YREA-SLS/SLS_C/tests/lexer_tests.c

1447 lines
38 KiB
C

// Kyler Olsen
// YREA SLS
// Lexer Tests
// October 2025
#include <stdlib.h>
#include <stdint.h>
#include <string.h>
#include <math.h>
#include "sls/sls_errors.h"
#include "sls/lexer.h"
#include "tests/tests.h"
static const size_t NUM_OF_TESTS = 6;
static const double FLOAT_TEST_PRECISION = 0.01;
typedef struct {
TestResult result;
LexerInfo lexer_info;
} LexerTest;
typedef struct {
const char *value;
size_t length;
} ArrayStringValues;
// Test start and end helpers
static LexerTest start_up_test(const char *test_name, const char *test_code) {
LexerTest test = (LexerTest) {
.result = (TestResult) {
.name = test_name, .status = TEST_NOT_IMPLEMENTED } };
lexer_init(&test.lexer_info, TEST_FILE_NAME, test_code);
return test;
}
static void clean_up_test(LexerResult result) {
if (result.type == SLS_RESULT)
clean_token_result(result.result);
}
static TestResult logic_fail_test(
LexerTest *test,
LexerResult result,
const char *message
) {
if (message == 0) return error_test(test, result, (SlsError) {
.message = "Out of Memory Error!", .code = 3458, });
clean_up_test(result);
test->result.status = TEST_LOGIC_FAIL;
test->result.message = message;
return test->result;
}
static TestResult error_fail_test(
LexerTest *test,
LexerResult result,
SlsError error
) {
clean_up_test(result);
test->result.status = TEST_ERROR_FAIL;
test->result.error = error;
return test->result;
}
static TestResult error_test(
LexerTest *test,
LexerResult result,
SlsError error
) {
clean_up_test(result);
test->result.status = TEST_ERROR;
test->result.error = error;
return test->result;
}
static TestResult skip_test(LexerTest *test, LexerResult result) {
clean_up_test(result);
test->result.status = TEST_NOT_IMPLEMENTED;
return test->result;
}
static TestResult pass_test(LexerTest *test, LexerResult result) {
clean_up_test(result);
test->result.status = TEST_PASS;
return test->result;
}
// Test messages
static char *unexpected_end_of_token_stream(size_t i) {
size_t length = ceil(log10(i)) + 47;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Unexpected end of token stream (%d tokens found)",
i - 1
);
return string;
}
static char *expected_end_of_token_stream(size_t i) {
size_t length = ceil(log10(i)) + 47;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Expected end of token stream (more than %d tokens found)",
i - 1
);
return string;
}
static char *token_should_be(size_t i, TokenType should, TokenType found) {
size_t length =
ceil(log10(i + 1)) +
strnlen(TOKEN_TYPES_NAMES[should], TYPE_NAMES_SAFE_LENGTH) +
strnlen(TOKEN_TYPES_NAMES[found], TYPE_NAMES_SAFE_LENGTH) +
35;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d should be a %s, but found a %s",
i,
TOKEN_TYPES_NAMES[should],
TOKEN_TYPES_NAMES[found]
);
return string;
}
static char *integer_type_should_be(
size_t i,
TokenType should,
TokenType found
) {
size_t length =
ceil(log10(i + 1)) +
strnlen(INTEGER_TYPES_NAMES[should], 5) +
strnlen(INTEGER_TYPES_NAMES[found], 5) +
48;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d integer type should be a %s, but found a %s",
i,
TOKEN_TYPES_NAMES[should],
TOKEN_TYPES_NAMES[found]
);
return string;
}
static char *integer_value_should_be(
size_t i,
uint64_t should,
uint64_t found
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(should + 1)) +
ceil(log10(found + 1)) +
45;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d integer value should be %d, but found %d",
i,
should,
found
);
return string;
}
static char *float_value_should_be(size_t i, double should, double found) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(should + 1) + 3) +
ceil(log10(found + 1) + 3) +
43;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d float value should be %.2f, but found %.2f",
i,
should,
found
);
return string;
}
static char *identifier_should_be_literal(size_t i) {
size_t length = ceil(log10(i + 1)) + 51;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d identifier should be an identifier literal",
i
);
return string;
}
static char *identifier_should_not_be_literal(size_t i) {
size_t length = ceil(log10(i + 1)) + 55;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d identifier should not be an identifier literal",
i
);
return string;
}
static char *token_length_should_be(
size_t i,
TokenType type,
uint64_t should,
uint64_t found
) {
size_t length =
ceil(log10(i + 1)) +
strnlen(TOKEN_TYPES_NAMES[type], TYPE_NAMES_SAFE_LENGTH) +
ceil(log10(should + 1)) +
ceil(log10(found + 1)) +
47;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d of type %s length should be %d, but found %d",
i,
TOKEN_TYPES_NAMES[type],
should,
found
);
return string;
}
static char *token_value_string_should_be(
size_t i,
TokenType type,
size_t value_length,
const char *should,
const char *found
) {
size_t length =
ceil(log10(i + 1)) +
strnlen(TOKEN_TYPES_NAMES[type], TYPE_NAMES_SAFE_LENGTH) +
strnlen(should, value_length) +
strnlen(found, value_length) +
53;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d of type %s string value should be %s, but found %s",
i,
TOKEN_TYPES_NAMES[type],
should,
found
);
return string;
}
static char *boolean_should_be(size_t i, Boolean value) {
size_t length = ceil(log10(i + 1)) + 45;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
if (value)
snprintf(
string,
length,
"Token #%d boolean should be true, but is false",
i
);
else
snprintf(
string,
length,
"Token #%d boolean should be false, but is true",
i
);
return string;
}
static char *array_type_should_be(size_t i, ArrayType should, ArrayType found) {
size_t length =
ceil(log10(i + 1)) +
strnlen(ARRAY_TYPES_NAMES[should], TYPE_NAMES_SAFE_LENGTH) +
strnlen(ARRAY_TYPES_NAMES[found], TYPE_NAMES_SAFE_LENGTH) +
35;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d should be a %s, but found a %s",
i,
ARRAY_TYPES_NAMES[should],
ARRAY_TYPES_NAMES[found]
);
return string;
}
static char *array_dimensions_should_be(size_t i, size_t should, size_t found) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(should + 1)) +
ceil(log10(found + 1)) +
48;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d array dimensions should be %s, but found %s",
i,
should,
found
);
return string;
}
static char *array_element_shape_should_be(
size_t i,
size_t j,
ArrayType type,
uint64_t should,
uint64_t found
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(j + 1)) +
strnlen(ARRAY_TYPES_NAMES[type], TYPE_NAMES_SAFE_LENGTH) +
ceil(log10(should + 1) + 3) +
ceil(log10(found + 1) + 3) +
63;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d dimension %d of array type %s should be shape %d, but found %d",
i,
j,
TOKEN_TYPES_NAMES[type],
should,
found
);
return string;
}
static char *array_element_integer_should_be(
size_t i,
size_t j,
ArrayType type,
uint64_t should,
uint64_t found
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(j + 1)) +
strnlen(ARRAY_TYPES_NAMES[type], TYPE_NAMES_SAFE_LENGTH) +
ceil(log10(should + 1) + 3) +
ceil(log10(found + 1) + 3) +
55;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d element %d of array type %s should be %d, but found %d",
i,
j,
TOKEN_TYPES_NAMES[type],
should,
found
);
return string;
}
static char *array_element_float_should_be(
size_t i,
size_t j,
ArrayType type,
double should,
double found
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(j + 1)) +
strnlen(ARRAY_TYPES_NAMES[type], TYPE_NAMES_SAFE_LENGTH) +
ceil(log10(should + 1)) +
ceil(log10(found + 1)) +
55;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d element %d of array type %s should be %.2f, but found %.2f",
i,
j,
TOKEN_TYPES_NAMES[type],
should,
found
);
return string;
}
static char *array_element_string_should_be(
size_t i,
size_t j,
ArrayType type,
size_t value_length,
const char *should,
const char *found
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(j + 1)) +
strnlen(ARRAY_TYPES_NAMES[type], TYPE_NAMES_SAFE_LENGTH) +
strnlen(should, value_length) +
strnlen(found, value_length) +
55;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d element %d of array type %s should be %s, but found %s",
i,
j,
TOKEN_TYPES_NAMES[type],
should,
found
);
return string;
}
static char *array_element_boolean_should_be(
size_t i,
size_t j,
ArrayType type,
Boolean value
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(j + 1)) +
strnlen(ARRAY_TYPES_NAMES[type], TYPE_NAMES_SAFE_LENGTH) +
64;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
if (value)
snprintf(
string,
length,
"Token #%d element %d of array type %s should be true, but found false",
i,
j,
TOKEN_TYPES_NAMES[type]
);
else
snprintf(
string,
length,
"Token #%d element %d of array type %s should be false, but found true",
i,
j,
TOKEN_TYPES_NAMES[type]
);
return string;
}
static char *type_tuple_element_integer_should_be(
size_t i,
size_t j,
uint64_t should,
uint64_t found
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(j + 1)) +
ceil(log10(should + 1) + 3) +
ceil(log10(found + 1) + 3) +
54;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d element %d of type tuple should be %d, but found %d",
i,
j,
should,
found
);
return string;
}
static char *type_tuple_element_string_should_be(
size_t i,
size_t j,
size_t value_length,
const char *should,
const char *found
) {
size_t length =
ceil(log10(i + 1)) +
ceil(log10(j + 1)) +
strnlen(should, value_length) +
strnlen(found, value_length) +
54;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
snprintf(
string,
length,
"Token #%d element %d of type tuple should be %s, but found %s",
i,
j,
should,
found
);
return string;
}
static char *type_tuple_element_boolean_should_be(
size_t i,
size_t j,
Boolean value
) {
size_t length = ceil(log10(i + 1)) + ceil(log10(j + 1)) + 63;
char *string = malloc(sizeof(char) * length);
if (string = 0) return string;
if (value)
snprintf(
string,
length,
"Token #%d element %d of type tuple should be true, but found false",
i,
j
);
else
snprintf(
string,
length,
"Token #%d element %d of type tuple should be false, but found true",
i,
j
);
return string;
}
// Test parts
static Boolean test_token_type(
LexerTest *test,
LexerResult result,
size_t i,
TokenType token_type
) {
LexerTokenResult *head = get_token(result.result, i);
if (head == 0) {
logic_fail_test(test, result, unexpected_end_of_token_stream(i + 1));
return TRUE;
} if (head->type == SLS_ERROR) {
error_fail_test(test, result, result.error);
return TRUE;
} if (head->result.type != token_type) {
logic_fail_test(
test,
result,
token_should_be(i + 1, token_type, head->result.type)
);
return TRUE;
}
return FALSE;
}
static Boolean test_eof_value(LexerTest *test, LexerResult result, size_t i) {
static const TokenType token_type = TOKEN_EOF;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (head->next != 0) {
logic_fail_test(test, result, expected_end_of_token_stream(i + 1));
return TRUE;
}
return FALSE;
}
static Boolean test_identifier_value(
LexerTest *test,
LexerResult result,
size_t i,
Boolean is_literal,
size_t length,
const char *name
) {
static const TokenType token_type = TOKEN_IDENTIFIER;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (head->result.identifier.is_literal != is_literal) {
logic_fail_test(
test,
result,
is_literal
? identifier_should_be_literal(i + 1)
: identifier_should_not_be_literal(i + 1)
);
return TRUE;
} if (head->result.identifier.length == strnlen(name, length)) {
logic_fail_test(
test,
result,
token_length_should_be(
i + 1,
token_type,
strnlen(name, length),
head->result.identifier.length
)
);
return TRUE;
} if (strncmp(head->result.identifier.name, name, length) != 0) {
logic_fail_test(
test,
result,
token_value_string_should_be(
i + 1,
token_type,
fmax(
strnlen(name, length),
strnlen(head->result.string_literal.value, length)
),
head->result.identifier.name,
name
)
);
return TRUE;
}
return FALSE;
}
static Boolean test_integer_value(
LexerTest *test,
LexerResult result,
size_t i,
IntegerBuiltInType type,
uint64_t value
) {
static const TokenType token_type = TOKEN_INTEGER;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (head->result.integer_literal.type != type) {
logic_fail_test(
test,
result,
integer_type_should_be(
i + 1,
type,
head->result.integer_literal.type
)
);
return TRUE;
} if (head->result.integer_literal.value != value) {
logic_fail_test(
test,
result,
integer_value_should_be(
i + 1,
value,
head->result.integer_literal.value
)
);
return TRUE;
}
return FALSE;
}
static Boolean test_float_value(
LexerTest *test,
LexerResult result,
size_t i,
float value
) {
static const TokenType token_type = TOKEN_FLOAT;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (fabsf(head->result.float_literal - value) >= FLOAT_TEST_PRECISION) {
logic_fail_test(
test,
result,
float_value_should_be(i + 1, value, head->result.float_literal)
);
return TRUE;
}
return FALSE;
}
static Boolean test_double_value(
LexerTest *test,
LexerResult result,
size_t i,
double value
) {
static const TokenType token_type = TOKEN_DOUBLE;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (fabs(head->result.float_literal - value) >= FLOAT_TEST_PRECISION) {
logic_fail_test(
test,
result,
float_value_should_be(i + 1, value, head->result.float_literal)
);
return TRUE;
}
return FALSE;
}
static Boolean test_string_value(
LexerTest *test,
LexerResult result,
size_t i,
size_t length,
const char *value
) {
static const TokenType token_type = TOKEN_STRING;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (head->result.string_literal.length == strnlen(value, length)) {
logic_fail_test(
test,
result,
token_length_should_be(
i + 1,
token_type,
strnlen(value, length),
head->result.string_literal.length
)
);
return TRUE;
} if (strncmp(head->result.string_literal.value, value, length) != 0) {
logic_fail_test(
test,
result,
token_value_string_should_be(
i + 1,
token_type,
fmax(
strnlen(value, length),
strnlen(head->result.string_literal.value, length)
),
value,
head->result.string_literal.value
)
);
return TRUE;
}
return FALSE;
}
static Boolean test_boolean_value(
LexerTest *test,
LexerResult result,
size_t i,
Boolean value
) {
static const TokenType token_type = TOKEN_BOOLEAN;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (head->result.boolean_literal != value) {
logic_fail_test(test, result, boolean_should_be(i + 1, value));
return TRUE;
}
return FALSE;
}
static Boolean test_array_type(
LexerTest *test,
LexerResult result,
size_t i,
ArrayType array_type,
size_t *shape,
size_t dimensions
) {
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, TOKEN_ARRAY)) {
return TRUE;
} if (head->result.array_literal.type != array_type) {
logic_fail_test(
test,
result,
array_type_should_be(
i + 1,
array_type,
head->result.array_literal.type
)
);
return TRUE;
} if (head->result.array_literal.dimensions != dimensions) {
logic_fail_test(
test,
result,
array_dimensions_should_be(
i + 1,
dimensions,
head->result.array_literal.dimensions
)
);
return TRUE;
}
for (int j = 0; j < dimensions; j++) {
if (head->result.array_literal.shape[j] != shape[j]) {
logic_fail_test(
test,
result,
array_element_shape_should_be(
i + 1,
j,
array_type,
shape[j],
head->result.array_literal.shape[j]
)
);
return TRUE;
}
}
return FALSE;
}
static Boolean test_array_identifier_value(
LexerTest *test,
LexerResult result,
size_t i,
ArrayStringValues *values,
size_t *shape,
size_t dimensions
) {
static const ArrayType array_type = ARRAY_IDENTIFIER;
LexerTokenResult *head = get_token(result.result, i);
if (test_array_type(test, result, i, array_type, shape, dimensions)) {
return TRUE;
}
size_t length = 1;
for (int j = 0; j < dimensions; j++) length *= shape[j];
for (int j = 0; j < length; j++) {
if (
head->result.array_literal.identifiers[j].length ==
values[j].length
) {
logic_fail_test(
test,
result,
array_element_integer_should_be(
i + 1,
j,
array_type,
values[j].length,
head->result.array_literal.identifiers[j].length
)
);
return TRUE;
} if (
strncmp(
head->result.array_literal.identifiers[j].name,
values[j].value,
values[j].length
)
) {
logic_fail_test(
test,
result,
array_element_string_should_be(
i + 1,
j,
array_type,
values[j].length,
values[j].value,
head->result.array_literal.identifiers[j].name
)
);
return TRUE;
} if (!head->result.array_literal.identifiers[j].is_literal) {
logic_fail_test(
test,
result,
array_element_boolean_should_be(
i + 1,
j,
array_type,
TRUE
)
);
return TRUE;
}
}
return FALSE;
}
static Boolean test_array_integer_value(
LexerTest *test,
LexerResult result,
size_t i,
IntegerBuiltInType array_type,
uint64_t *values,
size_t *shape,
size_t dimensions
) {
LexerTokenResult *head = get_token(result.result, i);
if (test_array_type(test, result, i, array_type, shape, dimensions)) {
return TRUE;
}
size_t length = 1;
for (int j = 0; j < dimensions; j++) length *= shape[j];
for (int j = 0; j < length; j++) {
if (head->result.array_literal.integer_literals[j] == values[j]) {
logic_fail_test(
test,
result,
array_element_integer_should_be(
i + 1,
j,
array_type,
values[j],
head->result.array_literal.integer_literals[j]
)
);
return TRUE;
}
}
return FALSE;
}
static Boolean test_array_float_value(
LexerTest *test,
LexerResult result,
size_t i,
float *values,
size_t *shape,
size_t dimensions
) {
static const ArrayType array_type = ARRAY_FLOAT;
LexerTokenResult *head = get_token(result.result, i);
if (test_array_type(test, result, i, array_type, shape, dimensions)) {
return TRUE;
}
size_t length = 1;
for (int j = 0; j < dimensions; j++) length *= shape[j];
for (int j = 0; j < length; j++) {
if (
fabsf(
head->result.array_literal.float_literals[j] - values[j]
) >= FLOAT_TEST_PRECISION
) {
logic_fail_test(
test,
result,
array_element_float_should_be(
i + 1,
j,
array_type,
values[j],
head->result.array_literal.float_literals[j]
)
);
return TRUE;
}
}
return FALSE;
}
static Boolean test_array_double_value(
LexerTest *test,
LexerResult result,
size_t i,
double *values,
size_t *shape,
size_t dimensions
) {
static const ArrayType array_type = ARRAY_DOUBLE;
LexerTokenResult *head = get_token(result.result, i);
if (test_array_type(test, result, i, array_type, shape, dimensions)) {
return TRUE;
}
size_t length = 1;
for (int j = 0; j < dimensions; j++) length *= shape[j];
for (int j = 0; j < length; j++) {
if (
fabs(
head->result.array_literal.float_literals[j] - values[j]
) >= FLOAT_TEST_PRECISION
) {
logic_fail_test(
test,
result,
array_element_float_should_be(
i + 1,
j,
array_type,
values[j],
head->result.array_literal.float_literals[j]
)
);
return TRUE;
}
}
return FALSE;
}
static Boolean test_array_string_value(
LexerTest *test,
LexerResult result,
size_t i,
ArrayStringValues *values,
size_t *shape,
size_t dimensions
) {
static const ArrayType array_type = ARRAY_STRING;
LexerTokenResult *head = get_token(result.result, i);
if (test_array_type(test, result, i, array_type, shape, dimensions)) {
return TRUE;
}
size_t length = 1;
for (int j = 0; j < dimensions; j++) length *= shape[j];
for (int j = 0; j < length; j++) {
if (
head->result.array_literal.string_literals[j].length ==
values[j].length
) {
logic_fail_test(
test,
result,
array_element_integer_should_be(
i + 1,
j,
array_type,
values[j].length,
head->result.array_literal.string_literals[j].length
)
);
return TRUE;
} if (
strncmp(
head->result.array_literal.string_literals[j].value,
values[j].value,
values[j].length
)
) {
logic_fail_test(
test,
result,
array_element_string_should_be(
i + 1,
j,
array_type,
values[j].length,
values[j].value,
head->result.array_literal.string_literals[j].value
)
);
return TRUE;
}
}
return FALSE;
}
static Boolean test_array_boolean_value(
LexerTest *test,
LexerResult result,
size_t i,
Boolean *values,
size_t *shape,
size_t dimensions
) {
static const ArrayType array_type = ARRAY_BOOLEAN;
LexerTokenResult *head = get_token(result.result, i);
if (test_array_type(test, result, i, array_type, shape, dimensions)) {
return TRUE;
}
size_t length = 1;
for (int j = 0; j < dimensions; j++) length *= shape[j];
for (int j = 0; j < length; j++) {
if (head->result.array_literal.boolean_literals[j] == values[j]) {
logic_fail_test(
test,
result,
array_element_boolean_should_be(
i + 1,
j,
array_type,
values[j]
)
);
return TRUE;
}
}
return FALSE;
}
static Boolean test_array_token_string_value(
LexerTest *test,
LexerResult result,
size_t i,
void *values,
size_t *shape,
size_t dimensions
) {
error_test(
test,
result,
(SlsError) { .message = "Test case not implemented!", .code = 984, }
);
// TODO
return TRUE;
}
static Boolean test_array_type_tuple_value(
LexerTest *test,
LexerResult result,
size_t i,
void *values,
size_t *shape,
size_t dimensions
) {
error_test(
test,
result,
(SlsError) { .message = "Test case not implemented!", .code = 984, }
);
// TODO
return TRUE;
}
static Boolean test_array_struct_inline_value(
LexerTest *test,
LexerResult result,
size_t i,
void *values,
size_t *shape,
size_t dimensions
) {
error_test(
test,
result,
(SlsError) { .message = "Test case not implemented!", .code = 984, }
);
// TODO
return TRUE;
}
static Boolean test_token_string_value(
LexerTest *test,
LexerResult result,
size_t i,
void *value,
size_t *shape,
size_t dimensions
) {
error_test(
test,
result,
(SlsError) { .message = "Test case not implemented!", .code = 984, }
);
// TODO
return TRUE;
}
static Boolean test_type_tuple_value(
LexerTest *test,
LexerResult result,
size_t i,
ArrayStringValues *input_values,
size_t input_length,
ArrayStringValues *output_values,
size_t output_length
) {
static const TokenType token_type = TOKEN_TYPE_TUPLE;
LexerTokenResult *head = get_token(result.result, i);
if (test_token_type(test, result, i, token_type)) {
return TRUE;
} if (head->result.type_tuple.input_length != input_length) {
logic_fail_test(
test,
result,
token_length_should_be(
i + 1,
token_type,
input_length,
head->result.type_tuple.input_length
)
);
return TRUE;
} if (head->result.type_tuple.output_length != output_length) {
logic_fail_test(
test,
result,
token_length_should_be(
i + 1,
token_type,
output_length,
head->result.type_tuple.output_length
)
);
return TRUE;
} for (int j = 0; j < input_length; j++) {
if (
head->result.type_tuple.input_identifiers[j].length ==
input_values[j].length
) {
logic_fail_test(
test,
result,
type_tuple_element_integer_should_be(
i + 1,
j,
input_values[j].length,
head->result.type_tuple.input_identifiers[j].length
)
);
return TRUE;
} if (
strncmp(
head->result.type_tuple.input_identifiers[j].name,
input_values[j].value,
input_values[j].length
)
) {
logic_fail_test(
test,
result,
type_tuple_element_string_should_be(
i + 1,
j,
input_values[j].length,
input_values[j].value,
head->result.type_tuple.input_identifiers[j].name
)
);
return TRUE;
} if (!head->result.type_tuple.input_identifiers[j].is_literal) {
logic_fail_test(
test,
result,
type_tuple_element_boolean_should_be(i + 1, j, TRUE)
);
return TRUE;
}
} for (int j = 0; j < output_length; j++) {
if (
head->result.type_tuple.output_identifiers[j].length ==
output_values[j].length
) {
logic_fail_test(
test,
result,
type_tuple_element_integer_should_be(
i + 1,
j,
output_values[j].length,
head->result.type_tuple.output_identifiers[j].length
)
);
return TRUE;
} if (
strncmp(
head->result.type_tuple.output_identifiers[j].name,
output_values[j].value,
input_values[j].length
)
) {
logic_fail_test(
test,
result,
type_tuple_element_string_should_be(
i + 1,
j,
output_values[j].length,
output_values[j].value,
head->result.type_tuple.output_identifiers[j].name
)
);
return TRUE;
} if (!head->result.type_tuple.output_identifiers[j].is_literal) {
logic_fail_test(
test,
result,
type_tuple_element_boolean_should_be(i + 1, j, TRUE)
);
return TRUE;
}
}
return FALSE;
}
// Test cases
static TestResult test_add_statement() {
LexerTest test = start_up_test("test_add_statement", "3 4 +");
LexerResult result = lexical_analysis(&test.lexer_info);
if (result.type == SLS_ERROR)
return error_fail_test(&test, result, result.error);
size_t i = 0;
if (test_integer_value(&test, result, i++, INTEGER_I64, 3))
return test.result;
if (test_integer_value(&test, result, i++, INTEGER_I64, 4))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 1, "+"))
return test.result;
if (test_eof_value(&test, result, i++))
return test.result;
return pass_test(&test, result);
}
static TestResult test_sub_statement() {
LexerTest test = start_up_test("test_sub_statement", "10 3 -");
LexerResult result = lexical_analysis(&test.lexer_info);
if (result.type == SLS_ERROR)
return error_fail_test(&test, result, result.error);
size_t i = 0;
if (test_integer_value(&test, result, i++, INTEGER_I64, 10))
return test.result;
if (test_integer_value(&test, result, i++, INTEGER_I64, 3))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 1, "-"))
return test.result;
if (test_eof_value(&test, result, i++))
return test.result;
return pass_test(&test, result);
}
static TestResult test_mult_statement() {
LexerTest test = start_up_test("test_mult_statement", "5 6 *");
LexerResult result = lexical_analysis(&test.lexer_info);
if (result.type == SLS_ERROR)
return error_fail_test(&test, result, result.error);
size_t i = 0;
if (test_integer_value(&test, result, i++, INTEGER_I64, 5))
return test.result;
if (test_integer_value(&test, result, i++, INTEGER_I64, 6))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 1, "*"))
return test.result;
if (test_eof_value(&test, result, i++))
return test.result;
return pass_test(&test, result);
}
static TestResult test_div_statement() {
LexerTest test = start_up_test("test_div_statement", "20 4 /");
LexerResult result = lexical_analysis(&test.lexer_info);
if (result.type == SLS_ERROR)
return error_fail_test(&test, result, result.error);
size_t i = 0;
if (test_integer_value(&test, result, i++, INTEGER_I64, 20))
return test.result;
if (test_integer_value(&test, result, i++, INTEGER_I64, 4))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 1, "/"))
return test.result;
if (test_eof_value(&test, result, i++))
return test.result;
return pass_test(&test, result);
}
static TestResult test_add_and_mult_statement() {
LexerTest test = start_up_test("test_add_and_mult_statement", "2 3 + 4 *");
LexerResult result = lexical_analysis(&test.lexer_info);
if (result.type == SLS_ERROR)
return error_fail_test(&test, result, result.error);
size_t i = 0;
if (test_integer_value(&test, result, i++, INTEGER_I64, 2))
return test.result;
if (test_integer_value(&test, result, i++, INTEGER_I64, 3))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 1, "+"))
return test.result;
if (test_integer_value(&test, result, i++, INTEGER_I64, 4))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 1, "*"))
return test.result;
if (test_eof_value(&test, result, i++))
return test.result;
return pass_test(&test, result);
}
static TestResult test_dup_and_mult_statement() {
LexerTest test = start_up_test("test_dup_and_mult_statement", "10 dup *");
LexerResult result = lexical_analysis(&test.lexer_info);
if (result.type == SLS_ERROR)
return error_fail_test(&test, result, result.error);
size_t i = 0;
if (test_integer_value(&test, result, i++, INTEGER_I64, 10))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 3, "dup"))
return test.result;
if (test_identifier_value(&test, result, i++, FALSE, 1, "*"))
return test.result;
if (test_eof_value(&test, result, i++))
return test.result;
return pass_test(&test, result);
}
// Lexer Tests Runner
TestsReport run_lexer_tests() {
TestsReport test_report = (TestsReport) {
.section = "lexer_tests",
.count = NUM_OF_TESTS,
.tests = malloc(sizeof(TestResult) * NUM_OF_TESTS),
};
size_t i = 0;
test_report.tests[i++] = test_add_statement();
test_report.tests[i++] = test_sub_statement();
test_report.tests[i++] = test_mult_statement();
test_report.tests[i++] = test_div_statement();
test_report.tests[i++] = test_add_and_mult_statement();
test_report.tests[i++] = test_dup_and_mult_statement();
return test_report;
}