
LCD_WRITE_STRING("ERROR MESSAGE", LCD_PAGE6);
// invalid header // invalid header
} }
} }
@@ -373,7 +371,10 @@ static void ParseBinary(uint8_t* data, uint16_t len)
{ {
// finish binary transfer // finish binary transfer
dccb.source_code_length = btcb.binary_recv_length; dccb.source_code_length = btcb.binary_recv_length;
LCD_WRITE_STRING("IR READY", LCD_PAGE7);
HalLedSet(HAL_LED_1 | HAL_LED_2, HAL_LED_MODE_OFF);
dccb.ir_state = IR_STATE_READY; dccb.ir_state = IR_STATE_READY;
btcb.transfer_on_going = 0; btcb.transfer_on_going = 0;
} }
// feed back next expected offset in any cases // feed back next expected offset in any cases
@@ -382,7 +383,40 @@ static void ParseBinary(uint8_t* data, uint16_t len)
static void ParseCommand(uint8_t* data, uint16_t len) static void ParseCommand(uint8_t* data, uint16_t len)
{ {
// TODO: uint8 ir_type = 0;
uint8 key_code = 0;
uint8 ac_function = 0;
if (IR_STATE_PARSED != dccb.ir_state)
{
// feek back error state
WriteBytes("11", 2);
return;
}
ir_type = data[0];
if (IR_TYPE_TV == dccb.ir_type && 0x31 == ir_type)
{
// decode as TV
key_code = data[1] - 0x30;
dccb.decoded_length = ir_tv_lib_control(key_code, dccb.ir_decoded);
}
else if (IR_TYPE_AC == dccb.ir_type && 0x32 == ir_type)
{
ac_function = data[1] - 0x30;
dccb.decoded_length = ir_ac_lib_control(ac_status, dccb.ir_decoded, ac_function, 0);
}
if (dccb.decoded_length > 0)
{
LCD_WRITE_STRING("decoded", LCD_PAGE6);
IRext_uartFeedback();
}
else
{
LCD_WRITE_STRING("ERROR", LCD_PAGE6);
}
} }
void TransportDataToUart(uint8_t* data, uint16_t len) void TransportDataToUart(uint8_t* data, uint16_t len)