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qemu/tests/test-visitor-serialization.c
Eric Blake fdf235ba15 tests: Silence false positive warning on generated test name 
Running 'make check' on rawhide with gcc 8.0.1 fails:

tests/test-visitor-serialization.c: In function 'main':
tests/test-visitor-serialization.c:1127:34: error: '/primitives/' directive writing 12 bytes into a region of size between 1 and 128 [-Werror=format-overflow=]

The warning is a false positive (we have two buffers of size 128,
so yes, if we FULLY used the first buffer, then sprint'ing it into
the second will overflow the second).  But in practice, our first
buffer will not be longer than "/visitor/serialization/String",
so sizing it smaller is enough to let gcc see that we don't
overflow the second.

Signed-off-by: Eric Blake <eblake@redhat.com>
Message-Id: <20180323204341.1501664-1-eblake@redhat.com>
Reviewed-by: Marc-André Lureau <marcandre.lureau@redhat.com>
2018-03-27 10:17:32 -05:00

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/*
* Unit-tests for visitor-based serialization
*
* Copyright (C) 2014-2015 Red Hat, Inc.
* Copyright IBM, Corp. 2012
*
* Authors:
* Michael Roth <mdroth@linux.vnet.ibm.com>
*
* This work is licensed under the terms of the GNU GPL, version 2 or later.
* See the COPYING file in the top-level directory.
*/
#include "qemu/osdep.h"
#include <float.h>
#include "qemu-common.h"
#include "test-qapi-visit.h"
#include "qapi/error.h"
#include "qapi/qmp/qjson.h"
#include "qapi/qmp/qstring.h"
#include "qapi/qobject-input-visitor.h"
#include "qapi/qobject-output-visitor.h"
#include "qapi/string-input-visitor.h"
#include "qapi/string-output-visitor.h"
#include "qapi/dealloc-visitor.h"
enum PrimitiveTypeKind {
PTYPE_STRING = 0,
PTYPE_BOOLEAN,
PTYPE_NUMBER,
PTYPE_INTEGER,
PTYPE_U8,
PTYPE_U16,
PTYPE_U32,
PTYPE_U64,
PTYPE_S8,
PTYPE_S16,
PTYPE_S32,
PTYPE_S64,
PTYPE_EOL,
};
typedef struct PrimitiveType {
union {
const char *string;
bool boolean;
double number;
int64_t integer;
uint8_t u8;
uint16_t u16;
uint32_t u32;
uint64_t u64;
int8_t s8;
int16_t s16;
int32_t s32;
int64_t s64;
intmax_t max;
} value;
enum PrimitiveTypeKind type;
const char *description;
} PrimitiveType;
typedef struct PrimitiveList {
union {
strList *strings;
boolList *booleans;
numberList *numbers;
intList *integers;
int8List *s8_integers;
int16List *s16_integers;
int32List *s32_integers;
int64List *s64_integers;
uint8List *u8_integers;
uint16List *u16_integers;
uint32List *u32_integers;
uint64List *u64_integers;
} value;
enum PrimitiveTypeKind type;
const char *description;
} PrimitiveList;
/* test helpers */
typedef void (*VisitorFunc)(Visitor *v, void **native, Error **errp);
static void dealloc_helper(void *native_in, VisitorFunc visit, Error **errp)
{
Visitor *v = qapi_dealloc_visitor_new();
visit(v, &native_in, errp);
visit_free(v);
}
static void visit_primitive_type(Visitor *v, void **native, Error **errp)
{
PrimitiveType *pt = *native;
switch(pt->type) {
case PTYPE_STRING:
visit_type_str(v, NULL, (char **)&pt->value.string, errp);
break;
case PTYPE_BOOLEAN:
visit_type_bool(v, NULL, &pt->value.boolean, errp);
break;
case PTYPE_NUMBER:
visit_type_number(v, NULL, &pt->value.number, errp);
break;
case PTYPE_INTEGER:
visit_type_int(v, NULL, &pt->value.integer, errp);
break;
case PTYPE_U8:
visit_type_uint8(v, NULL, &pt->value.u8, errp);
break;
case PTYPE_U16:
visit_type_uint16(v, NULL, &pt->value.u16, errp);
break;
case PTYPE_U32:
visit_type_uint32(v, NULL, &pt->value.u32, errp);
break;
case PTYPE_U64:
visit_type_uint64(v, NULL, &pt->value.u64, errp);
break;
case PTYPE_S8:
visit_type_int8(v, NULL, &pt->value.s8, errp);
break;
case PTYPE_S16:
visit_type_int16(v, NULL, &pt->value.s16, errp);
break;
case PTYPE_S32:
visit_type_int32(v, NULL, &pt->value.s32, errp);
break;
case PTYPE_S64:
visit_type_int64(v, NULL, &pt->value.s64, errp);
break;
case PTYPE_EOL:
g_assert_not_reached();
}
}
static void visit_primitive_list(Visitor *v, void **native, Error **errp)
{
PrimitiveList *pl = *native;
switch (pl->type) {
case PTYPE_STRING:
visit_type_strList(v, NULL, &pl->value.strings, errp);
break;
case PTYPE_BOOLEAN:
visit_type_boolList(v, NULL, &pl->value.booleans, errp);
break;
case PTYPE_NUMBER:
visit_type_numberList(v, NULL, &pl->value.numbers, errp);
break;
case PTYPE_INTEGER:
visit_type_intList(v, NULL, &pl->value.integers, errp);
break;
case PTYPE_S8:
visit_type_int8List(v, NULL, &pl->value.s8_integers, errp);
break;
case PTYPE_S16:
visit_type_int16List(v, NULL, &pl->value.s16_integers, errp);
break;
case PTYPE_S32:
visit_type_int32List(v, NULL, &pl->value.s32_integers, errp);
break;
case PTYPE_S64:
visit_type_int64List(v, NULL, &pl->value.s64_integers, errp);
break;
case PTYPE_U8:
visit_type_uint8List(v, NULL, &pl->value.u8_integers, errp);
break;
case PTYPE_U16:
visit_type_uint16List(v, NULL, &pl->value.u16_integers, errp);
break;
case PTYPE_U32:
visit_type_uint32List(v, NULL, &pl->value.u32_integers, errp);
break;
case PTYPE_U64:
visit_type_uint64List(v, NULL, &pl->value.u64_integers, errp);
break;
default:
g_assert_not_reached();
}
}
static TestStruct *struct_create(void)
{
TestStruct *ts = g_malloc0(sizeof(*ts));
ts->integer = -42;
ts->boolean = true;
ts->string = strdup("test string");
return ts;
}
static void struct_compare(TestStruct *ts1, TestStruct *ts2)
{
g_assert(ts1);
g_assert(ts2);
g_assert_cmpint(ts1->integer, ==, ts2->integer);
g_assert(ts1->boolean == ts2->boolean);
g_assert_cmpstr(ts1->string, ==, ts2->string);
}
static void struct_cleanup(TestStruct *ts)
{
g_free(ts->string);
g_free(ts);
}
static void visit_struct(Visitor *v, void **native, Error **errp)
{
visit_type_TestStruct(v, NULL, (TestStruct **)native, errp);
}
static UserDefTwo *nested_struct_create(void)
{
UserDefTwo *udnp = g_malloc0(sizeof(*udnp));
udnp->string0 = strdup("test_string0");
udnp->dict1 = g_malloc0(sizeof(*udnp->dict1));
udnp->dict1->string1 = strdup("test_string1");
udnp->dict1->dict2 = g_malloc0(sizeof(*udnp->dict1->dict2));
udnp->dict1->dict2->userdef = g_new0(UserDefOne, 1);
udnp->dict1->dict2->userdef->integer = 42;
udnp->dict1->dict2->userdef->string = strdup("test_string");
udnp->dict1->dict2->string = strdup("test_string2");
udnp->dict1->dict3 = g_malloc0(sizeof(*udnp->dict1->dict3));
udnp->dict1->has_dict3 = true;
udnp->dict1->dict3->userdef = g_new0(UserDefOne, 1);
udnp->dict1->dict3->userdef->integer = 43;
udnp->dict1->dict3->userdef->string = strdup("test_string");
udnp->dict1->dict3->string = strdup("test_string3");
return udnp;
}
static void nested_struct_compare(UserDefTwo *udnp1, UserDefTwo *udnp2)
{
g_assert(udnp1);
g_assert(udnp2);
g_assert_cmpstr(udnp1->string0, ==, udnp2->string0);
g_assert_cmpstr(udnp1->dict1->string1, ==, udnp2->dict1->string1);
g_assert_cmpint(udnp1->dict1->dict2->userdef->integer, ==,
udnp2->dict1->dict2->userdef->integer);
g_assert_cmpstr(udnp1->dict1->dict2->userdef->string, ==,
udnp2->dict1->dict2->userdef->string);
g_assert_cmpstr(udnp1->dict1->dict2->string, ==,
udnp2->dict1->dict2->string);
g_assert(udnp1->dict1->has_dict3 == udnp2->dict1->has_dict3);
g_assert_cmpint(udnp1->dict1->dict3->userdef->integer, ==,
udnp2->dict1->dict3->userdef->integer);
g_assert_cmpstr(udnp1->dict1->dict3->userdef->string, ==,
udnp2->dict1->dict3->userdef->string);
g_assert_cmpstr(udnp1->dict1->dict3->string, ==,
udnp2->dict1->dict3->string);
}
static void nested_struct_cleanup(UserDefTwo *udnp)
{
qapi_free_UserDefTwo(udnp);
}
static void visit_nested_struct(Visitor *v, void **native, Error **errp)
{
visit_type_UserDefTwo(v, NULL, (UserDefTwo **)native, errp);
}
static void visit_nested_struct_list(Visitor *v, void **native, Error **errp)
{
visit_type_UserDefTwoList(v, NULL, (UserDefTwoList **)native, errp);
}
/* test cases */
typedef enum VisitorCapabilities {
VCAP_PRIMITIVES = 1,
VCAP_STRUCTURES = 2,
VCAP_LISTS = 4,
VCAP_PRIMITIVE_LISTS = 8,
} VisitorCapabilities;
typedef struct SerializeOps {
void (*serialize)(void *native_in, void **datap,
VisitorFunc visit, Error **errp);
void (*deserialize)(void **native_out, void *datap,
VisitorFunc visit, Error **errp);
void (*cleanup)(void *datap);
const char *type;
VisitorCapabilities caps;
} SerializeOps;
typedef struct TestArgs {
const SerializeOps *ops;
void *test_data;
} TestArgs;
static void test_primitives(gconstpointer opaque)
{
TestArgs *args = (TestArgs *) opaque;
const SerializeOps *ops = args->ops;
PrimitiveType *pt = args->test_data;
PrimitiveType *pt_copy = g_malloc0(sizeof(*pt_copy));
void *serialize_data;
pt_copy->type = pt->type;
ops->serialize(pt, &serialize_data, visit_primitive_type, &error_abort);
ops->deserialize((void **)&pt_copy, serialize_data, visit_primitive_type,
&error_abort);
g_assert(pt_copy != NULL);
if (pt->type == PTYPE_STRING) {
g_assert_cmpstr(pt->value.string, ==, pt_copy->value.string);
g_free((char *)pt_copy->value.string);
} else if (pt->type == PTYPE_NUMBER) {
GString *double_expected = g_string_new("");
GString *double_actual = g_string_new("");
/* we serialize with %f for our reference visitors, so rather than fuzzy
* floating math to test "equality", just compare the formatted values
*/
g_string_printf(double_expected, "%.6f", pt->value.number);
g_string_printf(double_actual, "%.6f", pt_copy->value.number);
g_assert_cmpstr(double_actual->str, ==, double_expected->str);
g_string_free(double_expected, true);
g_string_free(double_actual, true);
} else if (pt->type == PTYPE_BOOLEAN) {
g_assert_cmpint(!!pt->value.max, ==, !!pt->value.max);
} else {
g_assert_cmpint(pt->value.max, ==, pt_copy->value.max);
}
ops->cleanup(serialize_data);
g_free(args);
g_free(pt_copy);
}
static void test_primitive_lists(gconstpointer opaque)
{
TestArgs *args = (TestArgs *) opaque;
const SerializeOps *ops = args->ops;
PrimitiveType *pt = args->test_data;
PrimitiveList pl = { .value = { NULL } };
PrimitiveList pl_copy = { .value = { NULL } };
PrimitiveList *pl_copy_ptr = &pl_copy;
void *serialize_data;
void *cur_head = NULL;
int i;
pl.type = pl_copy.type = pt->type;
/* build up our list of primitive types */
for (i = 0; i < 32; i++) {
switch (pl.type) {
case PTYPE_STRING: {
strList *tmp = g_new0(strList, 1);
tmp->value = g_strdup(pt->value.string);
if (pl.value.strings == NULL) {
pl.value.strings = tmp;
} else {
tmp->next = pl.value.strings;
pl.value.strings = tmp;
}
break;
}
case PTYPE_INTEGER: {
intList *tmp = g_new0(intList, 1);
tmp->value = pt->value.integer;
if (pl.value.integers == NULL) {
pl.value.integers = tmp;
} else {
tmp->next = pl.value.integers;
pl.value.integers = tmp;
}
break;
}
case PTYPE_S8: {
int8List *tmp = g_new0(int8List, 1);
tmp->value = pt->value.s8;
if (pl.value.s8_integers == NULL) {
pl.value.s8_integers = tmp;
} else {
tmp->next = pl.value.s8_integers;
pl.value.s8_integers = tmp;
}
break;
}
case PTYPE_S16: {
int16List *tmp = g_new0(int16List, 1);
tmp->value = pt->value.s16;
if (pl.value.s16_integers == NULL) {
pl.value.s16_integers = tmp;
} else {
tmp->next = pl.value.s16_integers;
pl.value.s16_integers = tmp;
}
break;
}
case PTYPE_S32: {
int32List *tmp = g_new0(int32List, 1);
tmp->value = pt->value.s32;
if (pl.value.s32_integers == NULL) {
pl.value.s32_integers = tmp;
} else {
tmp->next = pl.value.s32_integers;
pl.value.s32_integers = tmp;
}
break;
}
case PTYPE_S64: {
int64List *tmp = g_new0(int64List, 1);
tmp->value = pt->value.s64;
if (pl.value.s64_integers == NULL) {
pl.value.s64_integers = tmp;
} else {
tmp->next = pl.value.s64_integers;
pl.value.s64_integers = tmp;
}
break;
}
case PTYPE_U8: {
uint8List *tmp = g_new0(uint8List, 1);
tmp->value = pt->value.u8;
if (pl.value.u8_integers == NULL) {
pl.value.u8_integers = tmp;
} else {
tmp->next = pl.value.u8_integers;
pl.value.u8_integers = tmp;
}
break;
}
case PTYPE_U16: {
uint16List *tmp = g_new0(uint16List, 1);
tmp->value = pt->value.u16;
if (pl.value.u16_integers == NULL) {
pl.value.u16_integers = tmp;
} else {
tmp->next = pl.value.u16_integers;
pl.value.u16_integers = tmp;
}
break;
}
case PTYPE_U32: {
uint32List *tmp = g_new0(uint32List, 1);
tmp->value = pt->value.u32;
if (pl.value.u32_integers == NULL) {
pl.value.u32_integers = tmp;
} else {
tmp->next = pl.value.u32_integers;
pl.value.u32_integers = tmp;
}
break;
}
case PTYPE_U64: {
uint64List *tmp = g_new0(uint64List, 1);
tmp->value = pt->value.u64;
if (pl.value.u64_integers == NULL) {
pl.value.u64_integers = tmp;
} else {
tmp->next = pl.value.u64_integers;
pl.value.u64_integers = tmp;
}
break;
}
case PTYPE_NUMBER: {
numberList *tmp = g_new0(numberList, 1);
tmp->value = pt->value.number;
if (pl.value.numbers == NULL) {
pl.value.numbers = tmp;
} else {
tmp->next = pl.value.numbers;
pl.value.numbers = tmp;
}
break;
}
case PTYPE_BOOLEAN: {
boolList *tmp = g_new0(boolList, 1);
tmp->value = pt->value.boolean;
if (pl.value.booleans == NULL) {
pl.value.booleans = tmp;
} else {
tmp->next = pl.value.booleans;
pl.value.booleans = tmp;
}
break;
}
default:
g_assert_not_reached();
}
}
ops->serialize((void **)&pl, &serialize_data, visit_primitive_list,
&error_abort);
ops->deserialize((void **)&pl_copy_ptr, serialize_data,
visit_primitive_list, &error_abort);
i = 0;
/* compare our deserialized list of primitives to the original */
do {
switch (pl_copy.type) {
case PTYPE_STRING: {
strList *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.strings;
}
g_assert_cmpstr(pt->value.string, ==, ptr->value);
break;
}
case PTYPE_INTEGER: {
intList *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.integers;
}
g_assert_cmpint(pt->value.integer, ==, ptr->value);
break;
}
case PTYPE_S8: {
int8List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.s8_integers;
}
g_assert_cmpint(pt->value.s8, ==, ptr->value);
break;
}
case PTYPE_S16: {
int16List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.s16_integers;
}
g_assert_cmpint(pt->value.s16, ==, ptr->value);
break;
}
case PTYPE_S32: {
int32List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.s32_integers;
}
g_assert_cmpint(pt->value.s32, ==, ptr->value);
break;
}
case PTYPE_S64: {
int64List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.s64_integers;
}
g_assert_cmpint(pt->value.s64, ==, ptr->value);
break;
}
case PTYPE_U8: {
uint8List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.u8_integers;
}
g_assert_cmpint(pt->value.u8, ==, ptr->value);
break;
}
case PTYPE_U16: {
uint16List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.u16_integers;
}
g_assert_cmpint(pt->value.u16, ==, ptr->value);
break;
}
case PTYPE_U32: {
uint32List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.u32_integers;
}
g_assert_cmpint(pt->value.u32, ==, ptr->value);
break;
}
case PTYPE_U64: {
uint64List *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.u64_integers;
}
g_assert_cmpint(pt->value.u64, ==, ptr->value);
break;
}
case PTYPE_NUMBER: {
numberList *ptr;
GString *double_expected = g_string_new("");
GString *double_actual = g_string_new("");
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.numbers;
}
/* we serialize with %f for our reference visitors, so rather than
* fuzzy floating math to test "equality", just compare the
* formatted values
*/
g_string_printf(double_expected, "%.6f", pt->value.number);
g_string_printf(double_actual, "%.6f", ptr->value);
g_assert_cmpstr(double_actual->str, ==, double_expected->str);
g_string_free(double_expected, true);
g_string_free(double_actual, true);
break;
}
case PTYPE_BOOLEAN: {
boolList *ptr;
if (cur_head) {
ptr = cur_head;
cur_head = ptr->next;
} else {
cur_head = ptr = pl_copy.value.booleans;
}
g_assert_cmpint(!!pt->value.boolean, ==, !!ptr->value);
break;
}
default:
g_assert_not_reached();
}
i++;
} while (cur_head);
g_assert_cmpint(i, ==, 33);
ops->cleanup(serialize_data);
dealloc_helper(&pl, visit_primitive_list, &error_abort);
dealloc_helper(&pl_copy, visit_primitive_list, &error_abort);
g_free(args);
}
static void test_struct(gconstpointer opaque)
{
TestArgs *args = (TestArgs *) opaque;
const SerializeOps *ops = args->ops;
TestStruct *ts = struct_create();
TestStruct *ts_copy = NULL;
void *serialize_data;
ops->serialize(ts, &serialize_data, visit_struct, &error_abort);
ops->deserialize((void **)&ts_copy, serialize_data, visit_struct,
&error_abort);
struct_compare(ts, ts_copy);
struct_cleanup(ts);
struct_cleanup(ts_copy);
ops->cleanup(serialize_data);
g_free(args);
}
static void test_nested_struct(gconstpointer opaque)
{
TestArgs *args = (TestArgs *) opaque;
const SerializeOps *ops = args->ops;
UserDefTwo *udnp = nested_struct_create();
UserDefTwo *udnp_copy = NULL;
void *serialize_data;
ops->serialize(udnp, &serialize_data, visit_nested_struct, &error_abort);
ops->deserialize((void **)&udnp_copy, serialize_data, visit_nested_struct,
&error_abort);
nested_struct_compare(udnp, udnp_copy);
nested_struct_cleanup(udnp);
nested_struct_cleanup(udnp_copy);
ops->cleanup(serialize_data);
g_free(args);
}
static void test_nested_struct_list(gconstpointer opaque)
{
TestArgs *args = (TestArgs *) opaque;
const SerializeOps *ops = args->ops;
UserDefTwoList *listp = NULL, *tmp, *tmp_copy, *listp_copy = NULL;
void *serialize_data;
int i = 0;
for (i = 0; i < 8; i++) {
tmp = g_new0(UserDefTwoList, 1);
tmp->value = nested_struct_create();
tmp->next = listp;
listp = tmp;
}
ops->serialize(listp, &serialize_data, visit_nested_struct_list,
&error_abort);
ops->deserialize((void **)&listp_copy, serialize_data,
visit_nested_struct_list, &error_abort);
tmp = listp;
tmp_copy = listp_copy;
while (listp_copy) {
g_assert(listp);
nested_struct_compare(listp->value, listp_copy->value);
listp = listp->next;
listp_copy = listp_copy->next;
}
qapi_free_UserDefTwoList(tmp);
qapi_free_UserDefTwoList(tmp_copy);
ops->cleanup(serialize_data);
g_free(args);
}
static PrimitiveType pt_values[] = {
/* string tests */
{
.description = "string_empty",
.type = PTYPE_STRING,
.value.string = "",
},
{
.description = "string_whitespace",
.type = PTYPE_STRING,
.value.string = "a b c\td",
},
{
.description = "string_newlines",
.type = PTYPE_STRING,
.value.string = "a\nb\n",
},
{
.description = "string_commas",
.type = PTYPE_STRING,
.value.string = "a,b, c,d",
},
{
.description = "string_single_quoted",
.type = PTYPE_STRING,
.value.string = "'a b',cd",
},
{
.description = "string_double_quoted",
.type = PTYPE_STRING,
.value.string = "\"a b\",cd",
},
/* boolean tests */
{
.description = "boolean_true1",
.type = PTYPE_BOOLEAN,
.value.boolean = true,
},
{
.description = "boolean_true2",
.type = PTYPE_BOOLEAN,
.value.boolean = 8,
},
{
.description = "boolean_true3",
.type = PTYPE_BOOLEAN,
.value.boolean = -1,
},
{
.description = "boolean_false1",
.type = PTYPE_BOOLEAN,
.value.boolean = false,
},
{
.description = "boolean_false2",
.type = PTYPE_BOOLEAN,
.value.boolean = 0,
},
/* number tests (double) */
/* note: we format these to %.6f before comparing, since that's how
* we serialize them and it doesn't make sense to check precision
* beyond that.
*/
{
.description = "number_sanity1",
.type = PTYPE_NUMBER,
.value.number = -1,
},
{
.description = "number_sanity2",
.type = PTYPE_NUMBER,
.value.number = 3.14159265,
},
{
.description = "number_min",
.type = PTYPE_NUMBER,
.value.number = DBL_MIN,
},
{
.description = "number_max",
.type = PTYPE_NUMBER,
.value.number = DBL_MAX,
},
/* integer tests (int64) */
{
.description = "integer_sanity1",
.type = PTYPE_INTEGER,
.value.integer = -1,
},
{
.description = "integer_sanity2",
.type = PTYPE_INTEGER,
.value.integer = INT64_MAX / 2 + 1,
},
{
.description = "integer_min",
.type = PTYPE_INTEGER,
.value.integer = INT64_MIN,
},
{
.description = "integer_max",
.type = PTYPE_INTEGER,
.value.integer = INT64_MAX,
},
/* uint8 tests */
{
.description = "uint8_sanity1",
.type = PTYPE_U8,
.value.u8 = 1,
},
{
.description = "uint8_sanity2",
.type = PTYPE_U8,
.value.u8 = UINT8_MAX / 2 + 1,
},
{
.description = "uint8_min",
.type = PTYPE_U8,
.value.u8 = 0,
},
{
.description = "uint8_max",
.type = PTYPE_U8,
.value.u8 = UINT8_MAX,
},
/* uint16 tests */
{
.description = "uint16_sanity1",
.type = PTYPE_U16,
.value.u16 = 1,
},
{
.description = "uint16_sanity2",
.type = PTYPE_U16,
.value.u16 = UINT16_MAX / 2 + 1,
},
{
.description = "uint16_min",
.type = PTYPE_U16,
.value.u16 = 0,
},
{
.description = "uint16_max",
.type = PTYPE_U16,
.value.u16 = UINT16_MAX,
},
/* uint32 tests */
{
.description = "uint32_sanity1",
.type = PTYPE_U32,
.value.u32 = 1,
},
{
.description = "uint32_sanity2",
.type = PTYPE_U32,
.value.u32 = UINT32_MAX / 2 + 1,
},
{
.description = "uint32_min",
.type = PTYPE_U32,
.value.u32 = 0,
},
{
.description = "uint32_max",
.type = PTYPE_U32,
.value.u32 = UINT32_MAX,
},
/* uint64 tests */
{
.description = "uint64_sanity1",
.type = PTYPE_U64,
.value.u64 = 1,
},
{
.description = "uint64_sanity2",
.type = PTYPE_U64,
.value.u64 = UINT64_MAX / 2 + 1,
},
{
.description = "uint64_min",
.type = PTYPE_U64,
.value.u64 = 0,
},
{
.description = "uint64_max",
.type = PTYPE_U64,
.value.u64 = UINT64_MAX,
},
/* int8 tests */
{
.description = "int8_sanity1",
.type = PTYPE_S8,
.value.s8 = -1,
},
{
.description = "int8_sanity2",
.type = PTYPE_S8,
.value.s8 = INT8_MAX / 2 + 1,
},
{
.description = "int8_min",
.type = PTYPE_S8,
.value.s8 = INT8_MIN,
},
{
.description = "int8_max",
.type = PTYPE_S8,
.value.s8 = INT8_MAX,
},
/* int16 tests */
{
.description = "int16_sanity1",
.type = PTYPE_S16,
.value.s16 = -1,
},
{
.description = "int16_sanity2",
.type = PTYPE_S16,
.value.s16 = INT16_MAX / 2 + 1,
},
{
.description = "int16_min",
.type = PTYPE_S16,
.value.s16 = INT16_MIN,
},
{
.description = "int16_max",
.type = PTYPE_S16,
.value.s16 = INT16_MAX,
},
/* int32 tests */
{
.description = "int32_sanity1",
.type = PTYPE_S32,
.value.s32 = -1,
},
{
.description = "int32_sanity2",
.type = PTYPE_S32,
.value.s32 = INT32_MAX / 2 + 1,
},
{
.description = "int32_min",
.type = PTYPE_S32,
.value.s32 = INT32_MIN,
},
{
.description = "int32_max",
.type = PTYPE_S32,
.value.s32 = INT32_MAX,
},
/* int64 tests */
{
.description = "int64_sanity1",
.type = PTYPE_S64,
.value.s64 = -1,
},
{
.description = "int64_sanity2",
.type = PTYPE_S64,
.value.s64 = INT64_MAX / 2 + 1,
},
{
.description = "int64_min",
.type = PTYPE_S64,
.value.s64 = INT64_MIN,
},
{
.description = "int64_max",
.type = PTYPE_S64,
.value.s64 = INT64_MAX,
},
{ .type = PTYPE_EOL }
};
/* visitor-specific op implementations */
typedef struct QmpSerializeData {
Visitor *qov;
QObject *obj;
Visitor *qiv;
} QmpSerializeData;
static void qmp_serialize(void *native_in, void **datap,
VisitorFunc visit, Error **errp)
{
QmpSerializeData *d = g_malloc0(sizeof(*d));
d->qov = qobject_output_visitor_new(&d->obj);
visit(d->qov, &native_in, errp);
*datap = d;
}
static void qmp_deserialize(void **native_out, void *datap,
VisitorFunc visit, Error **errp)
{
QmpSerializeData *d = datap;
QString *output_json;
QObject *obj_orig, *obj;
visit_complete(d->qov, &d->obj);
obj_orig = d->obj;
output_json = qobject_to_json(obj_orig);
obj = qobject_from_json(qstring_get_str(output_json), &error_abort);
QDECREF(output_json);
d->qiv = qobject_input_visitor_new(obj);
qobject_decref(obj_orig);
qobject_decref(obj);
visit(d->qiv, native_out, errp);
}
static void qmp_cleanup(void *datap)
{
QmpSerializeData *d = datap;
visit_free(d->qov);
visit_free(d->qiv);
g_free(d);
}
typedef struct StringSerializeData {
char *string;
Visitor *sov;
Visitor *siv;
} StringSerializeData;
static void string_serialize(void *native_in, void **datap,
VisitorFunc visit, Error **errp)
{
StringSerializeData *d = g_malloc0(sizeof(*d));
d->sov = string_output_visitor_new(false, &d->string);
visit(d->sov, &native_in, errp);
*datap = d;
}
static void string_deserialize(void **native_out, void *datap,
VisitorFunc visit, Error **errp)
{
StringSerializeData *d = datap;
visit_complete(d->sov, &d->string);
d->siv = string_input_visitor_new(d->string);
visit(d->siv, native_out, errp);
}
static void string_cleanup(void *datap)
{
StringSerializeData *d = datap;
visit_free(d->sov);
visit_free(d->siv);
g_free(d->string);
g_free(d);
}
/* visitor registration, test harness */
/* note: to function interchangeably as a serialization mechanism your
* visitor test implementation should pass the test cases for all visitor
* capabilities: primitives, structures, and lists
*/
static const SerializeOps visitors[] = {
{
.type = "QMP",
.serialize = qmp_serialize,
.deserialize = qmp_deserialize,
.cleanup = qmp_cleanup,
.caps = VCAP_PRIMITIVES | VCAP_STRUCTURES | VCAP_LISTS |
VCAP_PRIMITIVE_LISTS
},
{
.type = "String",
.serialize = string_serialize,
.deserialize = string_deserialize,
.cleanup = string_cleanup,
.caps = VCAP_PRIMITIVES
},
{ NULL }
};
static void add_visitor_type(const SerializeOps *ops)
{
char testname_prefix[32];
char testname[128];
TestArgs *args;
int i = 0;
sprintf(testname_prefix, "/visitor/serialization/%s", ops->type);
if (ops->caps & VCAP_PRIMITIVES) {
while (pt_values[i].type != PTYPE_EOL) {
sprintf(testname, "%s/primitives/%s", testname_prefix,
pt_values[i].description);
args = g_malloc0(sizeof(*args));
args->ops = ops;
args->test_data = &pt_values[i];
g_test_add_data_func(testname, args, test_primitives);
i++;
}
}
if (ops->caps & VCAP_STRUCTURES) {
sprintf(testname, "%s/struct", testname_prefix);
args = g_malloc0(sizeof(*args));
args->ops = ops;
args->test_data = NULL;
g_test_add_data_func(testname, args, test_struct);
sprintf(testname, "%s/nested_struct", testname_prefix);
args = g_malloc0(sizeof(*args));
args->ops = ops;
args->test_data = NULL;
g_test_add_data_func(testname, args, test_nested_struct);
}
if (ops->caps & VCAP_LISTS) {
sprintf(testname, "%s/nested_struct_list", testname_prefix);
args = g_malloc0(sizeof(*args));
args->ops = ops;
args->test_data = NULL;
g_test_add_data_func(testname, args, test_nested_struct_list);
}
if (ops->caps & VCAP_PRIMITIVE_LISTS) {
i = 0;
while (pt_values[i].type != PTYPE_EOL) {
sprintf(testname, "%s/primitive_list/%s", testname_prefix,
pt_values[i].description);
args = g_malloc0(sizeof(*args));
args->ops = ops;
args->test_data = &pt_values[i];
g_test_add_data_func(testname, args, test_primitive_lists);
i++;
}
}
}
int main(int argc, char **argv)
{
int i = 0;
g_test_init(&argc, &argv, NULL);
while (visitors[i].type != NULL) {
add_visitor_type(&visitors[i]);
i++;
}
g_test_run();
return 0;
}
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