mirror of
https://github.com/CTCaer/hekate
synced 2024-12-22 03:11:16 +00:00
397 lines
12 KiB
C
397 lines
12 KiB
C
/*
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* Copyright (c) 2018 naehrwert
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* Copyright (c) 2018-2022 CTCaer
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*
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* This program is free software; you can redistribute it and/or modify it
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* under the terms and conditions of the GNU General Public License,
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* version 2, as published by the Free Software Foundation.
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*
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* This program is distributed in the hope it will be useful, but WITHOUT
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* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
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* FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for
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* more details.
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*
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* You should have received a copy of the GNU General Public License
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* along with this program. If not, see <http://www.gnu.org/licenses/>.
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*/
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#include <string.h>
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#include <bdk.h>
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#include "fe_info.h"
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#include "../config.h"
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#include "../hos/hos.h"
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#include "../hos/pkg1.h"
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#include <libs/fatfs/ff.h>
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extern hekate_config h_cfg;
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#pragma GCC push_options
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#pragma GCC optimize ("Os")
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void print_fuseinfo()
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{
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u32 fuse_size = h_cfg.t210b01 ? 0x368 : 0x300;
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u32 fuse_address = h_cfg.t210b01 ? 0x7000F898 : 0x7000F900;
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gfx_clear_partial_grey(0x1B, 0, 1256);
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gfx_con_setpos(0, 0);
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gfx_printf("\nSKU: %X - ", FUSE(FUSE_SKU_INFO));
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switch (fuse_read_hw_state())
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{
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case FUSE_NX_HW_STATE_PROD:
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gfx_printf("Retail\n");
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break;
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case FUSE_NX_HW_STATE_DEV:
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gfx_printf("Dev\n");
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break;
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}
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gfx_printf("Sdram ID: %d\n", fuse_read_dramid(true));
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gfx_printf("Burnt fuses: %d / 64\n", bit_count(fuse_read_odm(7)));
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gfx_printf("Secure key: %08X%08X%08X%08X\n\n\n",
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byte_swap_32(FUSE(FUSE_PRIVATE_KEY0)), byte_swap_32(FUSE(FUSE_PRIVATE_KEY1)),
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byte_swap_32(FUSE(FUSE_PRIVATE_KEY2)), byte_swap_32(FUSE(FUSE_PRIVATE_KEY3)));
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gfx_printf("%kFuse cache:\n\n%k", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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gfx_hexdump(fuse_address, (u8 *)fuse_address, fuse_size);
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btn_wait();
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}
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void print_mmc_info()
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{
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gfx_clear_partial_grey(0x1B, 0, 1256);
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gfx_con_setpos(0, 0);
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static const u32 SECTORS_TO_MIB_COEFF = 11;
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if (!emmc_initialize(false))
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{
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EPRINTF("Failed to init eMMC.");
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goto out;
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}
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else
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{
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u16 card_type;
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u32 speed = 0;
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gfx_printf("%kCID:%k\n", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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switch (emmc_storage.csd.mmca_vsn)
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{
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case 2: /* MMC v2.0 - v2.2 */
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case 3: /* MMC v3.1 - v3.3 */
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case 4: /* MMC v4 */
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gfx_printf(
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" Vendor ID: %X\n"
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" OEM ID: %02X\n"
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" Model: %c%c%c%c%c%c\n"
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" Prd Rev: %X\n"
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" S/N: %04X\n"
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" Month/Year: %02d/%04d\n\n",
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emmc_storage.cid.manfid, emmc_storage.cid.oemid,
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emmc_storage.cid.prod_name[0], emmc_storage.cid.prod_name[1], emmc_storage.cid.prod_name[2],
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emmc_storage.cid.prod_name[3], emmc_storage.cid.prod_name[4], emmc_storage.cid.prod_name[5],
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emmc_storage.cid.prv, emmc_storage.cid.serial, emmc_storage.cid.month, emmc_storage.cid.year);
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break;
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default:
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break;
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}
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if (emmc_storage.csd.structure == 0)
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EPRINTF("Unknown CSD structure.");
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else
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{
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gfx_printf("%kExtended CSD V1.%d:%k\n",
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TXT_CLR_CYAN_L, emmc_storage.ext_csd.ext_struct, TXT_CLR_DEFAULT);
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card_type = emmc_storage.ext_csd.card_type;
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char card_type_support[96];
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card_type_support[0] = 0;
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if (card_type & EXT_CSD_CARD_TYPE_HS_26)
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{
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strcat(card_type_support, "HS26");
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speed = (26 << 16) | 26;
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}
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if (card_type & EXT_CSD_CARD_TYPE_HS_52)
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{
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strcat(card_type_support, ", HS52");
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speed = (52 << 16) | 52;
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}
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if (card_type & EXT_CSD_CARD_TYPE_DDR_1_8V)
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{
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strcat(card_type_support, ", DDR52_1.8V");
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speed = (52 << 16) | 104;
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}
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if (card_type & EXT_CSD_CARD_TYPE_HS200_1_8V)
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{
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strcat(card_type_support, ", HS200_1.8V");
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speed = (200 << 16) | 200;
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}
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if (card_type & EXT_CSD_CARD_TYPE_HS400_1_8V)
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{
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strcat(card_type_support, ", HS400_1.8V");
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speed = (200 << 16) | 400;
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}
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gfx_printf(
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" Spec Version: %02X\n"
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" Extended Rev: 1.%d\n"
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" Dev Version: %d\n"
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" Cmd Classes: %02X\n"
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" Capacity: %s\n"
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" Max Rate: %d MB/s (%d MHz)\n"
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" Current Rate: %d MB/s\n"
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" Type Support: ",
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emmc_storage.csd.mmca_vsn, emmc_storage.ext_csd.rev, emmc_storage.ext_csd.dev_version, emmc_storage.csd.cmdclass,
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emmc_storage.csd.capacity == (4096 * EMMC_BLOCKSIZE) ? "High" : "Low", speed & 0xFFFF, (speed >> 16) & 0xFFFF,
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emmc_storage.csd.busspeed);
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gfx_con.fntsz = 8;
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gfx_printf("%s", card_type_support);
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gfx_con.fntsz = 16;
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gfx_printf("\n\n", card_type_support);
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u32 boot_size = emmc_storage.ext_csd.boot_mult << 17;
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u32 rpmb_size = emmc_storage.ext_csd.rpmb_mult << 17;
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gfx_printf("%keMMC Partitions:%k\n", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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gfx_printf(" 1: %kBOOT0 %k\n Size: %5d KiB (LBA Sectors: 0x%07X)\n", TXT_CLR_GREENISH, TXT_CLR_DEFAULT,
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boot_size / 1024, boot_size / EMMC_BLOCKSIZE);
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gfx_put_small_sep();
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gfx_printf(" 2: %kBOOT1 %k\n Size: %5d KiB (LBA Sectors: 0x%07X)\n", TXT_CLR_GREENISH, TXT_CLR_DEFAULT,
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boot_size / 1024, boot_size / EMMC_BLOCKSIZE);
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gfx_put_small_sep();
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gfx_printf(" 3: %kRPMB %k\n Size: %5d KiB (LBA Sectors: 0x%07X)\n", TXT_CLR_GREENISH, TXT_CLR_DEFAULT,
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rpmb_size / 1024, rpmb_size / EMMC_BLOCKSIZE);
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gfx_put_small_sep();
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gfx_printf(" 0: %kGPP (USER) %k\n Size: %5d MiB (LBA Sectors: 0x%07X)\n\n", TXT_CLR_GREENISH, TXT_CLR_DEFAULT,
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emmc_storage.sec_cnt >> SECTORS_TO_MIB_COEFF, emmc_storage.sec_cnt);
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gfx_put_small_sep();
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gfx_printf("%kGPP (eMMC USER) partition table:%k\n", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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emmc_set_partition(EMMC_GPP);
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LIST_INIT(gpt);
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emmc_gpt_parse(&gpt);
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int gpp_idx = 0;
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LIST_FOREACH_ENTRY(emmc_part_t, part, &gpt, link)
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{
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gfx_printf(" %02d: %k%s%k\n Size: % 5d MiB (LBA Sectors 0x%07X)\n LBA Range: %08X-%08X\n",
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gpp_idx++, TXT_CLR_GREENISH, part->name, TXT_CLR_DEFAULT, (part->lba_end - part->lba_start + 1) >> SECTORS_TO_MIB_COEFF,
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part->lba_end - part->lba_start + 1, part->lba_start, part->lba_end);
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gfx_put_small_sep();
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}
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emmc_gpt_free(&gpt);
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}
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}
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out:
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emmc_end();
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btn_wait();
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}
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void print_sdcard_info()
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{
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static const u32 SECTORS_TO_MIB_COEFF = 11;
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gfx_clear_partial_grey(0x1B, 0, 1256);
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gfx_con_setpos(0, 0);
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if (sd_initialize(false))
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{
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gfx_printf("%kCard IDentification:%k\n", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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gfx_printf(
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" Vendor ID: %02x\n"
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" OEM ID: %c%c\n"
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" Model: %c%c%c%c%c\n"
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" HW rev: %X\n"
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" FW rev: %X\n"
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" S/N: %08x\n"
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" Month/Year: %02d/%04d\n\n",
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sd_storage.cid.manfid, (sd_storage.cid.oemid >> 8) & 0xFF, sd_storage.cid.oemid & 0xFF,
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sd_storage.cid.prod_name[0], sd_storage.cid.prod_name[1], sd_storage.cid.prod_name[2],
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sd_storage.cid.prod_name[3], sd_storage.cid.prod_name[4],
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sd_storage.cid.hwrev, sd_storage.cid.fwrev, sd_storage.cid.serial,
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sd_storage.cid.month, sd_storage.cid.year);
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u16 *sd_errors = sd_get_error_count();
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gfx_printf("%kCard-Specific Data V%d.0:%k\n", TXT_CLR_CYAN_L, sd_storage.csd.structure + 1, TXT_CLR_DEFAULT);
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gfx_printf(
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" Cmd Classes: %02X\n"
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" Capacity: %d MiB\n"
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" Bus Width: %d\n"
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" Current Rate: %d MB/s (%d MHz)\n"
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" Speed Class: %d\n"
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" UHS Grade: U%d\n"
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" Video Class: V%d\n"
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" App perf class: A%d\n"
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" Write Protect: %d\n"
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" SDMMC Errors: %d %d %d\n\n",
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sd_storage.csd.cmdclass, sd_storage.sec_cnt >> 11,
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sd_storage.ssr.bus_width, sd_storage.csd.busspeed, sd_storage.csd.busspeed * 2,
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sd_storage.ssr.speed_class, sd_storage.ssr.uhs_grade, sd_storage.ssr.video_class,
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sd_storage.ssr.app_class, sd_storage.csd.write_protect,
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sd_errors[0], sd_errors[1], sd_errors[2]); // SD_ERROR_INIT_FAIL, SD_ERROR_RW_FAIL, SD_ERROR_RW_RETRY.
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int res = f_mount(&sd_fs, "", 1);
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if (!res)
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{
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gfx_puts("Acquiring FAT volume info...\n\n");
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f_getfree("", &sd_fs.free_clst, NULL);
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gfx_printf("%kFound %s volume:%k\n Free: %d MiB\n Cluster: %d KiB\n",
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TXT_CLR_CYAN_L, sd_fs.fs_type == FS_EXFAT ? "exFAT" : "FAT32", TXT_CLR_DEFAULT,
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sd_fs.free_clst * sd_fs.csize >> SECTORS_TO_MIB_COEFF, (sd_fs.csize > 1) ? (sd_fs.csize >> 1) : 512);
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f_mount(NULL, "", 1);
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}
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else
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{
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EPRINTFARGS("Failed to mount SD card (FatFS Error %d).\n"
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"Make sure that a FAT partition exists..", res);
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}
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sd_end();
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}
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else
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{
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EPRINTF("Failed to init SD card.");
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if (!sdmmc_get_sd_inserted())
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EPRINTF("Make sure that it is inserted.");
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else
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EPRINTF("SD Card Reader is not properly seated!");
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sd_end();
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}
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btn_wait();
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}
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void print_fuel_gauge_info()
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{
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int value = 0;
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gfx_printf("%kFuel Gauge Info:\n%k", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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max17050_get_property(MAX17050_RepSOC, &value);
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gfx_printf("Capacity now: %3d%\n", value >> 8);
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max17050_get_property(MAX17050_RepCap, &value);
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gfx_printf("Capacity now: %4d mAh\n", value);
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max17050_get_property(MAX17050_FullCAP, &value);
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gfx_printf("Capacity full: %4d mAh\n", value);
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max17050_get_property(MAX17050_DesignCap, &value);
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gfx_printf("Capacity (design): %4d mAh\n", value);
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max17050_get_property(MAX17050_Current, &value);
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gfx_printf("Current now: %d mA\n", value / 1000);
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max17050_get_property(MAX17050_AvgCurrent, &value);
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gfx_printf("Current average: %d mA\n", value / 1000);
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max17050_get_property(MAX17050_VCELL, &value);
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gfx_printf("Voltage now: %4d mV\n", value);
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max17050_get_property(MAX17050_OCVInternal, &value);
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gfx_printf("Voltage open-circuit: %4d mV\n", value);
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max17050_get_property(MAX17050_MinVolt, &value);
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gfx_printf("Min voltage reached: %4d mV\n", value);
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max17050_get_property(MAX17050_MaxVolt, &value);
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gfx_printf("Max voltage reached: %4d mV\n", value);
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max17050_get_property(MAX17050_V_empty, &value);
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gfx_printf("Empty voltage (design): %4d mV\n", value);
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max17050_get_property(MAX17050_TEMP, &value);
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gfx_printf("Battery temperature: %d.%d oC\n", value / 10,
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(value >= 0 ? value : (~value)) % 10);
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}
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void print_battery_charger_info()
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{
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int value = 0;
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gfx_printf("%k\n\nBattery Charger Info:\n%k", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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bq24193_get_property(BQ24193_InputCurrentLimit, &value);
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gfx_printf("Input current limit: %4d mA\n", value);
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bq24193_get_property(BQ24193_SystemMinimumVoltage, &value);
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gfx_printf("System voltage limit: %4d mV\n", value);
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bq24193_get_property(BQ24193_FastChargeCurrentLimit, &value);
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gfx_printf("Charge current limit: %4d mA\n", value);
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bq24193_get_property(BQ24193_ChargeVoltageLimit, &value);
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gfx_printf("Charge voltage limit: %4d mV\n", value);
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bq24193_get_property(BQ24193_ChargeStatus, &value);
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gfx_printf("Charge status: ");
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switch (value)
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{
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case 0:
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gfx_printf("Not charging\n");
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break;
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case 1:
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gfx_printf("Pre-charging\n");
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break;
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case 2:
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gfx_printf("Fast charging\n");
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break;
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case 3:
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gfx_printf("Charge terminated\n");
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break;
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default:
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gfx_printf("Unknown (%d)\n", value);
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break;
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}
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bq24193_get_property(BQ24193_TempStatus, &value);
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gfx_printf("Temperature status: ");
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switch (value)
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{
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case 0:
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gfx_printf("Normal\n");
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break;
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case 2:
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gfx_printf("Warm\n");
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break;
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case 3:
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gfx_printf("Cool\n");
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break;
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case 5:
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gfx_printf("Cold\n");
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break;
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case 6:
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gfx_printf("Hot\n");
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break;
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default:
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gfx_printf("Unknown (%d)\n", value);
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break;
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}
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}
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void print_battery_info()
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{
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gfx_clear_partial_grey(0x1B, 0, 1256);
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gfx_con_setpos(0, 0);
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print_fuel_gauge_info();
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print_battery_charger_info();
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u8 *buf = (u8 *)malloc(0x100 * 2);
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gfx_printf("%k\n\nBattery Fuel Gauge Registers:\n%k", TXT_CLR_CYAN_L, TXT_CLR_DEFAULT);
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for (int i = 0; i < 0x200; i += 2)
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{
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i2c_recv_buf_small(buf + i, 2, I2C_1, MAXIM17050_I2C_ADDR, i >> 1);
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usleep(2500);
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}
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gfx_hexdump(0, (u8 *)buf, 0x200);
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btn_wait();
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}
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#pragma GCC pop_options
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