-d $< $@
$(obj)u-boot.sha1: $(obj)u-boot.bin
- ./tools/ubsha1 $(obj)u-boot.bin
+ $(obj)./tools/ubsha1 $(obj)u-boot.bin
$(obj)u-boot.dis: $(obj)u-boot
$(OBJDUMP) -d $< > $@
case FLASH_MAN_AMD: printf ("AMD "); break;
case FLASH_MAN_FUJ: printf ("FUJITSU "); break;
case FLASH_MAN_SST: printf ("SST "); break;
+ case FLASH_MAN_STM: printf ("ST Micro"); break;
case FLASH_MAN_EXCEL: printf ("Excel Semiconductor "); break;
case FLASH_MAN_MX: printf ("MXIC "); break;
default: printf ("Unknown Vendor "); break;
break;
case FLASH_SST040: printf ("SST39LF/VF040 (4 Mbit, uniform sector size)\n");
break;
+ case STM_ID_M29W040B: printf ("ST Micro M29W040B (4 Mbit, uniform sector size)\n");
+ break;
default: printf ("Unknown Chip Type\n");
break;
}
case (CFG_FLASH_WORD_SIZE)SST_MANUFACT:
info->flash_id = FLASH_MAN_SST;
break;
+ case (CFG_FLASH_WORD_SIZE)STM_MANUFACT:
+ info->flash_id = FLASH_MAN_STM;
+ break;
case (CFG_FLASH_WORD_SIZE)EXCEL_MANUFACT:
info->flash_id = FLASH_MAN_EXCEL;
break;
info->sector_count = 8;
info->size = 0x0080000; /* => 0.5 MB */
break;
+ case (CFG_FLASH_WORD_SIZE)STM_ID_M29W040B:
+ info->flash_id += FLASH_AM040;
+ info->sector_count = 8;
+ info->size = 0x0080000; /* => 0,5 MB */
+ break;
case (CFG_FLASH_WORD_SIZE)AMD_ID_LV800T:
info->flash_id += FLASH_AM800T;
/* set all LED which are on, to state BLINKING */
for (i = 0; i < 4; i++) {
- if (val & 0x08) status_led_set (i, STATUS_LED_BLINKING);
- val = val << 1;
+ if (val & 0x01) status_led_set (3 - i, STATUS_LED_BLINKING);
+ else status_led_set (3 - i, STATUS_LED_OFF);
+ val = val >> 1;
}
}
status_led_set (1, STATUS_LED_ON);
status_led_set (2, STATUS_LED_ON);
break;
+#if 0
case 64:
/* starting Ethernet configuration */
status_led_set (0, STATUS_LED_OFF);
status_led_set (1, STATUS_LED_OFF);
status_led_set (2, STATUS_LED_ON);
break;
+#endif
case 80:
/* loading Image */
status_led_set (0, STATUS_LED_ON);
int ret;
char *cs_test;
+ status_led_set (0, STATUS_LED_OFF);
+ status_led_set (1, STATUS_LED_OFF);
+ status_led_set (2, STATUS_LED_ON);
ret = pcs440ep_sha1 (1);
if (ret == 0) return;
************************************************************************/
int do_led (cmd_tbl_t *cmdtp, int flag, int argc, char *argv[])
{
- int rcode = 0;
+ int rcode = 0, i;
ulong pattern = 0;
- pattern = simple_strtoul (argv[1], NULL, 10);
- if (pattern > 200) {
+ pattern = simple_strtoul (argv[1], NULL, 16);
+ if (pattern > 0x400) {
+ int val = GET_LEDS;
+ printf ("led: %x\n", val);
+ return rcode;
+ }
+ if (pattern > 0x200) {
status_led_blink ();
hang ();
return rcode;
}
- if (pattern > 100) {
+ if (pattern > 0x100) {
status_led_blink ();
return rcode;
}
pattern &= 0x0f;
- set_leds (pattern);
+ for (i = 0; i < 4; i++) {
+ if (pattern & 0x01) status_led_set (i, STATUS_LED_ON);
+ else status_led_set (i, STATUS_LED_OFF);
+ pattern = pattern >> 1;
+ }
return rcode;
}
U_BOOT_CMD(
led, 2, 1, do_led,
- "led - set the led\n",
- NULL
+ "led [bitmask] - set the DIAG-LED\n",
+ "[bitmask] 0x01 = DIAG 1 on\n"
+ " 0x02 = DIAG 2 on\n"
+ " 0x04 = DIAG 3 on\n"
+ " 0x08 = DIAG 4 on\n"
+ " > 0x100 set the LED, who are on, to state blinking\n"
);
#if defined(CONFIG_SHA1_CHECK_UB_IMG)
--- /dev/null
+SHA1 usage:
+-----------
+
+In the U-Boot Image for the pcs440ep board is a SHA1 checksum integrated.
+This SHA1 sum is used, to check, if the U-Boot Image in Flash is not
+corrupted.
+
+The following command is available:
+
+=> help sha1
+sha1 address len [addr] calculate the SHA1 sum [save at addr]
+ -p calculate the SHA1 sum from the U-Boot image in flash and print
+ -c check the U-Boot image in flash
+
+"sha1 -p"
+ calculates and prints the SHA1 sum, from the Image stored in Flash
+
+"sha1 -c"
+ check, if the SHA1 sum from the Image stored in Flash is correct
+
+
+It is possible to calculate a SHA1 checksum from a memoryrange with:
+
+"sha1 address len"
+
+If you want to store a new Image in Flash for the pcs440ep board,
+which has no SHA1 sum, you can do the following:
+
+a) cp the new Image on a position in RAM (here 0x300000)
+ (for this example we use the Image from Flash, stored at 0xfffa0000 and
+ 0x60000 Bytes long)
+
+"cp.b fffa0000 300000 60000"
+
+b) Initialize the SHA1 sum in the Image with 0x00
+ The SHA1 sum is stored in Flash at:
+ CFG_MONITOR_BASE + CFG_MONITOR_LEN + SHA1_SUM_POS
+ for the pcs440ep Flash: 0xfffa0000 + 0x60000 + -0x20
+ = 0xffffffe0
+ for the example in RAM: 0x300000 + 0x60000 + -0x20
+ = 0x35ffe0
+
+ note: a SHA1 checksum is 20 bytes long.
+
+"mw.b 35ffe0 0 14"
+
+c) now calculate the SHA1 sum from the memoryrange and write
+ the calculated checksum at the right place:
+
+"sha1 300000 60000 35ffe0"
+
+Now you have a U-Boot-Image for the pcs440ep board with the correct SHA1 sum.
+
+If you do a "./MAKEALL pcs440ep" or a "make all" to get the U-Boot image,
+the correct SHA1 sum will be automagically included in the U-Boot image.
+
+Heiko Schocher, 11 Jul 2007
#define CONFIG_STATUS_LED 1 /* Status LED enabled */
#define CONFIG_BOARD_SPECIFIC_LED 1
-#define STATUS_LED_BIT 0x08 /* LED 1 is on GPIO_PPC_1 */
+#define STATUS_LED_BIT 0x08 /* DIAG1 is on GPIO_PPC_1 */
#define STATUS_LED_PERIOD ((CFG_HZ / 2) / 5) /* blink at 5 Hz */
#define STATUS_LED_STATE STATUS_LED_OFF
-#define STATUS_LED_BIT1 0x04 /* LED 2 is on GPIO_PPC_2 */
+#define STATUS_LED_BIT1 0x04 /* DIAG2 is on GPIO_PPC_2 */
#define STATUS_LED_PERIOD1 ((CFG_HZ / 2) / 5) /* blink at 5 Hz */
#define STATUS_LED_STATE1 STATUS_LED_ON
-#define STATUS_LED_BIT2 0x02 /* LED 3 is on GPIO_PPC_3 */
+#define STATUS_LED_BIT2 0x02 /* DIAG3 is on GPIO_PPC_3 */
#define STATUS_LED_PERIOD2 ((CFG_HZ / 2) / 5) /* blink at 5 Hz */
#define STATUS_LED_STATE2 STATUS_LED_OFF
-#define STATUS_LED_BIT3 0x01 /* LED 4 is on GPIO_PPC_4 */
+#define STATUS_LED_BIT3 0x01 /* DIAG4 is on GPIO_PPC_4 */
#define STATUS_LED_PERIOD3 ((CFG_HZ / 2) / 5) /* blink at 5 Hz */
#define STATUS_LED_STATE3 STATUS_LED_OFF
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