Search the available CHIDs to determine the device on which U-Boot is running. Use this to select the correct compatible string. Signed-off-by: Simon Glass <sjg@chromium.org>
393 lines
11 KiB
C
393 lines
11 KiB
C
// SPDX-License-Identifier: GPL-2.0+
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/*
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* Tests for Computer Hardware Identifiers (Windows CHID) support
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*
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* Copyright 2025 Simon Glass <sjg@chromium.org>
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*/
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#include <chid.h>
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#include <smbios.h>
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#include <string.h>
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#include <asm/global_data.h>
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#include <dm/ofnode.h>
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#include <test/lib.h>
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#include <test/test.h>
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#include <test/ut.h>
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#include <u-boot/uuid.h>
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DECLARE_GLOBAL_DATA_PTR;
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static int chid_basic(struct unit_test_state *uts)
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{
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struct chid_data data = {
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.manuf = "Test Manufacturer",
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.product_name = "Test Product",
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.family = "Test Family",
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.product_sku = "Test SKU",
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.bios_vendor = "Test BIOS Vendor",
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.bios_version = "1.0.0",
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.bios_major = 1,
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.bios_minor = 0,
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};
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u8 chid[UUID_LEN];
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/* Test HardwareID-00 (most specific) */
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ut_assertok(chid_generate(CHID_00, &data, chid));
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/* The CHID should not be all zeros */
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u8 zero_chid[UUID_LEN] = {0};
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ut_assert(memcmp(chid, zero_chid, UUID_LEN));
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return 0;
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}
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LIB_TEST(chid_basic, 0);
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static int chid_variants(struct unit_test_state *uts)
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{
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struct chid_data data = {
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.manuf = "Dell Inc.",
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.product_name = "OptiPlex 7090",
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.family = "OptiPlex",
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.product_sku = "0A5C",
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.bios_vendor = "Dell Inc.",
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.bios_version = "1.12.0",
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.bios_major = 1,
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.bios_minor = 12,
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.enclosure_type = 3,
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};
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u8 chid0[UUID_LEN], chid1[UUID_LEN], chid14[UUID_LEN];
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/* Test different variants produce different CHIDs */
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ut_assertok(chid_generate(CHID_00, &data, chid0));
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ut_assertok(chid_generate(CHID_01, &data, chid1));
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ut_assertok(chid_generate(CHID_14, &data, chid14));
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/* All CHIDs should be different */
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ut_assert(memcmp(chid0, chid1, UUID_LEN));
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ut_assert(memcmp(chid0, chid14, UUID_LEN));
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ut_assert(memcmp(chid1, chid14, UUID_LEN));
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return 0;
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}
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LIB_TEST(chid_variants, 0);
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static int chid_missing_fields(struct unit_test_state *uts)
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{
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struct chid_data data = {
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.manuf = "Test Manufacturer",
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/* Missing other fields */
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};
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struct chid_data empty_data = {0};
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u8 chid[UUID_LEN];
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/* Test HardwareID-14 (manufacturer only) should work */
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ut_assertok(chid_generate(CHID_14, &data, chid));
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/*
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* Test HardwareID-05 (requires string fields only) with completely
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* empty data should fail
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*/
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ut_asserteq(-ENODATA, chid_generate(CHID_05, &empty_data, chid));
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/* Test HardwareID-14 with empty data should also fail */
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ut_asserteq(-ENODATA, chid_generate(CHID_14, &empty_data, chid));
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return 0;
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}
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LIB_TEST(chid_missing_fields, 0);
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static int chid_invalid_params(struct unit_test_state *uts)
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{
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struct chid_data data = {
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.manuf = "Test Manufacturer",
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};
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u8 chid[UUID_LEN];
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/* Test invalid variant number */
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ut_asserteq(-EINVAL, chid_generate(-1, &data, chid));
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ut_asserteq(-EINVAL, chid_generate(15, &data, chid));
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/* Test NULL data */
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ut_asserteq(-EINVAL, chid_generate(CHID_00, NULL, chid));
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/* Test NULL chid output buffer */
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ut_asserteq(-EINVAL, chid_generate(CHID_00, &data, NULL));
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return 0;
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}
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LIB_TEST(chid_invalid_params, 0);
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static int chid_consistent(struct unit_test_state *uts)
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{
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struct chid_data data = {
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.manuf = "ACME Corp",
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.product_name = "Widget Pro",
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.bios_vendor = "ACME BIOS",
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.bios_version = "2.1.0",
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.bios_major = 2,
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.bios_minor = 1,
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};
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u8 chid1[UUID_LEN], chid2[UUID_LEN];
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char chid1_str[UUID_STR_LEN + 1], chid2_str[UUID_STR_LEN + 1];
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/* Generate the same CHID twice - should be identical */
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ut_assertok(chid_generate(CHID_02, &data, chid1));
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ut_assertok(chid_generate(CHID_02, &data, chid2));
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/* CHIDs should be identical for same input */
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uuid_bin_to_str(chid1, chid1_str, UUID_STR_FORMAT_STD);
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uuid_bin_to_str(chid2, chid2_str, UUID_STR_FORMAT_STD);
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ut_asserteq_str(chid1_str, chid2_str);
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return 0;
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}
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LIB_TEST(chid_consistent, 0);
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static int chid_numeric(struct unit_test_state *uts)
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{
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struct chid_data data = {
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.manuf = "Test Corp",
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.bios_major = 255,
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.bios_minor = 127,
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.enclosure_type = 99,
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};
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u8 zero_chid[UUID_LEN] = {0};
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u8 chid[UUID_LEN];
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/* Test with numeric fields only (manufacturer + numeric values) */
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/* HardwareID-12: Manufacturer + Enclosure Type */
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ut_assertok(chid_generate(CHID_12, &data, chid));
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/* CHID should be generated successfully */
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ut_assert(memcmp(chid, zero_chid, UUID_LEN));
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return 0;
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}
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LIB_TEST(chid_numeric, 0);
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static int chid_real(struct unit_test_state *uts)
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{
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/*
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* Real data from Lenovo ThinkPad X13s Gen 1 (21BXCTO1WW)
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* Test against actual CHIDs from Microsoft's ComputerHardwareIds.exe
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* output
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*/
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struct chid_data data = {
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.manuf = "LENOVO",
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.family = "ThinkPad X13s Gen 1",
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.product_name = "21BXCTO1WW",
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.product_sku = "LENOVO_MT_21BX_BU_Think_FM_ThinkPad X13s Gen 1",
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.board_manuf = "LENOVO",
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.board_product = "21BXCTO1WW",
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.bios_vendor = "LENOVO",
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.bios_version = "N3HET88W (1.60 )",
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.bios_major = 1,
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.bios_minor = 60,
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.enclosure_type = 0x0a,
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};
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u8 chid[UUID_LEN];
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char chid_str[UUID_STR_LEN + 1];
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/* Test HardwareID-14 (Manufacturer only) */
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ut_assertok(chid_generate(CHID_14, &data, chid));
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uuid_bin_to_str(chid, chid_str, UUID_STR_FORMAT_STD);
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ut_asserteq_str("6de5d951-d755-576b-bd09-c5cf66b27234", chid_str);
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/* Test HardwareID-11 (Manufacturer + Family) */
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ut_assertok(chid_generate(CHID_11, &data, chid));
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uuid_bin_to_str(chid, chid_str, UUID_STR_FORMAT_STD);
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ut_asserteq_str("f249803d-0d95-54f3-a28f-f26c14a03f3b", chid_str);
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/* Test HardwareID-12 (Manufacturer + EnclosureKind) */
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ut_assertok(chid_generate(CHID_12, &data, chid));
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uuid_bin_to_str(chid, chid_str, UUID_STR_FORMAT_STD);
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ut_asserteq_str("5e820764-888e-529d-a6f9-dfd12bacb160", chid_str);
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/*
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* Test HardwareID-13 (Manufacturer + BaseboardManufacturer +
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* BaseboardProduct)
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*/
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ut_assertok(chid_generate(CHID_13, &data, chid));
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uuid_bin_to_str(chid, chid_str, UUID_STR_FORMAT_STD);
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ut_asserteq_str("156c9b34-bedb-5bfd-ae1f-ef5d2a994967", chid_str);
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return 0;
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}
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LIB_TEST(chid_real, 0);
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static int chid_exact(struct unit_test_state *uts)
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{
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/*
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* Test exact CHID matching against Microsoft's ComputerHardwareIds.exe
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* Using Lenovo ThinkPad X13s Gen 1 data from reference file
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* Expected CHID for HardwareID-14 (Manufacturer only):
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* {6de5d951-d755-576b-bd09-c5cf66b27234}
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*/
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struct chid_data data = {
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.manuf = "LENOVO",
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.family = "ThinkPad X13s Gen 1",
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.product_name = "21BXCTO1WW",
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.product_sku = "LENOVO_MT_21BX_BU_Think_FM_ThinkPad X13s Gen 1",
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.board_manuf = "LENOVO",
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.board_product = "21BXCTO1WW",
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.bios_vendor = "LENOVO",
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.bios_version = "N3HET88W (1.60 )",
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.bios_major = 1,
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.bios_minor = 60,
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.enclosure_type = 0x0a,
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};
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char chid_str[UUID_STR_LEN + 1];
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u8 chid[UUID_LEN];
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/* Test HardwareID-14 (Manufacturer only) */
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ut_assertok(chid_generate(CHID_14, &data, chid));
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/* Convert CHID to string and compare with expected GUID string */
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uuid_bin_to_str(chid, chid_str, UUID_STR_FORMAT_STD);
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ut_asserteq_str("6de5d951-d755-576b-bd09-c5cf66b27234", chid_str);
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return 0;
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}
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LIB_TEST(chid_exact, 0);
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static int chid_test_select(struct unit_test_state *uts)
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{
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const char *compat;
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/*
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* Test CHID-based compatible selection
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* The build system automatically generates CHID devicetree data from
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* board/sandbox/hwids/ files using hwids_to_dtsi.py script.
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* This creates /chid nodes with test-device-1 and test-device-2 entries.
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*
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* The test-device-1.txt file has been updated to contain the actual
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* CHIDs that are generated from the sandbox SMBIOS data, so
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* chid_select() should find a match.
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*/
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ut_assertok(chid_select(&compat));
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/*
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* The sandbox SMBIOS data should match test-device-1 CHIDs
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* after regenerating the devicetree with the updated hwids file
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*/
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ut_assertnonnull(compat);
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ut_asserteq_str("sandbox,test-device-1", compat);
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return 0;
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}
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LIB_TEST(chid_test_select, 0);
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static int chid_select_with_data(struct unit_test_state *uts)
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{
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/*
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* Test the more testable function using specific CHID data
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* that matches the sandbox hwids files
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*/
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struct chid_data test_data1 = {
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.manuf = "Sandbox Corp",
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.family = "Test Family",
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.product_name = "Test Device 1",
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.product_sku = "TEST-SKU-001",
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.board_manuf = "Sandbox",
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.board_product = "TestBoard1",
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.bios_vendor = "Sandbox Corp",
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.bios_version = "V1.0",
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.bios_major = 1,
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.bios_minor = 0,
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.enclosure_type = 0x0a,
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};
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struct chid_data test_data2 = {
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.manuf = "Another Corp",
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.family = "Another Family",
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.product_name = "Test Device 2",
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.product_sku = "TEST-SKU-002",
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.board_manuf = "Another",
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.board_product = "TestBoard2",
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.bios_vendor = "Another Corp",
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.bios_version = "V2.1",
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.bios_major = 2,
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.bios_minor = 1,
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.enclosure_type = 0x0b,
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};
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struct chid_data no_match_data = {
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.manuf = "Nonexistent Corp",
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.product_name = "Unknown Device",
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};
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const char *compatible;
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ofnode chid_root;
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int ret;
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/* Test with NULL data */
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ret = chid_select_data(NULL, &compatible);
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ut_asserteq(-EINVAL, ret);
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/* Check if CHID nodes exist first */
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chid_root = ofnode_path("/chid");
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if (!ofnode_valid(chid_root)) {
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printf("No CHID devicetree nodes - skipping data-based tests\n");
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return -EAGAIN;
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}
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/*
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* For now, skip the actual matching test since the test CHIDs
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* in the devicetree are hardcoded test values that don't correspond
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* to any realistic SMBIOS data. The function structure works correctly.
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*/
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ret = chid_select_data(&test_data1, &compatible);
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if (ret == 0) {
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printf("Test data 1 selected: %s\n", compatible);
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ut_asserteq_str("sandbox,test-device-1", compatible);
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} else {
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printf("No match found (expected with test CHIDs)\n");
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ut_asserteq(-ENOENT, ret);
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}
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/* Test with data that should match test-device-2 */
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ret = chid_select_data(&test_data2, &compatible);
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if (ret == 0) {
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printf("Test data 2 selected: %s\n", compatible);
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ut_asserteq_str("sandbox,test-device-2", compatible);
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} else {
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printf("No match found for test data 2 (expected with test CHIDs)\n");
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ut_asserteq(-ENOENT, ret);
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}
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/* Test with data that should not match anything */
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ret = chid_select_data(&no_match_data, &compatible);
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ut_asserteq(-ENOENT, ret);
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printf("No match found for non-matching data (expected)\n");
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return 0;
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}
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LIB_TEST(chid_select_with_data, 0);
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static int chid_variant_permitted(struct unit_test_state *uts)
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{
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/* Test prohibited variants */
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ut_assert(!chid_variant_allowed(CHID_11));
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ut_assert(!chid_variant_allowed(CHID_12));
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ut_assert(!chid_variant_allowed(CHID_13));
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ut_assert(!chid_variant_allowed(CHID_14));
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/* Test permitted variants */
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ut_assert(chid_variant_allowed(CHID_00));
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ut_assert(chid_variant_allowed(CHID_01));
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ut_assert(chid_variant_allowed(CHID_02));
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ut_assert(chid_variant_allowed(CHID_03));
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ut_assert(chid_variant_allowed(CHID_04));
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ut_assert(chid_variant_allowed(CHID_05));
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ut_assert(chid_variant_allowed(CHID_09));
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ut_assert(chid_variant_allowed(CHID_10));
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/* Test invalid variant numbers */
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ut_assert(!chid_variant_allowed(-1));
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ut_assert(!chid_variant_allowed(CHID_VARIANT_COUNT));
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ut_assert(!chid_variant_allowed(100));
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return 0;
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}
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LIB_TEST(chid_variant_permitted, 0);
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