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2026-03-23 12:11:07 +01:00
commit e64eb40b38
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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#define _XOPEN_SOURCE 500
#include "../../../utils.h"
#include "test_run.h"
#include <capstone/platform.h>
#include <ftw.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <time.h>
// Pointer to the file list table
// Must be a thread local, because we cannot pass arguments to `nftw`.
// So the found test files can only be saved, very annoyingly,
// to a global/thread-local mutable variables.
char ***test_files = NULL;
uint32_t file_count = 0;
static void help(const char *self)
{
fprintf(stderr, "%s <test-file-dir>/<test-file.yml> ...\n", self);
}
static int handle_ftree_entry(const char *fpath, const struct stat *sb,
int typeflag, struct FTW *ftwbuf)
{
if (typeflag != FTW_F) {
return 0;
}
const char *suffix = strstr(fpath, ".yaml");
if (!suffix || suffix - fpath != strlen(fpath) - 5) {
// Misses the .yaml suffix.
return 0;
}
file_count++;
*test_files = cs_mem_realloc(*test_files, sizeof(char *) * file_count);
if (!*test_files) {
fprintf(stderr, "[!] realloc failed\n");
return -1;
}
test_files[0][file_count - 1] = cs_strdup(fpath);
return 0;
}
/// Parses the test file paths from the @argv array.
static void get_tfiles(int argc, const char **argv)
{
for (size_t i = 1; i < argc; ++i) {
if (nftw(argv[i], handle_ftree_entry, 20,
FTW_DEPTH | FTW_PHYS) == -1) {
fprintf(stderr, "[!] nftw failed.\n");
return;
}
}
}
void print_test_run_stats(const TestRunStats *stats)
{
printf("\n-----------------------------------------\n");
printf("Test run statistics\n\n");
printf("Valid files: %" PRId32 "\n", stats->valid_test_files);
printf("Invalid files: %" PRId32 "\n", stats->invalid_files);
printf("Errors: %" PRId32 "\n\n", stats->errors);
printf("Test cases:\n");
printf("\tTotal: %" PRId32 "\n", stats->tc_total);
printf("\tSuccessful: %" PRId32 "\n", stats->successful);
printf("\tSkipped: %" PRId32 "\n", stats->skipped);
printf("\tFailed: %" PRId32 "\n", stats->failed);
printf("\n\tDecoded instructions: %" PRId32 "\n", stats->decoded_insns);
printf("-----------------------------------------\n");
printf("\n");
}
int main(int argc, const char **argv)
{
if (argc < 2 || strcmp(argv[1], "-h") == 0 ||
strcmp(argv[1], "--help") == 0) {
help(argv[0]);
exit(EXIT_FAILURE);
}
test_files = malloc(sizeof(char **));
*test_files = NULL;
get_tfiles(argc, argv);
if (!*test_files || file_count == 0) {
fprintf(stderr, "Arguments are invalid. No files found.\n");
exit(EXIT_FAILURE);
}
printf("Test files found: %" PRId32 "\n", file_count);
TestRunStats stats = { 0 };
TestRunResult res = cstest_run_tests(*test_files, file_count, &stats);
print_test_run_stats(&stats);
if (res == TEST_RUN_ERROR) {
fprintf(stderr, "[!] An error occured.\n");
exit(EXIT_FAILURE);
} else if (res == TEST_RUN_SUCCESS) {
printf("[o] All tests succeeded.\n");
exit(EXIT_SUCCESS);
} else if (res == TEST_RUN_FAILURE) {
printf("\nNOTE: Asserts have the actual data on the left side: 'actual' != 'expected'\n\n");
fprintf(stderr, "[!] Some tests failed.\n");
exit(EXIT_FAILURE);
}
fprintf(stderr, "[!] Unhandled Test Run result\n");
exit(EXIT_FAILURE);
}

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/* Capstone testing regression */
/* By Do Minh Tuan <tuanit96@gmail.com>, 02-2019 */
#include <assert.h>
#include <stdbool.h>
#include <stdarg.h>
#include <stdint.h>
#include <capstone/platform.h>
#include <stddef.h>
#include <string.h>
#include <stdlib.h>
#include <stdio.h>
#include <ctype.h>
#include <setjmp.h>
#include "cmocka.h"
#include "helper.h"
void add_str(char **src, const char *format, ...)
{
char *tmp;
size_t len1, len2;
va_list args;
tmp = (char *)malloc(sizeof(char) * 1000);
va_start(args, format);
vsprintf(tmp, format, args);
va_end(args);
len1 = strlen(*src);
len2 = strlen(tmp);
*src = (char *)realloc(*src, sizeof(char) * (len1 + len2 + 10));
memcpy(*src + len1, tmp, len2 + 1);
free(tmp);
}
void replace_hex(char *src, size_t src_len)
{
char *tmp, *result, *found, *origin, *orig_found;
int valid;
unsigned long long int value;
char *tmp_tmp;
result = (char *)malloc(sizeof(char));
result[0] = '\0';
tmp = strdup(src);
origin = tmp;
while ((found = strstr(tmp, "0x")) != NULL) {
orig_found = found;
found += 2;
value = 0;
valid = 0;
tmp_tmp = strndup(tmp, orig_found - tmp);
while (*found != '\0' && isxdigit(*found)) {
valid = 1;
if (*found >= 'a' && *found <= 'f')
value = value * 0x10 + (*found - 'a' + 10);
else if (*found >= 'A' && *found <= 'F')
value = value * 0x10 + (*found - 'A' + 10);
else
value = value * 0x10 + (*found - '0');
found++;
}
if (valid == 1)
add_str(&result, "%s%llu", tmp_tmp, value);
else
add_str(&result, "%s0x", tmp_tmp);
tmp = found;
free(tmp_tmp);
}
add_str(&result, "%s", tmp);
if (strlen(result) >= src_len) {
free(result);
free(origin);
fprintf(stderr,
"[ Error ] --- Buffer Overflow in replace_hex()\n");
_fail(__FILE__, __LINE__);
}
strcpy(src, result);
free(result);
free(origin);
}
void replace_negative(char *src, size_t src_len, size_t arch_bits)
{
char *tmp, *result, *found, *origin, *orig_found;
int cnt, valid;
char *value, *tmp_tmp;
unsigned short int tmp_short;
unsigned int tmp_int;
unsigned long int tmp_long;
result = (char *)malloc(sizeof(char));
result[0] = '\0';
tmp = strdup(src);
origin = tmp;
while ((found = strstr(tmp, "-")) != NULL) {
orig_found = found;
found++;
valid = 0;
value = strdup("-");
cnt = 2;
while (*found != '\0' && isdigit(*found)) {
valid = 1;
value = (char *)realloc(value, cnt + 1);
value[cnt - 1] = *found;
value[cnt] = '\0';
cnt++;
found++;
}
tmp_tmp = strndup(tmp, orig_found - tmp);
if (valid == 1) {
*orig_found = '\0';
if (arch_bits == 16) {
sscanf(value, "%hu", &tmp_short);
add_str(&result, "%s%hu", tmp_tmp, tmp_short);
} else if (arch_bits == 32) {
sscanf(value, "%u", &tmp_int);
add_str(&result, "%s%u", tmp_tmp, tmp_int);
} else if (arch_bits == 64) {
sscanf(value, "%lu", &tmp_long);
add_str(&result, "%s%lu", tmp_tmp, tmp_long);
}
} else
add_str(&result, "%s-", tmp_tmp);
tmp = found;
free(value);
free(tmp_tmp);
}
add_str(&result, "%s", tmp);
if (strlen(result) >= src_len) {
fprintf(stderr,
"[ Error ] --- Buffer Overflow in replace_negative()\n");
free(result);
free(origin);
_fail(__FILE__, __LINE__);
}
strcpy(src, result);
free(result);
free(origin);
}
void trim_str(char *str)
{
char tmp[MAX_ASM_TXT_MEM];
int start, end, j, i;
start = 0;
end = strlen(str) - 1;
j = 0;
while (start < strlen(str) && isspace(str[start]))
start++;
while (end >= 0 && isspace(str[end]))
end--;
for (i = start; i <= end; ++i)
tmp[j++] = str[i];
tmp[j] = '\0';
strcpy(str, tmp);
return;
}
/// Normalizes the usage of spaces in the given string.
/// It does:
/// - Replaces '\t' with '\s'
/// - Replace '\s\s+' with a single space.
void norm_spaces(char *str)
{
assert(str);
char *space_ptr = NULL;
while ((space_ptr = strstr(str, "\t")) != NULL) {
*space_ptr = ' ';
}
while ((space_ptr = strstr(str, " ")) != NULL) {
memmove(space_ptr, space_ptr + 1, strlen(space_ptr));
}
return;
}
void str_to_lower(char *str)
{
assert(str);
for (size_t i = 0; i < strlen(str); ++i)
str[i] = tolower(str[i]);
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include <stdarg.h>
#include <stddef.h>
#include <setjmp.h>
#include "cmocka.h"
#include "test_detail.h"
#include "test_case.h"
#include "test_compare.h"
#include "helper.h"
#include "../../../utils.h"
#include <stdio.h>
#include <string.h>
TestInput *test_input_new()
{
TestInput *p = cs_mem_calloc(sizeof(TestInput), 1);
assert(p);
return p;
}
void test_input_free(TestInput *test_input)
{
if (!test_input) {
return;
}
cs_mem_free(test_input->name);
cs_mem_free(test_input->bytes);
cs_mem_free(test_input->arch);
for (size_t i = 0; i < test_input->options_count; i++) {
cs_mem_free(test_input->options[i]);
}
cs_mem_free(test_input->options);
cs_mem_free(test_input);
}
TestInput *test_input_clone(TestInput *test_input)
{
assert(test_input);
TestInput *ti = test_input_new();
ti->address = test_input->address;
for (size_t i = 0; i < test_input->options_count; i++) {
ti->options = cs_mem_realloc(
ti->options, sizeof(char *) * (ti->options_count + 1));
ti->options[i] = cs_strdup(test_input->options[i]);
ti->options_count++;
}
ti->name = test_input->name ? cs_strdup(test_input->name) : NULL;
ti->arch = cs_strdup(test_input->arch);
ti->bytes = cs_mem_calloc(sizeof(uint8_t), test_input->bytes_count);
ti->bytes_count = test_input->bytes_count;
memcpy(ti->bytes, test_input->bytes, test_input->bytes_count);
return ti;
}
char *test_input_stringify(const TestInput *test_input, const char *postfix)
{
size_t msg_len = 2048;
char *msg = cs_mem_calloc(sizeof(char), msg_len);
char *byte_seq =
byte_seq_to_str(test_input->bytes, test_input->bytes_count);
if (!msg) {
cs_mem_free(byte_seq);
return NULL;
}
char opt_seq[128] = { 0 };
str_append_no_realloc(opt_seq, sizeof(opt_seq), "[");
for (size_t i = 0; i < test_input->options_count; ++i) {
str_append_no_realloc(opt_seq, sizeof(opt_seq), test_input->options[i]);
if (i < test_input->options_count - 1) {
str_append_no_realloc(opt_seq, sizeof(opt_seq), ", ");
}
}
str_append_no_realloc(opt_seq, sizeof(opt_seq), "]");
cs_snprintf(msg, msg_len,
"%sTestInput { arch: %s, options: %s, addr: 0x%" PRIx64
", bytes: %s }",
postfix, test_input->arch, opt_seq, test_input->address,
byte_seq);
cs_mem_free(byte_seq);
return msg;
}
TestInsnData *test_insn_data_new()
{
TestInsnData *p = cs_mem_calloc(sizeof(TestInsnData), 1);
assert(p);
return p;
}
void test_insn_data_free(TestInsnData *test_insn_data)
{
if (!test_insn_data) {
return;
}
cs_mem_free(test_insn_data->asm_text);
cs_mem_free(test_insn_data->op_str);
cs_mem_free(test_insn_data->mnemonic);
cs_mem_free(test_insn_data->id);
cs_mem_free(test_insn_data->alias_id);
test_detail_free(test_insn_data->details);
cs_mem_free(test_insn_data);
}
TestInsnData *test_insn_data_clone(TestInsnData *test_insn_data)
{
assert(test_insn_data);
TestInsnData *tid = test_insn_data_new();
tid->alias_id = test_insn_data->alias_id ?
cs_strdup(test_insn_data->alias_id) :
NULL;
tid->id = test_insn_data->id ?
cs_strdup(test_insn_data->id) :
NULL;
tid->is_alias = test_insn_data->is_alias;
tid->illegal = test_insn_data->illegal;
tid->mnemonic = test_insn_data->mnemonic ?
cs_strdup(test_insn_data->mnemonic) :
NULL;
tid->op_str = test_insn_data->op_str ?
cs_strdup(test_insn_data->op_str) :
NULL;
tid->asm_text = test_insn_data->asm_text ?
cs_strdup(test_insn_data->asm_text) :
NULL;
if (test_insn_data->details) {
tid->details = test_detail_clone(test_insn_data->details);
}
return tid;
}
TestExpected *test_expected_new()
{
TestExpected *p = cs_mem_calloc(sizeof(TestExpected), 1);
assert(p);
return p;
}
void test_expected_free(TestExpected *test_expected)
{
if (!test_expected) {
return;
}
for (size_t i = 0; i < test_expected->insns_count; i++) {
test_insn_data_free(test_expected->insns[i]);
}
cs_mem_free(test_expected->insns);
cs_mem_free(test_expected);
}
TestExpected *test_expected_clone(TestExpected *test_expected)
{
assert(test_expected);
TestExpected *te = test_expected_new();
te->insns = cs_mem_calloc(sizeof(TestInsnData *),
test_expected->insns_count);
for (size_t i = 0; i < test_expected->insns_count; i++) {
te->insns[i] = test_insn_data_clone(test_expected->insns[i]);
te->insns_count++;
}
return te;
}
/// Compares the given @asm_text to the @expected one.
/// Because Capstone sometimes deviates from the LLVM syntax
/// the strings don't need to be the same to be considered a valid match.
/// E.g. Capstone sometimes prints decimal numbers instead of hexadecimal
/// for readability.
static bool compare_asm_text(const char *asm_text, const char *expected,
size_t arch_bits)
{
if (!asm_text || !expected) {
fprintf(stderr, "[!] asm_text or expected was NULL\n");
return false;
}
if (strcmp(asm_text, expected) == 0) {
return true;
}
// Normalize both strings
char asm_copy[MAX_ASM_TXT_MEM] = { 0 };
strncpy(asm_copy, asm_text, MAX_ASM_TXT_MEM - 1);
trim_str(asm_copy);
replace_hex(asm_copy, sizeof(asm_copy));
replace_negative(asm_copy, sizeof(asm_copy), arch_bits);
norm_spaces(asm_copy);
str_to_lower(asm_copy);
char expected_copy[MAX_ASM_TXT_MEM] = { 0 };
strncpy(expected_copy, expected, MAX_ASM_TXT_MEM - 1);
trim_str(expected_copy);
replace_hex(expected_copy, sizeof(expected_copy));
replace_negative(expected_copy, sizeof(expected_copy), arch_bits);
norm_spaces(expected_copy);
str_to_lower(expected_copy);
if (strcmp(asm_copy, expected_copy) == 0) {
return true;
}
fprintf(stderr,
"Normalized asm-text doesn't match:\n"
"decoded: '%s'\n"
"expected: '%s'\n",
asm_copy, expected_copy);
return false;
}
static bool ids_match(uint32_t actual, const char *expected) {
compare_enum_ret(actual, expected, false);
return true;
}
/// Compares the decoded instructions @insns against the @expected values and returns the result.
void test_expected_compare(csh *handle, TestExpected *expected, cs_insn *insns,
size_t insns_count, size_t arch_bits)
{
assert_int_equal(insns_count, expected->insns_count);
for (size_t i = 0; i < insns_count; ++i) {
TestInsnData *expec_data = expected->insns[i];
// Test mandatory fields first
// The asm text is saved differently for different architectures.
// Either all in op_str or split in mnemonic and op_str
char asm_text[256] = { 0 };
if (insns[i].mnemonic[0] != '\0') {
str_append_no_realloc(asm_text, sizeof(asm_text),
insns[i].mnemonic);
str_append_no_realloc(asm_text, sizeof(asm_text), " ");
}
if (insns[i].op_str[0] != '\0') {
str_append_no_realloc(asm_text, sizeof(asm_text),
insns[i].op_str);
}
if (!compare_asm_text(asm_text, expec_data->asm_text,
arch_bits)) {
fail_msg("asm-text mismatch\n");
}
// Not mandatory fields. If not initialized they should still match.
if (expec_data->id) {
assert_true(ids_match((uint32_t)insns[i].id,
expec_data->id));
}
if (expec_data->is_alias != 0) {
if (expec_data->is_alias > 0) {
assert_true(insns[i].is_alias);
} else {
assert_false(insns[i].is_alias);
}
}
if (expec_data->illegal != 0) {
if (expec_data->illegal > 0) {
assert_true(insns[i].illegal);
} else {
assert_false(insns[i].illegal);
}
}
if (expec_data->alias_id) {
assert_true(ids_match((uint32_t)insns[i].alias_id,
expec_data->alias_id));
}
if (expec_data->mnemonic) {
assert_string_equal(insns[i].mnemonic,
expec_data->mnemonic);
}
if (expec_data->op_str) {
assert_string_equal(insns[i].op_str,
expec_data->op_str);
}
if (expec_data->details) {
if (!insns[i].detail) {
fprintf(stderr, "detail is NULL\n");
assert_non_null(insns[i].detail);
}
assert_true(test_expected_detail(handle, &insns[i],
expec_data->details));
}
}
}
TestCase *test_case_new()
{
TestCase *p = cs_mem_calloc(sizeof(TestCase), 1);
assert(p);
return p;
}
void test_case_free(TestCase *test_case)
{
if (!test_case) {
return;
}
test_input_free(test_case->input);
test_expected_free(test_case->expected);
cs_mem_free(test_case->skip_reason);
cs_mem_free(test_case);
}
TestCase *test_case_clone(TestCase *test_case)
{
assert(test_case);
TestCase *tc = test_case_new();
TestInput *ti = test_input_clone(test_case->input);
tc->input = ti;
TestExpected *te = test_expected_clone(test_case->expected);
tc->expected = te;
tc->skip = test_case->skip;
if (tc->skip) {
tc->skip_reason = strdup(test_case->skip_reason);
}
return tc;
}
TestFile *test_file_new()
{
TestFile *p = cs_mem_calloc(sizeof(TestFile), 1);
assert(p);
return p;
}
void test_file_free(TestFile *test_file)
{
if (!test_file) {
return;
}
for (size_t i = 0; i < test_file->test_cases_count; ++i) {
test_case_free(test_file->test_cases[i]);
}
cs_mem_free(test_file->test_cases);
cs_mem_free(test_file->filename);
test_file->filename = NULL;
cs_mem_free(test_file);
}
TestFile *test_file_clone(TestFile *test_file)
{
assert(test_file);
TestFile *tf = test_file_new();
tf->filename = test_file->filename ? strdup(test_file->filename) : NULL;
tf->test_cases =
cs_mem_calloc(sizeof(TestCase *), test_file->test_cases_count);
for (size_t i = 0; i < test_file->test_cases_count;
i++, tf->test_cases_count++) {
TestCase *tc = test_case_clone(test_file->test_cases[i]);
tf->test_cases[i] = tc;
}
return tf;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_detail.h"
#include "test_compare.h"
#include <capstone/capstone.h>
TestDetail *test_detail_new()
{
return cs_mem_calloc(sizeof(TestDetail), 1);
}
TestDetail *test_detail_clone(TestDetail *detail)
{
assert(detail);
TestDetail *clone = test_detail_new();
clone->regs_read =
detail->regs_read_count > 0 ?
cs_mem_calloc(sizeof(char *), detail->regs_read_count) :
NULL;
clone->regs_read_count = detail->regs_read_count;
for (size_t i = 0; i < detail->regs_read_count; ++i) {
clone->regs_read[i] = strdup(detail->regs_read[i]);
}
clone->regs_write = detail->regs_write_count > 0 ?
cs_mem_calloc(sizeof(char *),
detail->regs_write_count) :
NULL;
clone->regs_write_count = detail->regs_write_count;
for (size_t i = 0; i < detail->regs_write_count; ++i) {
clone->regs_write[i] = strdup(detail->regs_write[i]);
}
clone->regs_impl_read =
detail->regs_impl_read_count > 0 ?
cs_mem_calloc(sizeof(char *),
detail->regs_impl_read_count) :
NULL;
clone->regs_impl_read_count = detail->regs_impl_read_count;
for (size_t i = 0; i < detail->regs_impl_read_count; ++i) {
clone->regs_impl_read[i] = strdup(detail->regs_impl_read[i]);
}
clone->regs_impl_write =
detail->regs_impl_write_count > 0 ?
cs_mem_calloc(sizeof(char *),
detail->regs_impl_write_count) :
NULL;
clone->regs_impl_write_count = detail->regs_impl_write_count;
for (size_t i = 0; i < detail->regs_impl_write_count; ++i) {
clone->regs_impl_write[i] = strdup(detail->regs_impl_write[i]);
}
clone->groups =
detail->groups_count > 0 ?
cs_mem_calloc(sizeof(char *), detail->groups_count) :
NULL;
clone->groups_count = detail->groups_count;
for (size_t i = 0; i < detail->groups_count; ++i) {
clone->groups[i] = strdup(detail->groups[i]);
}
if (detail->aarch64) {
clone->aarch64 = test_detail_aarch64_clone(detail->aarch64);
}
if (detail->arm) {
clone->arm = test_detail_arm_clone(detail->arm);
}
if (detail->ppc) {
clone->ppc = test_detail_ppc_clone(detail->ppc);
}
if (detail->tricore) {
clone->tricore = test_detail_tricore_clone(detail->tricore);
}
if (detail->alpha) {
clone->alpha = test_detail_alpha_clone(detail->alpha);
}
if (detail->bpf) {
clone->bpf = test_detail_bpf_clone(detail->bpf);
}
if (detail->hppa) {
clone->hppa = test_detail_hppa_clone(detail->hppa);
}
if (detail->xcore) {
clone->xcore = test_detail_xcore_clone(detail->xcore);
}
if (detail->systemz) {
clone->systemz = test_detail_systemz_clone(detail->systemz);
}
if (detail->sparc) {
clone->sparc = test_detail_sparc_clone(detail->sparc);
}
if (detail->sh) {
clone->sh = test_detail_sh_clone(detail->sh);
}
if (detail->mips) {
clone->mips = test_detail_mips_clone(detail->mips);
}
if (detail->riscv) {
clone->riscv = test_detail_riscv_clone(detail->riscv);
}
if (detail->m680x) {
clone->m680x = test_detail_m680x_clone(detail->m680x);
}
if (detail->tms320c64x) {
clone->tms320c64x =
test_detail_tms320c64x_clone(detail->tms320c64x);
}
if (detail->mos65xx) {
clone->mos65xx = test_detail_mos65xx_clone(detail->mos65xx);
}
if (detail->evm) {
clone->evm = test_detail_evm_clone(detail->evm);
}
if (detail->loongarch) {
clone->loongarch =
test_detail_loongarch_clone(detail->loongarch);
}
if (detail->wasm) {
clone->wasm = test_detail_wasm_clone(detail->wasm);
}
if (detail->x86) {
clone->x86 = test_detail_x86_clone(detail->x86);
}
if (detail->m68k) {
clone->m68k = test_detail_m68k_clone(detail->m68k);
}
if (detail->xtensa) {
clone->xtensa = test_detail_xtensa_clone(detail->xtensa);
}
if (detail->arc) {
clone->arc = test_detail_arc_clone(detail->arc);
}
return clone;
}
void test_detail_free(TestDetail *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->regs_read_count; ++i) {
cs_mem_free(detail->regs_read[i]);
}
cs_mem_free(detail->regs_read);
for (size_t i = 0; i < detail->regs_write_count; ++i) {
cs_mem_free(detail->regs_write[i]);
}
cs_mem_free(detail->regs_write);
for (size_t i = 0; i < detail->regs_impl_read_count; ++i) {
cs_mem_free(detail->regs_impl_read[i]);
}
cs_mem_free(detail->regs_impl_read);
for (size_t i = 0; i < detail->regs_impl_write_count; ++i) {
cs_mem_free(detail->regs_impl_write[i]);
}
cs_mem_free(detail->regs_impl_write);
for (size_t i = 0; i < detail->groups_count; ++i) {
cs_mem_free(detail->groups[i]);
}
cs_mem_free(detail->groups);
if (detail->aarch64) {
test_detail_aarch64_free(detail->aarch64);
}
if (detail->arm) {
test_detail_arm_free(detail->arm);
}
if (detail->ppc) {
test_detail_ppc_free(detail->ppc);
}
if (detail->tricore) {
test_detail_tricore_free(detail->tricore);
}
if (detail->alpha) {
test_detail_alpha_free(detail->alpha);
}
if (detail->hppa) {
test_detail_hppa_free(detail->hppa);
}
if (detail->bpf) {
test_detail_bpf_free(detail->bpf);
}
if (detail->xcore) {
test_detail_xcore_free(detail->xcore);
}
if (detail->systemz) {
test_detail_systemz_free(detail->systemz);
}
if (detail->sparc) {
test_detail_sparc_free(detail->sparc);
}
if (detail->sh) {
test_detail_sh_free(detail->sh);
}
if (detail->mips) {
test_detail_mips_free(detail->mips);
}
if (detail->riscv) {
test_detail_riscv_free(detail->riscv);
}
if (detail->m680x) {
test_detail_m680x_free(detail->m680x);
}
if (detail->tms320c64x) {
test_detail_tms320c64x_free(detail->tms320c64x);
}
if (detail->mos65xx) {
test_detail_mos65xx_free(detail->mos65xx);
}
if (detail->evm) {
test_detail_evm_free(detail->evm);
}
if (detail->loongarch) {
test_detail_loongarch_free(detail->loongarch);
}
if (detail->wasm) {
test_detail_wasm_free(detail->wasm);
}
if (detail->x86) {
test_detail_x86_free(detail->x86);
}
if (detail->m68k) {
test_detail_m68k_free(detail->m68k);
}
if (detail->xtensa) {
test_detail_xtensa_free(detail->xtensa);
}
if (detail->arc) {
test_detail_arc_free(detail->arc);
}
cs_mem_free(detail);
}
static bool test_reg_rw_access(csh *handle, const cs_insn *insn,
TestDetail *expected)
{
assert(handle && insn && expected);
if (expected->regs_read_count <= 0 && expected->regs_write_count <= 0) {
return true;
}
cs_regs regs_read, regs_write;
uint8_t regs_read_count, regs_write_count;
cs_err err = cs_regs_access(*handle, insn, regs_read, &regs_read_count,
regs_write, &regs_write_count);
if (err != CS_ERR_OK) {
fprintf(stderr, "cs_regs_access() failed with '%s'\n",
cs_strerror(err));
return false;
}
if (expected->regs_read_count > 0) {
compare_uint32_ret(regs_read_count, expected->regs_read_count,
false);
for (size_t i = 0; i < regs_read_count; ++i) {
compare_reg_ret(*handle, regs_read[i],
expected->regs_read[i], false);
}
}
if (expected->regs_write_count > 0) {
compare_uint32_ret(regs_write_count, expected->regs_write_count,
false);
for (size_t i = 0; i < regs_write_count; ++i) {
compare_reg_ret(*handle, regs_write[i],
expected->regs_write[i], false);
}
}
return true;
}
static bool test_impl_reg_rw_access(csh *handle, const cs_insn *insn,
TestDetail *expected)
{
assert(handle && insn && expected);
if (expected->regs_impl_read_count <= 0 &&
expected->regs_impl_write_count <= 0) {
return true;
}
cs_detail *actual = insn->detail;
// Test exclusively the implicitly read or written register.
if (expected->regs_impl_read_count > 0) {
compare_uint32_ret(actual->regs_read_count,
expected->regs_impl_read_count, false);
for (size_t i = 0; i < actual->regs_read_count; ++i) {
compare_reg_ret(*handle, actual->regs_read[i],
expected->regs_impl_read[i], false);
}
}
if (expected->regs_impl_write_count > 0) {
compare_uint32_ret(actual->regs_write_count,
expected->regs_impl_write_count, false);
for (size_t i = 0; i < actual->regs_write_count; ++i) {
compare_reg_ret(*handle, actual->regs_write[i],
expected->regs_impl_write[i], false);
}
}
return true;
}
bool test_expected_detail(csh *handle, const cs_insn *insn,
TestDetail *expected)
{
assert(handle && insn && insn->detail && expected);
cs_detail *actual = insn->detail;
if (!test_reg_rw_access(handle, insn, expected)) {
return false;
}
if (!test_impl_reg_rw_access(handle, insn, expected)) {
return false;
}
if (expected->groups_count > 0) {
compare_uint32_ret(actual->groups_count, expected->groups_count,
false);
for (size_t i = 0; i < actual->groups_count; ++i) {
if (strings_match(cs_group_name(*handle,
actual->groups[i]),
expected->groups[i])) {
continue;
}
compare_enum_ret(actual->groups[i], expected->groups[i],
false);
}
}
if (expected->aarch64) {
return test_expected_aarch64(handle, &actual->aarch64,
expected->aarch64);
}
if (expected->arm) {
return test_expected_arm(handle, &actual->arm, expected->arm);
}
if (expected->ppc) {
return test_expected_ppc(handle, &actual->ppc, expected->ppc);
}
if (expected->tricore) {
return test_expected_tricore(handle, &actual->tricore,
expected->tricore);
}
if (expected->alpha) {
return test_expected_alpha(handle, &actual->alpha,
expected->alpha);
}
if (expected->bpf) {
return test_expected_bpf(handle, &actual->bpf, expected->bpf);
}
if (expected->hppa) {
return test_expected_hppa(handle, &actual->hppa,
expected->hppa);
}
if (expected->xcore) {
return test_expected_xcore(handle, &actual->xcore,
expected->xcore);
}
if (expected->systemz) {
return test_expected_systemz(handle, &actual->systemz,
expected->systemz);
}
if (expected->sparc) {
return test_expected_sparc(handle, &actual->sparc,
expected->sparc);
}
if (expected->sh) {
return test_expected_sh(handle, &actual->sh, expected->sh);
}
if (expected->mips) {
return test_expected_mips(handle, &actual->mips,
expected->mips);
}
if (expected->riscv) {
return test_expected_riscv(handle, &actual->riscv,
expected->riscv);
}
if (expected->m680x) {
return test_expected_m680x(handle, &actual->m680x,
expected->m680x);
}
if (expected->tms320c64x) {
return test_expected_tms320c64x(handle, &actual->tms320c64x,
expected->tms320c64x);
}
if (expected->mos65xx) {
return test_expected_mos65xx(handle, &actual->mos65xx,
expected->mos65xx);
}
if (expected->evm) {
return test_expected_evm(handle, &actual->evm, expected->evm);
}
if (expected->loongarch) {
return test_expected_loongarch(handle, &actual->loongarch,
expected->loongarch);
}
if (expected->wasm) {
return test_expected_wasm(handle, &actual->wasm,
expected->wasm);
}
if (expected->x86) {
return test_expected_x86(handle, &actual->x86, expected->x86);
}
if (expected->m68k) {
return test_expected_m68k(handle, &actual->m68k,
expected->m68k);
}
if (expected->xtensa) {
return test_expected_xtensa(handle, &actual->xtensa,
expected->xtensa);
}
if (expected->arc) {
return test_expected_arc(handle, &actual->arc,
expected->arc);
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_aarch64.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailAArch64 *test_detail_aarch64_new()
{
return cs_mem_calloc(sizeof(TestDetailAArch64), 1);
}
void test_detail_aarch64_free(TestDetailAArch64 *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_aarch64_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->cc);
cs_mem_free(detail);
}
TestDetailAArch64 *test_detail_aarch64_clone(TestDetailAArch64 *detail)
{
TestDetailAArch64 *clone = test_detail_aarch64_new();
clone->cc = detail->cc ? strdup(detail->cc) : NULL;
clone->update_flags = detail->update_flags;
clone->post_indexed = detail->post_indexed;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailAArch64Op *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_aarch64_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailAArch64Op *test_detail_aarch64_op_new()
{
return cs_mem_calloc(sizeof(TestDetailAArch64Op), 1);
}
TestDetailAArch64Op *test_detail_aarch64_op_clone(TestDetailAArch64Op *op)
{
TestDetailAArch64Op *clone = test_detail_aarch64_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->sub_type = op->sub_type ? strdup(op->sub_type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_index = op->mem_index ? strdup(op->mem_index) : NULL;
clone->shift_type = op->shift_type ? strdup(op->shift_type) : NULL;
clone->ext = op->ext ? strdup(op->ext) : NULL;
clone->vas = op->vas ? strdup(op->vas) : NULL;
clone->imm = op->imm;
clone->sme = op->sme ? test_detail_aarch64_op_sme_clone(op->sme) : NULL;
clone->pred_reg = op->pred_reg ? strdup(op->pred_reg) : NULL;
clone->pred_vec_select =
op->pred_vec_select ? strdup(op->pred_vec_select) : NULL;
clone->pred_imm_index = op->pred_imm_index;
clone->pred_imm_index_set = op->pred_imm_index_set;
clone->mem_disp = op->mem_disp;
clone->imm_range_first = op->imm_range_first;
clone->imm_range_offset = op->imm_range_offset;
clone->fp = op->fp;
clone->fp_set = op->fp_set;
clone->sys_raw_val = op->sys_raw_val;
clone->shift_value = op->shift_value;
clone->is_vreg = op->is_vreg;
clone->vector_index = op->vector_index;
clone->vector_index_is_set = op->vector_index_is_set;
clone->is_list_member = op->is_list_member;
return clone;
}
void test_detail_aarch64_op_free(TestDetailAArch64Op *op)
{
if (!op) {
return;
}
test_detail_aarch64_op_sme_free(op->sme);
cs_mem_free(op->type);
cs_mem_free(op->sub_type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_index);
cs_mem_free(op->shift_type);
cs_mem_free(op->ext);
cs_mem_free(op->vas);
cs_mem_free(op->pred_reg);
cs_mem_free(op->pred_vec_select);
cs_mem_free(op);
}
TestDetailAArch64SME *test_detail_aarch64_op_sme_new()
{
return cs_mem_calloc(sizeof(TestDetailAArch64SME), 1);
}
TestDetailAArch64SME *test_detail_aarch64_op_sme_clone(TestDetailAArch64SME *sme)
{
TestDetailAArch64SME *clone = test_detail_aarch64_op_sme_new();
clone->type = sme->type ? strdup(sme->type) : NULL;
clone->tile = sme->tile ? strdup(sme->tile) : NULL;
clone->slice_reg = sme->slice_reg ? strdup(sme->slice_reg) : NULL;
clone->slice_offset_imm = sme->slice_offset_imm;
clone->slice_offset_ir_first = sme->slice_offset_ir_first;
clone->slice_offset_ir_offset = sme->slice_offset_ir_offset;
clone->slice_offset_ir_set = sme->slice_offset_ir_set;
clone->has_range_offset = sme->has_range_offset;
clone->is_vertical = sme->is_vertical;
return clone;
}
void test_detail_aarch64_op_sme_free(TestDetailAArch64SME *sme)
{
if (!sme) {
return;
}
cs_mem_free(sme->type);
cs_mem_free(sme->tile);
cs_mem_free(sme->slice_reg);
cs_mem_free(sme);
}
bool test_expected_aarch64(csh *handle, cs_aarch64 *actual,
TestDetailAArch64 *expected)
{
assert(handle && actual && expected);
compare_enum_ret(actual->cc, expected->cc, false);
compare_tbool_ret(actual->update_flags, expected->update_flags, false);
compare_tbool_ret(actual->post_index, expected->post_indexed, false);
if (expected->operands_count == 0) {
return true;
}
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
cs_aarch64_op *op = &actual->operands[i];
TestDetailAArch64Op *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"AArch64 op type %" PRId32 " not handled.\n",
op->type);
return false;
case AARCH64_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case AARCH64_OP_IMM:
compare_int64_ret(op->imm, eop->imm, false);
break;
case AARCH64_OP_IMM_RANGE:
compare_int8_ret(op->imm_range.first,
eop->imm_range_first, false);
compare_int8_ret(op->imm_range.offset,
eop->imm_range_offset, false);
break;
case AARCH64_OP_FP:
compare_fp_ret(op->fp, eop->fp, false);
break;
case AARCH64_OP_SYSREG:
compare_enum_ret(op->sysop.sub_type, eop->sub_type,
false);
compare_int_ret(op->sysop.reg.raw_val,
eop->sys_raw_val, false);
break;
case AARCH64_OP_SYSIMM:
compare_enum_ret(op->sysop.sub_type, eop->sub_type,
false);
compare_int_ret(op->sysop.imm.raw_val,
eop->sys_raw_val, false);
if (eop->fp_set) {
compare_fp_ret(op->fp, eop->fp, false);
}
break;
case AARCH64_OP_SYSALIAS:
compare_enum_ret(op->sysop.sub_type, eop->sub_type,
false);
compare_int_ret(op->sysop.alias.raw_val,
eop->sys_raw_val, false);
break;
case AARCH64_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
compare_int32_ret(op->mem.disp, eop->mem_disp, false);
break;
case AARCH64_OP_PRED:
compare_reg_ret(*handle, op->pred.reg, eop->pred_reg,
false);
compare_reg_ret(*handle, op->pred.vec_select, eop->pred_vec_select,
false);
if (eop->pred_imm_index_set) {
compare_int32_ret(op->pred.imm_index, eop->pred_imm_index, false);
} else {
assert(eop->pred_imm_index == 0);
}
break;
case AARCH64_OP_SME:
compare_enum_ret(op->sme.type, eop->sme->type,
false);
compare_reg_ret(*handle, op->sme.tile, eop->sme->tile,
false);
compare_reg_ret(*handle, op->sme.slice_reg, eop->sme->slice_reg,
false);
compare_tbool_ret(op->sme.has_range_offset, eop->sme->has_range_offset,
false);
compare_tbool_ret(op->sme.is_vertical, eop->sme->is_vertical,
false);
if (eop->sme->slice_offset_imm) {
compare_int32_ret(op->sme.slice_offset.imm, eop->sme->slice_offset_imm, false);
}
if (eop->sme->slice_offset_ir_set) {
compare_int32_ret(op->sme.slice_offset.imm_range.first, eop->sme->slice_offset_ir_first, false);
compare_int32_ret(op->sme.slice_offset.imm_range.offset, eop->sme->slice_offset_ir_offset, false);
} else {
assert(eop->sme->slice_offset_ir_first == 0 && eop->sme->slice_offset_ir_offset == 0);
}
break;
}
compare_enum_ret(op->shift.type, eop->shift_type, false);
compare_uint32_ret(op->shift.value, eop->shift_value, false);
compare_enum_ret(op->ext, eop->ext, false);
compare_enum_ret(op->vas, eop->vas, false);
compare_tbool_ret(op->is_vreg, eop->is_vreg, false);
if (eop->vector_index_is_set) {
compare_int32_ret(op->vector_index, eop->vector_index,
false);
} else {
assert(eop->vector_index == 0);
}
compare_tbool_ret(op->is_list_member, eop->is_list_member,
false);
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_alpha.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailAlpha *test_detail_alpha_new()
{
return cs_mem_calloc(sizeof(TestDetailAlpha), 1);
}
void test_detail_alpha_free(TestDetailAlpha *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_alpha_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailAlpha *test_detail_alpha_clone(const TestDetailAlpha *detail)
{
TestDetailAlpha *clone = test_detail_alpha_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailAlphaOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_alpha_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailAlphaOp *test_detail_alpha_op_new()
{
return cs_mem_calloc(sizeof(TestDetailAlphaOp), 1);
}
TestDetailAlphaOp *test_detail_alpha_op_clone(const TestDetailAlphaOp *op)
{
TestDetailAlphaOp *clone = test_detail_alpha_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
return clone;
}
void test_detail_alpha_op_free(TestDetailAlphaOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op);
}
bool test_expected_alpha(csh *handle, const cs_alpha *actual,
const TestDetailAlpha *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_alpha_op *op = &actual->operands[i];
TestDetailAlphaOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"alpha op type %" PRId32 " not handled.\n",
op->type);
return false;
case ALPHA_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case ALPHA_OP_IMM:
compare_int32_ret(op->imm, eop->imm, false);
break;
}
}
return true;
}

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// Copyright © 2024 Sibirtsev Dmitry <sibirtsevdl@gmail.com>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_arc.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailARC *test_detail_arc_new()
{
return cs_mem_calloc(sizeof(TestDetailARC), 1);
}
void test_detail_arc_free(TestDetailARC *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_arc_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailARC *test_detail_arc_clone(const TestDetailARC *detail)
{
TestDetailARC *clone = test_detail_arc_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailARCOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_arc_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailARCOp *test_detail_arc_op_new()
{
return cs_mem_calloc(sizeof(TestDetailARCOp), 1);
}
TestDetailARCOp *test_detail_arc_op_clone(const TestDetailARCOp *op)
{
TestDetailARCOp *clone = test_detail_arc_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
return clone;
}
void test_detail_arc_op_free(TestDetailARCOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op);
}
bool test_expected_arc(csh *handle, const cs_arc *actual,
const TestDetailARC *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_arc_op *op = &actual->operands[i];
TestDetailARCOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"arc op type %" PRId32 " not handled.\n",
op->type);
return false;
case ARC_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case ARC_OP_IMM:
compare_int64_ret(op->imm, eop->imm, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_arm.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailARM *test_detail_arm_new()
{
return cs_mem_calloc(sizeof(TestDetailARM), 1);
}
void test_detail_arm_free(TestDetailARM *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_arm_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->vector_data);
cs_mem_free(detail->cps_mode);
cs_mem_free(detail->cps_flag);
cs_mem_free(detail->cc);
cs_mem_free(detail->vcc);
cs_mem_free(detail->mem_barrier);
cs_mem_free(detail);
}
TestDetailARM *test_detail_arm_clone(TestDetailARM *detail)
{
TestDetailARM *clone = test_detail_arm_new();
clone->update_flags = detail->update_flags;
clone->post_indexed = detail->post_indexed;
clone->vector_data = detail->vector_data ? strdup(detail->vector_data) : NULL;
clone->cps_mode = detail->cps_mode ? strdup(detail->cps_mode) : NULL;
clone->cps_flag = detail->cps_flag ? strdup(detail->cps_flag) : NULL;
clone->cc = detail->cc ? strdup(detail->cc) : NULL;
clone->vcc = detail->vcc ? strdup(detail->vcc) : NULL;
clone->mem_barrier = detail->mem_barrier ? strdup(detail->mem_barrier) : NULL;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailARMOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_arm_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailARMOp *test_detail_arm_op_new()
{
return cs_mem_calloc(sizeof(TestDetailARMOp), 1);
}
TestDetailARMOp *test_detail_arm_op_clone(TestDetailARMOp *op)
{
TestDetailARMOp *clone = test_detail_arm_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->setend = op->setend ? strdup(op->setend) : NULL;
clone->pred = op->pred;
clone->fp = op->fp;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_index = op->mem_index ? strdup(op->mem_index) : NULL;
clone->mem_scale = op->mem_scale;
clone->mem_disp = op->mem_disp;
clone->mem_align = op->mem_align;
clone->sys_reg = op->sys_reg ? strdup(op->sys_reg) : NULL;
clone->sys_psr_bits_count = op->sys_psr_bits_count;
clone->sys_psr_bits =
op->sys_psr_bits_count == 0 ?
NULL :
cs_mem_calloc(sizeof(char *), op->sys_psr_bits_count);
for (size_t i = 0; i < op->sys_psr_bits_count; ++i) {
clone->sys_psr_bits[i] = strdup(op->sys_psr_bits[i]);
}
clone->sys_sysm = op->sys_sysm;
clone->sys_msr_mask = op->sys_msr_mask;
clone->shift_type = op->shift_type ? strdup(op->shift_type) : NULL;
clone->shift_value = op->shift_value;
clone->neon_lane = op->neon_lane;
clone->vector_index = op->vector_index;
clone->vector_index_is_set = op->vector_index_is_set;
clone->subtracted = op->subtracted;
return clone;
}
void test_detail_arm_op_free(TestDetailARMOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->setend);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_index);
cs_mem_free(op->shift_type);
cs_mem_free(op->sys_reg);
if (op->sys_psr_bits_count != 0) {
for (size_t i = 0; i < op->sys_psr_bits_count; ++i) {
cs_mem_free(op->sys_psr_bits[i]);
}
cs_mem_free(op->sys_psr_bits);
}
cs_mem_free(op);
}
bool test_expected_arm(csh *handle, cs_arm *actual, TestDetailARM *expected)
{
assert(handle && actual && expected);
if (expected->vector_size) {
compare_int_ret(actual->vector_size, expected->vector_size,
false);
}
compare_enum_ret(actual->vector_data, expected->vector_data, false);
compare_enum_ret(actual->cps_flag, expected->cps_flag, false);
compare_enum_ret(actual->cps_mode, expected->cps_mode, false);
compare_enum_ret(actual->cc, expected->cc, false);
compare_enum_ret(actual->vcc, expected->vcc, false);
compare_enum_ret(actual->mem_barrier, expected->mem_barrier, false);
if (expected->pred_mask) {
compare_uint8_ret(actual->pred_mask, expected->pred_mask,
false);
}
compare_tbool_ret(actual->usermode, expected->usermode, false);
compare_tbool_ret(actual->update_flags, expected->update_flags, false);
compare_tbool_ret(actual->post_index, expected->post_indexed, false);
if (expected->operands_count == 0) {
return true;
}
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
cs_arm_op *op = &actual->operands[i];
TestDetailARMOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"arm op type %" PRId32 " not handled.\n",
op->type);
return false;
case ARM_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case ARM_OP_IMM:
case ARM_OP_PIMM:
case ARM_OP_CIMM:
compare_int64_ret(op->imm, eop->imm, false);
break;
case ARM_OP_PRED:
compare_int_ret(op->pred, eop->pred, false);
break;
case ARM_OP_SETEND:
compare_enum_ret(op->setend, eop->setend, false);
break;
case ARM_OP_FP:
compare_fp_ret(op->fp, eop->fp, false);
break;
case ARM_OP_SYSREG:
compare_enum_ret(op->sysop.reg.mclasssysreg,
eop->sys_reg, false);
if (eop->sys_sysm) {
compare_uint16_ret(op->sysop.sysm,
eop->sys_sysm, false);
}
if (eop->sys_msr_mask) {
compare_uint8_ret(op->sysop.msr_mask,
eop->sys_msr_mask, false);
}
break;
case ARM_OP_BANKEDREG:
compare_enum_ret(op->sysop.reg.bankedreg, eop->sys_reg,
false);
if (eop->sys_sysm) {
compare_uint16_ret(op->sysop.sysm,
eop->sys_sysm, false);
}
if (eop->sys_msr_mask) {
compare_uint8_ret(op->sysop.msr_mask,
eop->sys_msr_mask, false);
}
break;
case ARM_OP_SPSR:
case ARM_OP_CPSR:
compare_bit_flags_ret(op->sysop.psr_bits,
eop->sys_psr_bits,
eop->sys_psr_bits_count, false);
if (eop->sys_sysm) {
compare_uint16_ret(op->sysop.sysm,
eop->sys_sysm, false);
}
if (eop->sys_msr_mask) {
compare_uint8_ret(op->sysop.msr_mask,
eop->sys_msr_mask, false);
}
break;
case ARM_OP_SYSM:
if (eop->sys_sysm) {
compare_uint16_ret(op->sysop.sysm,
eop->sys_sysm, false);
}
if (eop->sys_msr_mask) {
compare_uint8_ret(op->sysop.msr_mask,
eop->sys_msr_mask, false);
}
break;
case ARM_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
compare_int_ret(op->mem.disp, eop->mem_disp, false);
compare_uint_ret(op->mem.align, eop->mem_align, false);
if (eop->mem_scale) {
compare_int_ret(op->mem.scale, eop->mem_scale, false);
}
break;
}
compare_enum_ret(op->shift.type, eop->shift_type, false);
if (eop->shift_value) {
compare_uint32_ret(op->shift.value, eop->shift_value,
false);
}
if (eop->neon_lane) {
compare_uint8_ret(op->neon_lane, eop->neon_lane, false);
}
if (eop->vector_index_is_set) {
compare_int32_ret(op->vector_index, eop->vector_index,
false);
} else {
assert(eop->vector_index == 0);
}
compare_tbool_ret(op->subtracted, eop->subtracted, false);
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_bpf.h"
#include <capstone/bpf.h>
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailBPF *test_detail_bpf_new()
{
return cs_mem_calloc(sizeof(TestDetailBPF), 1);
}
void test_detail_bpf_free(TestDetailBPF *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_bpf_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailBPF *test_detail_bpf_clone(const TestDetailBPF *detail)
{
TestDetailBPF *clone = test_detail_bpf_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailBPFOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_bpf_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailBPFOp *test_detail_bpf_op_new()
{
return cs_mem_calloc(sizeof(TestDetailBPFOp), 1);
}
TestDetailBPFOp *test_detail_bpf_op_clone(const TestDetailBPFOp *op)
{
TestDetailBPFOp *clone = test_detail_bpf_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->off = op->off;
clone->mmem = op->mmem;
clone->msh = op->msh;
clone->ext = op->ext ? strdup(op->ext) : NULL;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_disp = op->mem_disp;
clone->is_pkt = op->is_pkt;
clone->is_signed = op->is_signed;
return clone;
}
void test_detail_bpf_op_free(TestDetailBPFOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->ext);
cs_mem_free(op->mem_base);
cs_mem_free(op);
}
bool test_expected_bpf(csh *handle, const cs_bpf *actual,
const TestDetailBPF *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_bpf_op *op = &actual->operands[i];
TestDetailBPFOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
compare_tbool_ret(op->is_pkt, eop->is_pkt, false);
compare_tbool_ret(op->is_signed, eop->is_signed, false);
switch (op->type) {
default:
fprintf(stderr,
"bpf op type %" PRId32 " not handled.\n",
op->type);
return false;
case BPF_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case BPF_OP_IMM:
compare_uint64_ret(op->imm, eop->imm, false);
break;
case BPF_OP_OFF:
compare_uint32_ret(op->off, eop->off, false);
break;
case BPF_OP_MMEM:
compare_uint32_ret(op->mmem, eop->mmem, false);
break;
case BPF_OP_MSH:
compare_uint32_ret(op->msh, eop->msh, false);
break;
case BPF_OP_EXT:
compare_enum_ret(op->ext, eop->ext, false);
break;
case BPF_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_uint32_ret(op->mem.disp, eop->mem_disp, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_evm.h"
#include <capstone/capstone.h>
TestDetailEVM *test_detail_evm_new()
{
return cs_mem_calloc(sizeof(TestDetailEVM), 1);
}
void test_detail_evm_free(TestDetailEVM *detail)
{
if (!detail) {
return;
}
cs_mem_free(detail);
}
TestDetailEVM *test_detail_evm_clone(const TestDetailEVM *detail)
{
TestDetailEVM *clone = test_detail_evm_new();
clone->fee = detail->fee;
clone->pop = detail->pop;
clone->push = detail->push;
return clone;
}
bool test_expected_evm(csh *handle, const cs_evm *actual,
const TestDetailEVM *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->fee, expected->fee, false);
compare_uint8_ret(actual->pop, expected->pop, false);
compare_uint8_ret(actual->push, expected->push, false);
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "capstone/hppa.h"
#include "test_compare.h"
#include "test_detail_hppa.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailHPPA *test_detail_hppa_new()
{
return cs_mem_calloc(sizeof(TestDetailHPPA), 1);
}
void test_detail_hppa_free(TestDetailHPPA *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_hppa_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailHPPA *test_detail_hppa_clone(const TestDetailHPPA *detail)
{
TestDetailHPPA *clone = test_detail_hppa_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailHPPAOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_hppa_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailHPPAOp *test_detail_hppa_op_new()
{
return cs_mem_calloc(sizeof(TestDetailHPPAOp), 1);
}
TestDetailHPPAOp *test_detail_hppa_op_clone(const TestDetailHPPAOp *op)
{
TestDetailHPPAOp *clone = test_detail_hppa_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_space = op->mem_space ? strdup(op->mem_space) : NULL;
clone->mem_base_access =
op->mem_base_access ? strdup(op->mem_base_access) : NULL;
return clone;
}
void test_detail_hppa_op_free(TestDetailHPPAOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_base_access);
cs_mem_free(op->mem_space);
cs_mem_free(op);
}
bool test_expected_hppa(csh *handle, const cs_hppa *actual,
const TestDetailHPPA *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_hppa_op *op = &actual->operands[i];
TestDetailHPPAOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"hppa op type %" PRId32 " not handled.\n",
op->type);
return false;
case HPPA_OP_REG:
case HPPA_OP_IDX_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case HPPA_OP_DISP:
case HPPA_OP_IMM:
case HPPA_OP_TARGET:
compare_int64_ret(op->imm, eop->imm, false);
break;
case HPPA_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.space, eop->mem_space,
false);
compare_enum_ret(op->mem.base_access,
eop->mem_base_access, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_loongarch.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailLoongArch *test_detail_loongarch_new()
{
return cs_mem_calloc(sizeof(TestDetailLoongArch), 1);
}
void test_detail_loongarch_free(TestDetailLoongArch *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_loongarch_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->format);
cs_mem_free(detail);
}
TestDetailLoongArch *
test_detail_loongarch_clone(const TestDetailLoongArch *detail)
{
TestDetailLoongArch *clone = test_detail_loongarch_new();
clone->format = detail->format ? strdup(detail->format) : NULL;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailLoongArchOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_loongarch_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailLoongArchOp *test_detail_loongarch_op_new()
{
return cs_mem_calloc(sizeof(TestDetailLoongArchOp), 1);
}
TestDetailLoongArchOp *
test_detail_loongarch_op_clone(const TestDetailLoongArchOp *op)
{
TestDetailLoongArchOp *clone = test_detail_loongarch_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_disp = op->mem_disp;
return clone;
}
void test_detail_loongarch_op_free(TestDetailLoongArchOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op);
}
bool test_expected_loongarch(csh *handle, const cs_loongarch *actual,
const TestDetailLoongArch *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
compare_enum_ret(actual->format, expected->format, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_loongarch_op *op = &actual->operands[i];
TestDetailLoongArchOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"loongarch op type %" PRId32 " not handled.\n",
op->type);
return false;
case LOONGARCH_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case LOONGARCH_OP_IMM:
compare_uint64_ret(op->imm, eop->imm, false);
break;
case LOONGARCH_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_m680x.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailM680xIdx *test_detail_m680x_idx_new()
{
return cs_mem_calloc(sizeof(TestDetailM680xIdx), 1);
}
TestDetailM680xIdx *test_detail_m680x_idx_clone(const TestDetailM680xIdx *idx)
{
assert(idx);
TestDetailM680xIdx *clone = test_detail_m680x_idx_new();
clone->base_reg = idx->base_reg ? strdup(idx->base_reg) : NULL;
clone->offset_reg = idx->offset_reg ? strdup(idx->offset_reg) : NULL;
clone->flags = idx->flags_count > 0 ?
cs_mem_calloc(sizeof(char *), idx->flags_count) :
NULL;
clone->flags_count = idx->flags_count;
for (size_t i = 0; i < clone->flags_count; ++i) {
clone->flags[i] = idx->flags[i] ? strdup(idx->flags[i]) : NULL;
}
clone->offset = idx->offset;
clone->offset_addr = idx->offset_addr;
clone->offset_bits = idx->offset_bits;
clone->inc_dec = idx->inc_dec;
return clone;
}
void test_detail_m680x_idx_free(TestDetailM680xIdx *idx)
{
if (!idx) {
return;
}
cs_mem_free(idx->base_reg);
cs_mem_free(idx->offset_reg);
for (size_t i = 0; i < idx->flags_count; ++i) {
cs_mem_free(idx->flags[i]);
}
cs_mem_free(idx->flags);
cs_mem_free(idx);
}
TestDetailM680x *test_detail_m680x_new()
{
return cs_mem_calloc(sizeof(TestDetailM680x), 1);
}
void test_detail_m680x_free(TestDetailM680x *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_m680x_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
for (size_t i = 0; i < detail->flags_count; ++i) {
cs_mem_free(detail->flags[i]);
}
cs_mem_free(detail->flags);
cs_mem_free(detail);
}
TestDetailM680x *test_detail_m680x_clone(const TestDetailM680x *detail)
{
TestDetailM680x *clone = test_detail_m680x_new();
clone->flags_count = detail->flags_count;
if (detail->flags_count > 0) {
clone->flags =
cs_mem_calloc(sizeof(char *), detail->flags_count);
}
for (size_t i = 0; i < detail->flags_count; ++i) {
clone->flags[i] = detail->flags[i] ? strdup(detail->flags[i]) :
NULL;
}
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailM680xOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_m680x_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailM680xOp *test_detail_m680x_op_new()
{
return cs_mem_calloc(sizeof(TestDetailM680xOp), 1);
}
TestDetailM680xOp *test_detail_m680x_op_clone(const TestDetailM680xOp *op)
{
TestDetailM680xOp *clone = test_detail_m680x_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->idx = op->idx ? test_detail_m680x_idx_clone(op->idx) : NULL;
clone->imm = op->imm;
clone->rel_address = op->rel_address;
clone->rel_offset = op->rel_offset;
clone->ext_address = op->ext_address;
clone->ext_indirect = op->ext_indirect;
clone->direct_addr = op->direct_addr;
clone->direct_addr_set = op->direct_addr_set;
clone->const_val = op->const_val;
clone->size = op->size;
return clone;
}
void test_detail_m680x_op_free(TestDetailM680xOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
test_detail_m680x_idx_free(op->idx);
cs_mem_free(op);
}
bool test_expected_m680x(csh *handle, const cs_m680x *actual,
const TestDetailM680x *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_m680x_op *op = &actual->operands[i];
TestDetailM680xOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
if (eop->size > 0) {
compare_uint8_ret(op->size, eop->size, false);
}
switch (op->type) {
default:
fprintf(stderr,
"m680x op type %" PRId32 " not handled.\n",
op->type);
return false;
case M680X_OP_REGISTER:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case M680X_OP_IMMEDIATE:
compare_int32_ret(op->imm, eop->imm, false);
break;
case M680X_OP_EXTENDED:
compare_uint16_ret(op->ext.address, eop->ext_address,
false);
compare_tbool_ret(op->ext.indirect, eop->ext_indirect,
false);
break;
case M680X_OP_DIRECT:
if (eop->direct_addr_set) {
compare_uint8_ret(op->direct_addr,
eop->direct_addr, false);
} else {
assert(eop->direct_addr == 0);
}
break;
case M680X_OP_RELATIVE:
compare_uint16_ret(op->rel.address, eop->rel_address,
false);
compare_int16_ret(op->rel.offset, eop->rel_offset,
false);
break;
case M680X_OP_CONSTANT:
compare_uint8_ret(op->const_val, eop->const_val, false);
break;
case M680X_OP_INDEXED:
if (!eop->idx) {
break;
}
compare_reg_ret(*handle, op->idx.base_reg,
eop->idx->base_reg, false);
compare_reg_ret(*handle, op->idx.offset_reg,
eop->idx->offset_reg, false);
if (eop->idx->offset) {
compare_int16_ret(op->idx.offset,
eop->idx->offset, false);
}
if (eop->idx->offset_addr) {
compare_uint16_ret(op->idx.offset_addr,
eop->idx->offset_addr,
false);
}
if (eop->idx->offset_bits) {
compare_uint8_ret(op->idx.offset_bits,
eop->idx->offset_bits, false);
}
if (eop->idx->inc_dec) {
compare_int8_ret(op->idx.inc_dec,
eop->idx->inc_dec, false);
}
compare_bit_flags_ret(op->idx.flags, eop->idx->flags,
eop->idx->flags_count, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "capstone/m68k.h"
#include "test_compare.h"
#include "test_detail_m68k.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailM68KOpMem *test_detail_m68k_op_mem_new()
{
return cs_mem_calloc(sizeof(TestDetailM68KOpMem), 1);
}
TestDetailM68KOpMem *test_detail_m68k_op_mem_clone(TestDetailM68KOpMem *mem)
{
assert(mem);
TestDetailM68KOpMem *clone = test_detail_m68k_op_mem_new();
clone->base_reg = mem->base_reg ? strdup(mem->base_reg) : NULL;
clone->index_reg = mem->index_reg ? strdup(mem->index_reg) : NULL;
clone->in_base_reg = mem->in_base_reg ? strdup(mem->in_base_reg) : NULL;
clone->index_size = mem->index_size;
clone->disp = mem->disp;
clone->in_disp = mem->in_disp;
clone->out_disp = mem->out_disp;
clone->scale = mem->scale;
clone->bitfield = mem->bitfield;
clone->width = mem->width;
clone->offset = mem->offset;
return clone;
}
void test_detail_m68k_op_mem_free(TestDetailM68KOpMem *mem)
{
if (!mem) {
return;
}
cs_mem_free(mem->base_reg);
cs_mem_free(mem->index_reg);
cs_mem_free(mem->in_base_reg);
cs_mem_free(mem);
}
TestDetailM68K *test_detail_m68k_new()
{
return cs_mem_calloc(sizeof(TestDetailM68K), 1);
}
void test_detail_m68k_free(TestDetailM68K *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_m68k_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->op_size_type);
cs_mem_free(detail->op_size_fpu);
cs_mem_free(detail->op_size_cpu);
cs_mem_free(detail);
}
TestDetailM68K *test_detail_m68k_clone(TestDetailM68K *detail)
{
TestDetailM68K *clone = test_detail_m68k_new();
clone->op_size_type =
detail->op_size_type ? strdup(detail->op_size_type) : NULL;
clone->op_size_fpu = detail->op_size_fpu ? strdup(detail->op_size_fpu) :
NULL;
clone->op_size_cpu = detail->op_size_cpu ? strdup(detail->op_size_cpu) :
NULL;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailM68KOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_m68k_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailM68KOp *test_detail_m68k_op_new()
{
return cs_mem_calloc(sizeof(TestDetailM68KOp), 1);
}
TestDetailM68KOp *test_detail_m68k_op_clone(TestDetailM68KOp *op)
{
TestDetailM68KOp *clone = test_detail_m68k_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->reg_pair_0 = op->reg_pair_0 ? strdup(op->reg_pair_0) : NULL;
clone->reg_pair_1 = op->reg_pair_1 ? strdup(op->reg_pair_1) : NULL;
clone->address_mode = op->address_mode ? strdup(op->address_mode) :
NULL;
clone->imm = op->imm;
clone->dimm = op->dimm;
clone->simm = op->simm;
clone->br_disp = op->br_disp;
clone->br_disp_size = op->br_disp_size;
clone->register_bits = op->register_bits;
clone->mem = op->mem ? test_detail_m68k_op_mem_clone(op->mem) : NULL;
return clone;
}
void test_detail_m68k_op_free(TestDetailM68KOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->reg);
cs_mem_free(op->reg_pair_0);
cs_mem_free(op->reg_pair_1);
cs_mem_free(op->address_mode);
test_detail_m68k_op_mem_free(op->mem);
cs_mem_free(op);
}
bool test_expected_m68k(csh *handle, cs_m68k *actual, TestDetailM68K *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
compare_enum_ret(actual->op_size.type, expected->op_size_type, false);
compare_enum_ret(actual->op_size.fpu_size, expected->op_size_fpu,
false);
compare_enum_ret(actual->op_size.cpu_size, expected->op_size_cpu,
false);
for (size_t i = 0; i < actual->op_count; ++i) {
cs_m68k_op *op = &actual->operands[i];
TestDetailM68KOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->address_mode, eop->address_mode, false);
switch (op->type) {
default:
fprintf(stderr,
"M68K op type %" PRId32 " not handled.\n",
op->type);
return false;
case M68K_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case M68K_OP_REG_PAIR:
compare_reg_ret(*handle, op->reg_pair.reg_0,
eop->reg_pair_0, false);
compare_reg_ret(*handle, op->reg_pair.reg_1,
eop->reg_pair_1, false);
break;
case M68K_OP_IMM:
compare_uint64_ret(op->imm, eop->imm, false);
break;
case M68K_OP_FP_SINGLE:
compare_fp_ret(op->simm, eop->simm, false);
break;
case M68K_OP_FP_DOUBLE:
compare_fp_ret(op->dimm, eop->dimm, false);
break;
case M68K_OP_REG_BITS:
compare_uint32_ret(op->register_bits,
eop->register_bits, false);
break;
case M68K_OP_BR_DISP:
compare_int32_ret(op->br_disp.disp, eop->br_disp,
false);
compare_uint8_ret(op->br_disp.disp_size,
eop->br_disp_size, false);
break;
case M68K_OP_MEM:
if (!eop->mem) {
break;
}
compare_reg_ret(*handle, op->mem.base_reg,
eop->mem->base_reg, false);
compare_reg_ret(*handle, op->mem.index_reg,
eop->mem->index_reg, false);
compare_reg_ret(*handle, op->mem.in_base_reg,
eop->mem->in_base_reg, false);
compare_tbool_ret(op->mem.index_size,
eop->mem->index_size, false);
if (eop->mem->in_disp) {
compare_uint32_ret(op->mem.in_disp,
eop->mem->in_disp, false);
}
if (eop->mem->out_disp) {
compare_uint32_ret(op->mem.out_disp,
eop->mem->out_disp, false);
}
if (eop->mem->disp) {
compare_int16_ret(op->mem.disp, eop->mem->disp,
false);
}
if (eop->mem->scale) {
compare_uint8_ret(op->mem.scale,
eop->mem->scale, false);
}
if (eop->mem->bitfield) {
compare_uint8_ret(op->mem.bitfield,
eop->mem->bitfield, false);
}
if (eop->mem->width) {
compare_uint8_ret(op->mem.width,
eop->mem->width, false);
}
if (eop->mem->offset) {
compare_uint8_ret(op->mem.offset,
eop->mem->offset, false);
}
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_mips.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailMips *test_detail_mips_new()
{
return cs_mem_calloc(sizeof(TestDetailMips), 1);
}
void test_detail_mips_free(TestDetailMips *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_mips_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailMips *test_detail_mips_clone(const TestDetailMips *detail)
{
TestDetailMips *clone = test_detail_mips_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailMipsOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_mips_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailMipsOp *test_detail_mips_op_new()
{
return cs_mem_calloc(sizeof(TestDetailMipsOp), 1);
}
TestDetailMipsOp *test_detail_mips_op_clone(const TestDetailMipsOp *op)
{
TestDetailMipsOp *clone = test_detail_mips_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_disp = op->mem_disp;
return clone;
}
void test_detail_mips_op_free(TestDetailMipsOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op);
}
bool test_expected_mips(csh *handle, const cs_mips *actual,
const TestDetailMips *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_mips_op *op = &actual->operands[i];
TestDetailMipsOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr, "sh op type %" PRId32 " not handled.\n",
op->type);
return false;
case MIPS_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case MIPS_OP_IMM:
compare_uint64_ret(op->imm, eop->imm, false);
break;
case MIPS_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_mos65xx.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailMos65xx *test_detail_mos65xx_new()
{
return cs_mem_calloc(sizeof(TestDetailMos65xx), 1);
}
void test_detail_mos65xx_free(TestDetailMos65xx *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_mos65xx_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->am);
cs_mem_free(detail);
}
TestDetailMos65xx *test_detail_mos65xx_clone(const TestDetailMos65xx *detail)
{
TestDetailMos65xx *clone = test_detail_mos65xx_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailMos65xxOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_mos65xx_op_clone(detail->operands[i]);
}
clone->am = detail->am ? strdup(detail->am) : NULL;
clone->modifies_flags = detail->modifies_flags;
return clone;
}
TestDetailMos65xxOp *test_detail_mos65xx_op_new()
{
return cs_mem_calloc(sizeof(TestDetailMos65xxOp), 1);
}
TestDetailMos65xxOp *test_detail_mos65xx_op_clone(const TestDetailMos65xxOp *op)
{
TestDetailMos65xxOp *clone = test_detail_mos65xx_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem = op->mem;
return clone;
}
void test_detail_mos65xx_op_free(TestDetailMos65xxOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->reg);
cs_mem_free(op);
}
bool test_expected_mos65xx(csh *handle, const cs_mos65xx *actual,
const TestDetailMos65xx *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
compare_enum_ret(actual->am, expected->am, false);
compare_tbool_ret(actual->modifies_flags, expected->modifies_flags,
false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_mos65xx_op *op = &actual->operands[i];
TestDetailMos65xxOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
switch (op->type) {
default:
fprintf(stderr, "sh op type %" PRId32 " not handled.\n",
op->type);
return false;
case MOS65XX_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case MOS65XX_OP_IMM:
compare_uint16_ret(op->imm, eop->imm, false);
break;
case MOS65XX_OP_MEM:
compare_uint16_ret(op->mem, eop->mem, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_ppc.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailPPCBC *test_detail_ppc_bc_new()
{
return cs_mem_calloc(sizeof(TestDetailPPCBC), 1);
}
TestDetailPPCBC *test_detail_ppc_bc_clone(const TestDetailPPCBC *bc)
{
assert(bc);
TestDetailPPCBC *clone = test_detail_ppc_bc_new();
clone->bh = bc->bh ? strdup(bc->bh) : NULL;
clone->crX = bc->crX ? strdup(bc->crX) : NULL;
clone->crX_bit = bc->crX_bit ? strdup(bc->crX_bit) : NULL;
clone->hint = bc->hint ? strdup(bc->hint) : NULL;
clone->pred_cr = bc->pred_cr ? strdup(bc->pred_cr) : NULL;
clone->pred_ctr = bc->pred_ctr ? strdup(bc->pred_ctr) : NULL;
clone->bi = bc->bi;
clone->bi_set = bc->bi_set;
clone->bo = bc->bo;
clone->bo_set = bc->bo_set;
return clone;
}
void test_detail_ppc_bc_free(TestDetailPPCBC *bc)
{
if (!bc) {
return;
}
cs_mem_free(bc->bh);
cs_mem_free(bc->crX);
cs_mem_free(bc->crX_bit);
cs_mem_free(bc->hint);
cs_mem_free(bc->pred_cr);
cs_mem_free(bc->pred_ctr);
cs_mem_free(bc);
}
TestDetailPPC *test_detail_ppc_new()
{
return cs_mem_calloc(sizeof(TestDetailPPC), 1);
}
void test_detail_ppc_free(TestDetailPPC *detail)
{
if (!detail) {
return;
}
test_detail_ppc_bc_free(detail->bc);
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_ppc_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->format);
cs_mem_free(detail);
}
TestDetailPPC *test_detail_ppc_clone(const TestDetailPPC *detail)
{
TestDetailPPC *clone = test_detail_ppc_new();
clone->format = detail->format ? strdup(detail->format) : NULL;
clone->update_cr0 = detail->update_cr0;
clone->bc = detail->bc ? test_detail_ppc_bc_clone(detail->bc) : NULL;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailPPCOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_ppc_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailPPCOp *test_detail_ppc_op_new()
{
return cs_mem_calloc(sizeof(TestDetailPPCOp), 1);
}
TestDetailPPCOp *test_detail_ppc_op_clone(const TestDetailPPCOp *op)
{
TestDetailPPCOp *clone = test_detail_ppc_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_offset = op->mem_offset ? strdup(op->mem_offset) : NULL;
clone->mem_disp = op->mem_disp;
return clone;
}
void test_detail_ppc_op_free(TestDetailPPCOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_offset);
cs_mem_free(op);
}
bool test_expected_ppc(csh *handle, const cs_ppc *actual,
const TestDetailPPC *expected)
{
assert(handle && actual && expected);
compare_enum_ret(actual->format, expected->format, false);
compare_tbool_ret(actual->update_cr0, expected->update_cr0, false);
if (expected->operands_count == 0) {
return true;
}
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_ppc_op *op = &actual->operands[i];
TestDetailPPCOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"arm op type %" PRId32 " not handled.\n",
op->type);
return false;
case PPC_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case PPC_OP_IMM:
compare_int64_ret(op->imm, eop->imm, false);
break;
case PPC_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.offset,
eop->mem_offset, false);
compare_int_ret(op->mem.disp, eop->mem_disp, false);
break;
}
if (expected->bc) {
if (expected->bc->bi_set) {
compare_uint8_ret(actual->bc.bi,
expected->bc->bi, false);
} else {
assert(expected->bc->bi == 0);
}
if (expected->bc->bo_set) {
compare_uint8_ret(actual->bc.bo,
expected->bc->bo, false);
} else {
assert(expected->bc->bo == 0);
}
compare_enum_ret(actual->bc.bh, expected->bc->bh,
false);
compare_reg_ret(*handle, actual->bc.crX,
expected->bc->crX, false);
compare_enum_ret(actual->bc.crX_bit,
expected->bc->crX_bit, false);
compare_enum_ret(actual->bc.hint, expected->bc->hint,
false);
compare_enum_ret(actual->bc.pred_cr,
expected->bc->pred_cr, false);
compare_enum_ret(actual->bc.pred_ctr,
expected->bc->pred_ctr, false);
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_riscv.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailRISCV *test_detail_riscv_new()
{
return cs_mem_calloc(sizeof(TestDetailRISCV), 1);
}
void test_detail_riscv_free(TestDetailRISCV *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_riscv_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailRISCV *test_detail_riscv_clone(const TestDetailRISCV *detail)
{
TestDetailRISCV *clone = test_detail_riscv_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailRISCVOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_riscv_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailRISCVOp *test_detail_riscv_op_new()
{
return cs_mem_calloc(sizeof(TestDetailRISCVOp), 1);
}
TestDetailRISCVOp *test_detail_riscv_op_clone(const TestDetailRISCVOp *op)
{
TestDetailRISCVOp *clone = test_detail_riscv_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_disp = op->mem_disp;
return clone;
}
void test_detail_riscv_op_free(TestDetailRISCVOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op);
}
bool test_expected_riscv(csh *handle, const cs_riscv *actual,
const TestDetailRISCV *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_riscv_op *op = &actual->operands[i];
TestDetailRISCVOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr, "sh op type %" PRId32 " not handled.\n",
op->type);
return false;
case RISCV_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case RISCV_OP_IMM:
compare_uint64_ret(op->imm, eop->imm, false);
break;
case RISCV_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_sh.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailSH *test_detail_sh_new()
{
return cs_mem_calloc(sizeof(TestDetailSH), 1);
}
void test_detail_sh_free(TestDetailSH *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_sh_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailSH *test_detail_sh_clone(const TestDetailSH *detail)
{
TestDetailSH *clone = test_detail_sh_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailSHOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_sh_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailSHOp *test_detail_sh_op_new()
{
return cs_mem_calloc(sizeof(TestDetailSHOp), 1);
}
TestDetailSHOp *test_detail_sh_op_clone(const TestDetailSHOp *op)
{
TestDetailSHOp *clone = test_detail_sh_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_reg = op->mem_reg ? strdup(op->mem_reg) : NULL;
clone->mem_address = op->mem_address ? strdup(op->mem_address) : NULL;
clone->mem_disp = op->mem_disp;
return clone;
}
void test_detail_sh_op_free(TestDetailSHOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->reg);
cs_mem_free(op->mem_reg);
cs_mem_free(op->mem_address);
cs_mem_free(op);
}
bool test_expected_sh(csh *handle, const cs_sh *actual,
const TestDetailSH *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_sh_op *op = &actual->operands[i];
TestDetailSHOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
switch (op->type) {
default:
fprintf(stderr, "sh op type %" PRId32 " not handled.\n",
op->type);
return false;
case SH_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case SH_OP_IMM:
compare_uint64_ret(op->imm, eop->imm, false);
break;
case SH_OP_MEM:
compare_reg_ret(*handle, op->mem.reg, eop->mem_reg,
false);
compare_reg_ret(*handle, op->mem.address,
eop->mem_address, false);
compare_int_ret(op->mem.disp, eop->mem_disp, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_sparc.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailSparc *test_detail_sparc_new()
{
return cs_mem_calloc(sizeof(TestDetailSparc), 1);
}
void test_detail_sparc_free(TestDetailSparc *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_sparc_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->cc);
cs_mem_free(detail->cc_field);
cs_mem_free(detail->hint);
cs_mem_free(detail);
}
TestDetailSparc *test_detail_sparc_clone(const TestDetailSparc *detail)
{
TestDetailSparc *clone = test_detail_sparc_new();
clone->operands_count = detail->operands_count;
clone->cc = detail->cc ? strdup(detail->cc) : NULL;
clone->cc_field = detail->cc_field ? strdup(detail->cc_field) : NULL;
clone->hint = detail->hint ? strdup(detail->hint) : NULL;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailSparcOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_sparc_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailSparcOp *test_detail_sparc_op_new()
{
return cs_mem_calloc(sizeof(TestDetailSparcOp), 1);
}
TestDetailSparcOp *test_detail_sparc_op_clone(const TestDetailSparcOp *op)
{
TestDetailSparcOp *clone = test_detail_sparc_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_index = op->mem_index ? strdup(op->mem_index) : NULL;
clone->mem_disp = op->mem_disp;
clone->asi = op->asi ? strdup(op->asi) : NULL;
clone->membar_tag = op->membar_tag ? strdup(op->membar_tag) : NULL;
return clone;
}
void test_detail_sparc_op_free(TestDetailSparcOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_index);
cs_mem_free(op->asi);
cs_mem_free(op->membar_tag);
cs_mem_free(op);
}
bool test_expected_sparc(csh *handle, const cs_sparc *actual,
const TestDetailSparc *expected)
{
assert(handle && actual && expected);
if (expected->cc) {
compare_enum_ret(actual->cc, expected->cc, false);
}
if (expected->cc_field) {
compare_enum_ret(actual->cc_field, expected->cc_field, false);
}
if (expected->hint) {
compare_enum_ret(actual->hint, expected->hint, false);
}
if (expected->operands_count == 0) {
return true;
}
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < expected->operands_count; ++i) {
const cs_sparc_op *op = &actual->operands[i];
TestDetailSparcOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"arm op type %" PRId32 " not handled.\n",
op->type);
return false;
case SPARC_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case SPARC_OP_IMM:
compare_int64_ret(op->imm, eop->imm, false);
break;
case SPARC_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
compare_int32_ret(op->mem.disp, eop->mem_disp, false);
break;
case SPARC_OP_ASI:
compare_enum_ret(op->asi, eop->asi, false);
break;
case SPARC_OP_MEMBAR_TAG:
compare_enum_ret(op->membar_tag, eop->membar_tag, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_systemz.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailSystemZ *test_detail_systemz_new()
{
return cs_mem_calloc(sizeof(TestDetailSystemZ), 1);
}
void test_detail_systemz_free(TestDetailSystemZ *detail)
{
if (!detail) {
return;
}
cs_mem_free(detail->format);
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_systemz_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailSystemZ *test_detail_systemz_clone(const TestDetailSystemZ *detail)
{
TestDetailSystemZ *clone = test_detail_systemz_new();
clone->format = detail->format ? strdup(detail->format) : NULL;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailSystemZOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_systemz_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailSystemZOp *test_detail_systemz_op_new()
{
return cs_mem_calloc(sizeof(TestDetailSystemZOp), 1);
}
TestDetailSystemZOp *test_detail_systemz_op_clone(const TestDetailSystemZOp *op)
{
TestDetailSystemZOp *clone = test_detail_systemz_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->imm_width = op->imm_width;
clone->mem_am = op->mem_am ? strdup(op->mem_am) : NULL;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_index = op->mem_index ? strdup(op->mem_index) : NULL;
clone->mem_disp = op->mem_disp;
clone->mem_length = op->mem_length;
return clone;
}
void test_detail_systemz_op_free(TestDetailSystemZOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_am);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_index);
cs_mem_free(op);
}
bool test_expected_systemz(csh *handle, const cs_systemz *actual,
const TestDetailSystemZ *expected)
{
assert(handle && actual && expected);
compare_enum_ret(actual->format, expected->format, false);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_systemz_op *op = &actual->operands[i];
TestDetailSystemZOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"arm op type %" PRId32 " not handled.\n",
op->type);
return false;
case SYSTEMZ_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case SYSTEMZ_OP_IMM:
compare_int64_ret(op->imm, eop->imm, false);
compare_uint8_ret(op->imm_width, eop->imm_width, false);
break;
case SYSTEMZ_OP_MEM:
compare_enum_ret(op->mem.am, eop->mem_am, false);
switch(op->mem.am) {
default:
assert(0 && "Address mode not handled\n");
break;
case SYSTEMZ_AM_BD:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
break;
case SYSTEMZ_AM_BDX:
case SYSTEMZ_AM_BDV:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
break;
case SYSTEMZ_AM_BDL:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
compare_uint64_ret(op->mem.length, eop->mem_length,
false);
break;
case SYSTEMZ_AM_BDR:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
compare_uint64_ret(op->mem.length, eop->mem_length,
false);
break;
}
break;
}
}
return true;
}

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@@ -0,0 +1,179 @@
// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "capstone/tms320c64x.h"
#include "test_compare.h"
#include "test_detail_tms320c64x.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailTMS320c64x *test_detail_tms320c64x_new()
{
return cs_mem_calloc(sizeof(TestDetailTMS320c64x), 1);
}
void test_detail_tms320c64x_free(TestDetailTMS320c64x *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_tms320c64x_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->cond_reg);
cs_mem_free(detail->funit_unit);
cs_mem_free(detail);
}
TestDetailTMS320c64x *test_detail_tms320c64x_clone(TestDetailTMS320c64x *detail)
{
TestDetailTMS320c64x *clone = test_detail_tms320c64x_new();
clone->cond_reg = detail->cond_reg ? strdup(detail->cond_reg) : NULL;
clone->cond_zero = detail->cond_zero;
clone->funit_unit = detail->funit_unit ? strdup(detail->funit_unit) :
NULL;
clone->funit_side = detail->funit_side;
clone->funit_side_set = detail->funit_side_set;
clone->funit_crosspath = detail->funit_crosspath;
clone->funit_crosspath_set = detail->funit_crosspath_set;
clone->parallel = detail->parallel;
clone->parallel_set = detail->parallel_set;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands =
cs_mem_calloc(sizeof(TestDetailTMS320c64xOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_tms320c64x_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailTMS320c64xOp *test_detail_tms320c64x_op_new()
{
return cs_mem_calloc(sizeof(TestDetailTMS320c64xOp), 1);
}
TestDetailTMS320c64xOp *
test_detail_tms320c64x_op_clone(TestDetailTMS320c64xOp *op)
{
TestDetailTMS320c64xOp *clone = test_detail_tms320c64x_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->reg_pair_0 = op->reg_pair_0 ? strdup(op->reg_pair_0) : NULL;
clone->reg_pair_1 = op->reg_pair_1 ? strdup(op->reg_pair_1) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_scaled = op->mem_scaled;
clone->mem_disptype = op->mem_disptype ? strdup(op->mem_disptype) :
NULL;
clone->mem_direction = op->mem_direction ? strdup(op->mem_direction) :
NULL;
clone->mem_modify = op->mem_modify ? strdup(op->mem_modify) : NULL;
clone->mem_disp_const = op->mem_disp_const;
clone->mem_disp_reg = op->mem_disp_reg ? strdup(op->mem_disp_reg) :
NULL;
clone->mem_unit = op->mem_unit;
return clone;
}
void test_detail_tms320c64x_op_free(TestDetailTMS320c64xOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_disp_reg);
cs_mem_free(op->mem_disptype);
cs_mem_free(op->mem_direction);
cs_mem_free(op->mem_modify);
cs_mem_free(op->reg);
cs_mem_free(op->reg_pair_0);
cs_mem_free(op->reg_pair_1);
cs_mem_free(op);
}
bool test_expected_tms320c64x(csh *handle, cs_tms320c64x *actual,
TestDetailTMS320c64x *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
compare_reg_ret(*handle, actual->condition.reg, expected->cond_reg,
false);
compare_tbool_ret(actual->condition.zero, expected->cond_zero, false);
compare_enum_ret(actual->funit.unit, expected->funit_unit, false);
if (expected->funit_side_set) {
compare_uint8_ret(actual->funit.side, expected->funit_side,
false);
} else {
assert(expected->funit_side == 0);
}
if (expected->funit_crosspath_set) {
compare_uint8_ret(actual->funit.crosspath,
expected->funit_crosspath, false);
} else {
assert(expected->funit_crosspath == 0);
}
if (expected->parallel_set) {
compare_uint8_ret(actual->parallel, expected->parallel, false);
} else {
assert(expected->parallel == 0);
}
for (size_t i = 0; i < actual->op_count; ++i) {
cs_tms320c64x_op *op = &actual->operands[i];
TestDetailTMS320c64xOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
switch (op->type) {
default:
fprintf(stderr,
"tms320c64x op type %" PRId32 " not handled.\n",
op->type);
return false;
case TMS320C64X_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case TMS320C64X_OP_REGPAIR:
compare_reg_ret(*handle, op->reg + 1, eop->reg_pair_0,
false);
compare_reg_ret(*handle, op->reg, eop->reg_pair_1,
false);
break;
case TMS320C64X_OP_IMM:
compare_int32_ret(op->imm, eop->imm, false);
break;
case TMS320C64X_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_enum_ret(op->mem.direction, eop->mem_direction,
false);
compare_tbool_ret(op->mem.scaled, eop->mem_scaled,
false);
compare_enum_ret(op->mem.disptype, eop->mem_disptype,
false);
if (op->mem.disptype == TMS320C64X_MEM_DISP_REGISTER) {
compare_reg_ret(*handle, op->mem.disp,
eop->mem_disp_reg, false);
} else {
compare_uint_ret(op->mem.disp,
eop->mem_disp_const, false);
}
compare_enum_ret(op->mem.modify, eop->mem_modify,
false);
compare_uint_ret(op->mem.unit, eop->mem_unit, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_tricore.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailTriCore *test_detail_tricore_new()
{
return cs_mem_calloc(sizeof(TestDetailTriCore), 1);
}
void test_detail_tricore_free(TestDetailTriCore *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_tricore_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailTriCore *test_detail_tricore_clone(const TestDetailTriCore *detail)
{
TestDetailTriCore *clone = test_detail_tricore_new();
clone->update_flags = detail->update_flags;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailTriCoreOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_tricore_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailTriCoreOp *test_detail_tricore_op_new()
{
return cs_mem_calloc(sizeof(TestDetailTriCoreOp), 1);
}
TestDetailTriCoreOp *test_detail_tricore_op_clone(const TestDetailTriCoreOp *op)
{
TestDetailTriCoreOp *clone = test_detail_tricore_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_disp = op->mem_disp;
return clone;
}
void test_detail_tricore_op_free(TestDetailTriCoreOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op);
}
bool test_expected_tricore(csh *handle, const cs_tricore *actual,
const TestDetailTriCore *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
compare_tbool_ret(actual->update_flags, expected->update_flags, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_tricore_op *op = &actual->operands[i];
TestDetailTriCoreOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"tricore op type %" PRId32 " not handled.\n",
op->type);
return false;
case TRICORE_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case TRICORE_OP_IMM:
compare_int64_ret(op->imm, eop->imm, false);
break;
case TRICORE_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_wasm.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailWASM *test_detail_wasm_new()
{
return cs_mem_calloc(sizeof(TestDetailWASM), 1);
}
void test_detail_wasm_free(TestDetailWASM *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_wasm_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailWASM *test_detail_wasm_clone(const TestDetailWASM *detail)
{
TestDetailWASM *clone = test_detail_wasm_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailWASMOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_wasm_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailWASMOp *test_detail_wasm_op_new()
{
return cs_mem_calloc(sizeof(TestDetailWASMOp), 1);
}
TestDetailWASMOp *test_detail_wasm_op_clone(const TestDetailWASMOp *op)
{
TestDetailWASMOp *clone = test_detail_wasm_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->size = op->size;
clone->int7 = op->int7;
clone->varuint32 = op->varuint32;
clone->varuint64 = op->varuint64;
clone->uint32 = op->uint32;
clone->uint64 = op->uint64;
clone->immediate_0 = op->immediate_0;
clone->immediate_1 = op->immediate_1;
clone->brt_length = op->brt_length;
clone->brt_address = op->brt_address;
clone->brt_default_target = op->brt_default_target;
return clone;
}
void test_detail_wasm_op_free(TestDetailWASMOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op);
}
bool test_expected_wasm(csh *handle, const cs_wasm *actual,
const TestDetailWASM *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_wasm_op *op = &actual->operands[i];
TestDetailWASMOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
switch (op->type) {
default:
fprintf(stderr,
"WASM op type %" PRId32 " not handled.\n",
op->type);
return false;
case WASM_OP_INT7:
compare_int8_ret(op->int7, eop->int7, false);
break;
case WASM_OP_VARUINT32:
compare_uint32_ret(op->varuint32, eop->varuint32,
false);
break;
case WASM_OP_VARUINT64:
compare_uint64_ret(op->varuint64, eop->varuint64,
false);
break;
case WASM_OP_UINT32:
compare_uint32_ret(op->uint32, eop->uint32, false);
break;
case WASM_OP_UINT64:
compare_uint64_ret(op->uint64, eop->uint64, false);
break;
case WASM_OP_IMM:
compare_uint32_ret(op->immediate[0], eop->immediate_0,
false);
compare_uint32_ret(op->immediate[1], eop->immediate_1,
false);
break;
case WASM_OP_BRTABLE:
compare_uint32_ret(op->brtable.length, eop->brt_length,
false);
compare_uint32_ret(op->brtable.default_target,
eop->brt_default_target, false);
compare_uint64_ret(op->brtable.address,
eop->brt_address, false);
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_x86.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailX86 *test_detail_x86_new()
{
return cs_mem_calloc(sizeof(TestDetailX86), 1);
}
void test_detail_x86_free(TestDetailX86 *detail)
{
if (!detail) {
return;
}
if (detail->prefix[0]) {
for (size_t i = 0; i < ARR_SIZE(detail->prefix); ++i) {
cs_mem_free(detail->prefix[i]);
}
}
for (size_t i = 0; i < detail->eflags_count; ++i) {
cs_mem_free(detail->eflags[i]);
}
cs_mem_free(detail->eflags);
for (size_t i = 0; i < detail->fpu_flags_count; ++i) {
cs_mem_free(detail->fpu_flags[i]);
}
cs_mem_free(detail->fpu_flags);
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_x86_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->sib_index);
cs_mem_free(detail->sib_base);
cs_mem_free(detail->xop_cc);
cs_mem_free(detail->sse_cc);
cs_mem_free(detail->avx_cc);
cs_mem_free(detail->avx_rm);
cs_mem_free(detail);
}
TestDetailX86 *test_detail_x86_clone(TestDetailX86 *detail)
{
TestDetailX86 *clone = test_detail_x86_new();
clone->sib_index = detail->sib_index ? strdup(detail->sib_index) : NULL;
clone->sib_base = detail->sib_base ? strdup(detail->sib_base) : NULL;
clone->xop_cc = detail->xop_cc ? strdup(detail->xop_cc) : NULL;
clone->sse_cc = detail->sse_cc ? strdup(detail->sse_cc) : NULL;
clone->avx_cc = detail->avx_cc ? strdup(detail->avx_cc) : NULL;
clone->avx_rm = detail->avx_rm ? strdup(detail->avx_rm) : NULL;
if (detail->prefix[0]) {
for (size_t i = 0; i < ARR_SIZE(clone->prefix); ++i) {
clone->prefix[i] = strdup(detail->prefix[i]);
}
}
memcpy(clone->opcode, detail->opcode, sizeof(clone->opcode));
clone->rex = detail->rex;
clone->addr_size = detail->addr_size;
clone->modrm = detail->modrm;
clone->sib = detail->sib;
clone->disp = detail->disp;
clone->sib_scale = detail->sib_scale;
clone->avx_sae = detail->avx_sae;
clone->enc_modrm_offset = detail->enc_modrm_offset;
clone->enc_disp_offset = detail->enc_disp_offset;
clone->enc_disp_size = detail->enc_disp_size;
clone->enc_imm_offset = detail->enc_imm_offset;
clone->enc_imm_size = detail->enc_imm_size;
clone->eflags_count = detail->eflags_count;
clone->eflags = detail->eflags ? cs_mem_calloc(sizeof(char *),
detail->eflags_count) :
NULL;
for (size_t i = 0; clone->eflags && i < detail->eflags_count; ++i) {
clone->eflags[i] =
detail->eflags[i] ? strdup(detail->eflags[i]) : NULL;
}
clone->fpu_flags_count = detail->fpu_flags_count;
clone->fpu_flags =
detail->fpu_flags ?
cs_mem_calloc(sizeof(char *), detail->fpu_flags_count) :
NULL;
for (size_t i = 0; clone->fpu_flags && i < detail->fpu_flags_count; ++i) {
clone->fpu_flags[i] = detail->fpu_flags[i] ?
strdup(detail->fpu_flags[i]) :
NULL;
}
clone->operands_count = detail->operands_count;
clone->operands = detail->operands_count > 0 ?
cs_mem_calloc(sizeof(TestDetailX86Op *),
detail->operands_count) :
NULL;
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_x86_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailX86Op *test_detail_x86_op_new()
{
return cs_mem_calloc(sizeof(TestDetailX86Op), 1);
}
TestDetailX86Op *test_detail_x86_op_clone(TestDetailX86Op *op)
{
TestDetailX86Op *clone = test_detail_x86_op_new();
clone->size = op->size;
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_segment = op->mem_segment ? strdup(op->mem_segment) : NULL;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_index = op->mem_index ? strdup(op->mem_index) : NULL;
clone->mem_scale = op->mem_scale;
clone->mem_disp = op->mem_disp;
clone->avx_bcast = op->avx_bcast ? strdup(op->avx_bcast) : NULL;
clone->avx_zero_opmask = op->avx_zero_opmask;
return clone;
}
void test_detail_x86_op_free(TestDetailX86Op *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_segment);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_index);
cs_mem_free(op->avx_bcast);
cs_mem_free(op);
}
bool test_expected_x86(csh *handle, cs_x86 *actual, TestDetailX86 *expected)
{
assert(handle && actual && expected);
compare_reg_ret(*handle, actual->sib_index, expected->sib_index, false);
compare_reg_ret(*handle, actual->sib_base, expected->sib_base, false);
compare_enum_ret(actual->xop_cc, expected->xop_cc, false);
compare_enum_ret(actual->sse_cc, expected->sse_cc, false);
compare_enum_ret(actual->avx_cc, expected->avx_cc, false);
compare_enum_ret(actual->avx_rm, expected->avx_rm, false);
if (expected->rex) {
compare_uint8_ret(actual->rex, expected->rex, false);
}
if (expected->addr_size) {
compare_uint8_ret(actual->addr_size, expected->addr_size, false);
}
if (expected->modrm) {
compare_uint8_ret(actual->modrm, expected->modrm, false);
}
if (expected->sib) {
compare_uint8_ret(actual->sib, expected->sib, false);
}
if (expected->disp) {
compare_int64_ret(actual->disp, expected->disp, false);
}
if (expected->sib_scale) {
compare_int8_ret(actual->sib_scale, expected->sib_scale, false);
}
compare_tbool_ret(actual->avx_sae, expected->avx_sae, false);
for (size_t i = 0; i < ARR_SIZE(actual->prefix); ++i) {
compare_enum_ret(actual->prefix[i], expected->prefix[i],
false);
}
for (size_t i = 0; i < ARR_SIZE(actual->opcode); ++i) {
if (expected->opcode[i] != 0) {
compare_uint8_ret(actual->opcode[i], expected->opcode[i],
false);
}
}
compare_bit_flags_64_ret(actual->eflags, expected->eflags,
expected->eflags_count, false);
compare_bit_flags_64_ret(actual->fpu_flags, expected->fpu_flags,
expected->fpu_flags_count, false);
if (expected->enc_modrm_offset) {
compare_uint8_ret(actual->encoding.modrm_offset,
expected->enc_modrm_offset, false);
}
if (expected->enc_disp_offset) {
compare_uint8_ret(actual->encoding.disp_offset,
expected->enc_disp_offset, false);
}
if (expected->enc_disp_size) {
compare_uint8_ret(actual->encoding.disp_size,
expected->enc_disp_size, false);
}
if (expected->enc_imm_offset) {
compare_uint8_ret(actual->encoding.imm_offset,
expected->enc_imm_offset, false);
}
if (expected->enc_imm_size) {
compare_uint8_ret(actual->encoding.imm_size,
expected->enc_imm_size, false);
}
if (expected->operands_count == 0) {
return true;
}
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
cs_x86_op *op = &actual->operands[i];
TestDetailX86Op *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
compare_enum_ret(op->avx_bcast, eop->avx_bcast, false);
compare_tbool_ret(op->avx_zero_opmask, eop->avx_zero_opmask,
false);
switch (op->type) {
default:
fprintf(stderr,
"arm op type %" PRId32 " not handled.\n",
op->type);
return false;
case X86_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case X86_OP_IMM:
compare_int64_ret(op->imm, eop->imm, false);
break;
case X86_OP_MEM:
compare_reg_ret(*handle, op->mem.segment,
eop->mem_segment, false);
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
if (eop->mem_disp) {
compare_int64_ret(op->mem.disp, eop->mem_disp, false);
}
if (eop->mem_scale) {
compare_int_ret(op->mem.scale, eop->mem_scale,
false);
}
break;
}
}
return true;
}

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@@ -0,0 +1,113 @@
// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include "test_detail_xcore.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
TestDetailXCore *test_detail_xcore_new()
{
return cs_mem_calloc(sizeof(TestDetailXCore), 1);
}
void test_detail_xcore_free(TestDetailXCore *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_xcore_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail);
}
TestDetailXCore *test_detail_xcore_clone(const TestDetailXCore *detail)
{
TestDetailXCore *clone = test_detail_xcore_new();
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailXCoreOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_xcore_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailXCoreOp *test_detail_xcore_op_new()
{
return cs_mem_calloc(sizeof(TestDetailXCoreOp), 1);
}
TestDetailXCoreOp *test_detail_xcore_op_clone(const TestDetailXCoreOp *op)
{
TestDetailXCoreOp *clone = test_detail_xcore_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_index = op->mem_index ? strdup(op->mem_index) : NULL;
clone->mem_disp = op->mem_disp;
clone->mem_direct = op->mem_direct;
return clone;
}
void test_detail_xcore_op_free(TestDetailXCoreOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op->mem_index);
cs_mem_free(op);
}
bool test_expected_xcore(csh *handle, const cs_xcore *actual,
const TestDetailXCore *expected)
{
assert(handle && actual && expected);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_xcore_op *op = &actual->operands[i];
TestDetailXCoreOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
switch (op->type) {
default:
fprintf(stderr,
"arm op type %" PRId32 " not handled.\n",
op->type);
return false;
case XCORE_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case XCORE_OP_IMM:
compare_int32_ret(op->imm, eop->imm, false);
break;
case XCORE_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_reg_ret(*handle, op->mem.index, eop->mem_index,
false);
compare_int_ret(op->mem.disp, eop->mem_disp, false);
if (eop->mem_direct) {
compare_int_ret(op->mem.direct, eop->mem_direct,
false);
}
break;
}
}
return true;
}

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// Copyright © 2024 Rot127 <unisono@quyllur.org>
// Copyright © 2024 Billow <billow.fun@gmail.com>
// SPDX-License-Identifier: BSD-3
#include "test_compare.h"
#include <capstone/capstone.h>
#include <stdio.h>
#include <string.h>
#include <test_detail_xtensa.h>
TestDetailXtensa *test_detail_xtensa_new()
{
return cs_mem_calloc(sizeof(TestDetailXtensa), 1);
}
void test_detail_xtensa_free(TestDetailXtensa *detail)
{
if (!detail) {
return;
}
for (size_t i = 0; i < detail->operands_count; ++i) {
test_detail_xtensa_op_free(detail->operands[i]);
}
cs_mem_free(detail->operands);
cs_mem_free(detail->format);
cs_mem_free(detail);
}
TestDetailXtensa *test_detail_xtensa_clone(const TestDetailXtensa *detail)
{
TestDetailXtensa *clone = test_detail_xtensa_new();
clone->format = detail->format ? strdup(detail->format) : NULL;
clone->operands_count = detail->operands_count;
if (detail->operands_count > 0) {
clone->operands = cs_mem_calloc(sizeof(TestDetailXtensaOp *),
detail->operands_count);
}
for (size_t i = 0; i < detail->operands_count; ++i) {
clone->operands[i] =
test_detail_xtensa_op_clone(detail->operands[i]);
}
return clone;
}
TestDetailXtensaOp *test_detail_xtensa_op_new()
{
return cs_mem_calloc(sizeof(TestDetailXtensaOp), 1);
}
TestDetailXtensaOp *test_detail_xtensa_op_clone(const TestDetailXtensaOp *op)
{
TestDetailXtensaOp *clone = test_detail_xtensa_op_new();
clone->type = op->type ? strdup(op->type) : NULL;
clone->access = op->access ? strdup(op->access) : NULL;
clone->reg = op->reg ? strdup(op->reg) : NULL;
clone->imm = op->imm;
clone->mem_base = op->mem_base ? strdup(op->mem_base) : NULL;
clone->mem_disp = op->mem_disp;
return clone;
}
void test_detail_xtensa_op_free(TestDetailXtensaOp *op)
{
if (!op) {
return;
}
cs_mem_free(op->type);
cs_mem_free(op->access);
cs_mem_free(op->reg);
cs_mem_free(op->mem_base);
cs_mem_free(op);
}
bool test_expected_xtensa(csh *handle, const cs_xtensa *actual,
const TestDetailXtensa *expected)
{
assert(handle && actual && expected);
compare_enum_ret(actual->format, expected->format, false);
compare_uint8_ret(actual->op_count, expected->operands_count, false);
for (size_t i = 0; i < actual->op_count; ++i) {
const cs_xtensa_op *op = &actual->operands[i];
TestDetailXtensaOp *eop = expected->operands[i];
compare_enum_ret(op->type, eop->type, false);
compare_enum_ret(op->access, eop->access, false);
switch (op->type) {
default:
fprintf(stderr,
"xtensa op type %" PRId32 " not handled.\n",
op->type);
return false;
case XTENSA_OP_REG:
compare_reg_ret(*handle, op->reg, eop->reg, false);
break;
case XTENSA_OP_L32R:
case XTENSA_OP_IMM:
compare_int32_ret(op->imm, eop->imm, false);
break;
case XTENSA_OP_MEM:
compare_reg_ret(*handle, op->mem.base, eop->mem_base,
false);
compare_int32_ret(op->mem.disp, eop->mem_disp, false);
break;
}
}
return true;
}

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@@ -0,0 +1,330 @@
// Copyright © 2024 Rot127 <unisono@quyllur.org>
// SPDX-License-Identifier: BSD-3
#include "test_run.h"
#include "test_case.h"
#include "test_mapping.h"
#include "../../../utils.h"
#include <stdarg.h>
#include <stddef.h>
#include <setjmp.h>
#include "cmocka.h"
#include <capstone/capstone.h>
#include <stdbool.h>
#include <stdio.h>
static TestRunResult get_test_run_result(TestRunStats *stats)
{
if (stats->tc_total !=
stats->successful + stats->failed + stats->skipped) {
fprintf(stderr,
"[!] Inconsistent statistics: total != successful + failed + skipped\n");
stats->errors++;
return TEST_RUN_ERROR;
}
if (stats->errors != 0) {
return TEST_RUN_ERROR;
} else if (stats->failed != 0) {
return TEST_RUN_FAILURE;
}
return TEST_RUN_SUCCESS;
}
/// Extract all test cases from the given test files.
static TestFile **parse_test_files(char **tf_paths, uint32_t path_count,
TestRunStats *stats)
{
TestFile **files = NULL;
stats->tc_total = 0;
for (size_t i = 0; i < path_count; ++i) {
TestFile *test_file_data = NULL;
cyaml_err_t err = cyaml_load_file(
tf_paths[i], &cyaml_config, &test_file_schema,
(cyaml_data_t **)&test_file_data, NULL);
if (err != CYAML_OK || !test_file_data) {
fprintf(stderr, "[!] Failed to parse test file '%s'\n",
tf_paths[i]);
fprintf(stderr, "[!] Error: '%s'\n",
!test_file_data && err == CYAML_OK ?
"Empty file" :
cyaml_strerror(err));
stats->invalid_files++;
stats->errors++;
continue;
}
size_t k = stats->valid_test_files++;
// Copy all test cases of a test file
files = cs_mem_realloc(files, sizeof(TestFile *) *
stats->valid_test_files);
files[k] = test_file_clone(test_file_data);
assert(files[k]);
stats->tc_total += files[k]->test_cases_count;
files[k]->filename = strrchr(tf_paths[i], '/') ?
strdup(strrchr(tf_paths[i], '/')) :
strdup(tf_paths[i]);
err = cyaml_free(&cyaml_config, &test_file_schema,
test_file_data, 0);
if (err != CYAML_OK) {
fprintf(stderr, "[!] Error: '%s'\n",
cyaml_strerror(err));
stats->errors++;
continue;
}
}
return files;
}
/// Parses the @input and saves the results in the other arguments.
static bool parse_input_options(const TestInput *input, cs_arch *arch,
cs_mode *mode, cs_opt *opt_arr,
size_t opt_arr_size, size_t *opt_set)
{
assert(input && arch && mode && opt_arr);
bool arch_found = false;
const char *opt_str = input->arch;
int val = enum_map_bin_search(test_arch_map, ARR_SIZE(test_arch_map),
opt_str, &arch_found);
if (arch_found) {
*arch = val;
} else {
fprintf(stderr,
"[!] '%s' is not mapped to a capstone architecture.\n",
input->arch);
return false;
}
*mode = 0;
size_t opt_idx = 0;
char **options = input->options;
for (size_t i = 0; i < input->options_count; ++i) {
bool opt_found = false;
opt_str = options[i];
val = enum_map_bin_search(test_mode_map,
ARR_SIZE(test_mode_map),
opt_str, &opt_found);
if (opt_found) {
*mode |= val;
continue;
}
// Might be an option descriptor
for (size_t k = 0; k < ARR_SIZE(test_option_map); k++) {
if (strings_match(opt_str, test_option_map[k].str)) {
if (opt_idx >= opt_arr_size) {
fprintf(stderr,
"Too many options given in: '%s'. Maximum is: %" PRId64
"\n",
opt_str,
(uint64_t)opt_arr_size);
return false;
}
opt_arr[opt_idx++] = test_option_map[k].opt;
opt_found = true;
break;
}
}
if (!opt_found) {
fprintf(stderr, "[!] Option: '%s' not used\n", opt_str);
}
}
*opt_set = opt_idx;
return true;
}
/// Parses the options for cs_open/cs_option and initializes the handle.
/// Returns true for success and false otherwise.
static bool open_cs_handle(UnitTestState *ustate)
{
cs_arch arch = 0;
cs_mode mode = 0;
cs_opt options[8] = { 0 };
size_t options_set = 0;
if (!parse_input_options(ustate->tcase->input, &arch, &mode, options, 8,
&options_set)) {
char *tc_str = test_input_stringify(ustate->tcase->input, "");
fprintf(stderr, "Could not parse options: %s\n", tc_str);
cs_mem_free(tc_str);
return false;
}
cs_err err = cs_open(arch, mode, &ustate->handle);
if (err != CS_ERR_OK) {
char *tc_str = test_input_stringify(ustate->tcase->input, "");
fprintf(stderr,
"[!] cs_open() failed with: '%s'. TestInput: %s\n",
cs_strerror(err), tc_str);
cs_mem_free(tc_str);
return false;
}
// The bit mode must be set, otherwise the numbers are
// not normalized correctly in the asm-test comparison step.
if (arch == CS_ARCH_AARCH64 || mode & CS_MODE_64) {
ustate->arch_bits = 64;
} else if (mode & CS_MODE_16) {
ustate->arch_bits = 16;
} else {
ustate->arch_bits = 32;
}
for (size_t i = 0; i < options_set; ++i) {
err = cs_option(ustate->handle, options[i].type,
options[i].val);
if (err != CS_ERR_OK) {
goto option_error;
}
}
return true;
option_error: {
char *tc_str = test_input_stringify(ustate->tcase->input, "");
fprintf(stderr, "[!] cs_option() failed with: '%s'. TestInput: %s\n",
cs_strerror(err), tc_str);
cs_mem_free(tc_str);
cs_close(&ustate->handle);
return false;
}
}
static int cstest_unit_test_setup(void **state)
{
assert(state);
UnitTestState *ustate = *state;
assert(ustate->tcase);
if (!open_cs_handle(ustate)) {
fail_msg("Failed to initialize Capstone with given options.");
return -1;
}
return 0;
}
static int cstest_unit_test_teardown(void **state)
{
if (!state) {
return 0;
}
UnitTestState *ustate = *state;
if (ustate->handle) {
cs_err err = cs_close(&ustate->handle);
if (err != CS_ERR_OK) {
fail_msg("cs_close() failed with: '%s'.",
cs_strerror(err));
return -1;
}
}
return 0;
}
static void cstest_unit_test(void **state)
{
assert(state);
UnitTestState *ustate = *state;
assert(ustate);
assert(ustate->handle);
assert(ustate->tcase);
csh handle = ustate->handle;
TestCase *tcase = ustate->tcase;
cs_insn *insns = NULL;
size_t insns_count = cs_disasm(handle, tcase->input->bytes,
tcase->input->bytes_count,
tcase->input->address, 0, &insns);
test_expected_compare(&ustate->handle, tcase->expected, insns,
insns_count, ustate->arch_bits);
ustate->decoded_insns += insns_count;
cs_free(insns, insns_count);
}
static void eval_test_cases(TestFile **test_files, TestRunStats *stats)
{
assert(test_files && stats);
// CMocka's API doesn't allow to init a CMUnitTest with a partially initialized state
// (which is later initialized in the test setup).
// So we do it manually here.
struct CMUnitTest *utest_table =
cs_mem_calloc(sizeof(struct CMUnitTest),
stats->tc_total); // Number of test cases.
char utest_id[128] = { 0 };
size_t tci = 0;
for (size_t i = 0; i < stats->valid_test_files; ++i) {
TestCase **test_cases = test_files[i]->test_cases;
const char *filename = test_files[i]->filename ?
test_files[i]->filename :
NULL;
for (size_t k = 0; k < test_files[i]->test_cases_count;
++k, ++tci) {
cs_snprintf(utest_id, sizeof(utest_id),
"%s - TC #%" PRIx32 ": ", filename, k);
if (test_cases[k]->skip) {
char *tc_name = test_input_stringify(
test_cases[k]->input, utest_id);
fprintf(stderr, "SKIP: %s\nReason: %s\n",
tc_name, test_cases[k]->skip_reason);
cs_mem_free(tc_name);
stats->skipped++;
continue;
}
UnitTestState *ut_state =
cs_mem_calloc(sizeof(UnitTestState), 1);
ut_state->tcase = test_cases[k];
utest_table[tci].name = test_input_stringify(
ut_state->tcase->input, utest_id);
utest_table[tci].initial_state = ut_state;
utest_table[tci].setup_func = cstest_unit_test_setup;
utest_table[tci].teardown_func =
cstest_unit_test_teardown;
utest_table[tci].test_func = cstest_unit_test;
}
}
assert(tci == stats->tc_total);
// Use private function here, because the API takes only constant tables.
int failed_tests = _cmocka_run_group_tests(
"All test cases", utest_table, stats->tc_total, NULL, NULL);
assert(failed_tests >= 0 && "Faulty return value");
for (size_t i = 0; i < stats->tc_total; ++i) {
UnitTestState *ustate = utest_table[i].initial_state;
if (!ustate) {
// Skipped test case
continue;
}
stats->decoded_insns += ustate->decoded_insns;
cs_mem_free((char *)utest_table[i].name);
cs_mem_free(utest_table[i].initial_state);
}
cs_mem_free(utest_table);
stats->failed += failed_tests;
stats->successful += stats->tc_total - failed_tests - stats->skipped;
}
/// Runs runs all valid tests in the given @test_files
/// and returns the result as well as statistics in @stats.
TestRunResult cstest_run_tests(char **test_file_paths, uint32_t path_count,
TestRunStats *stats)
{
TestFile **files = parse_test_files(test_file_paths, path_count, stats);
if (!files) {
return get_test_run_result(stats);
}
eval_test_cases(files, stats);
for (size_t i = 0; i < stats->valid_test_files; ++i) {
test_file_free(files[i]);
}
cs_mem_free(files);
return get_test_run_result(stats);
}