Files
shadowsocks-libev/tests/test_buffer_cpp.cpp
T
Max Lv ee7539155d C++20 port 16/16: config parsing on arenas, unit tests in C++ (#3080)
* Rename test_jconf.c to test_jconf_cpp.cpp

* Parse the config file on arenas

read_jconf now reads the file and builds the JSON tree in a scratch arena
that is released before it returns, and copies the parsed strings into one
process-lifetime arena instead of a malloc per string. parse_addr and the
config parser share one address splitter.

Port test_jconf to C++ and cover every field copied out of the parse tree,
a re-read, and the densest file the size limit accepts.

* tests: rename remaining C unit tests to .cpp (no content changes)

* tests: port remaining C unit tests to the C++ test harness

Convert acl, acl_literal, aead2022, base64, buffer, cache (legacy
reference), crypto, ipset, ipset_reference, json, netutils, ppbloom,
process, ref, ssurl and utils tests to test_helpers.hpp. ctest names are
unchanged; every assertion is kept. Build the ported sources with the
strict C++ warning set.

* Run clang-tidy on every ported test

The test regex skipped file names with digits (test_aead2022_cpp.cpp,
test_base64_cpp.cpp); include them, fix the two optional accesses it then
reports, and build test_jconf with the strict warning set.

* docs: per-connection RSS on Linux against the C relay

* test_jconf: check read_jconf results before using them
2026-10-15 10:17:23 +08:00

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1.8 KiB
C++

// SPDX-License-Identifier: GPL-3.0-or-later
// Legacy buffer helpers in the C crypto reference (tests/reference/crypto.h):
// balloc, brealloc and bprepend.
#include <cstdlib>
#include <cstring>
#include "test_helpers.hpp"
#include "crypto.h"
extern "C" {
int verbose = 0;
// Provide the nonce_cache symbol needed by the crypto reference.
struct cache *nonce_cache = nullptr;
}
namespace {
void test_balloc()
{
buffer_t buf;
std::memset(&buf, 0, sizeof(buf));
SS_CHECK(balloc(&buf, 100) == 100);
SS_CHECK(buf.data != nullptr);
SS_CHECK(buf.capacity >= 100);
SS_CHECK(buf.len == 0);
SS_CHECK(buf.idx == 0);
bfree(&buf);
SS_CHECK(buf.data == nullptr);
SS_CHECK(buf.capacity == 0);
}
void test_brealloc()
{
buffer_t buf;
std::memset(&buf, 0, sizeof(buf));
balloc(&buf, 50);
buf.len = 10;
// Grow the buffer.
SS_CHECK(brealloc(&buf, 10, 200) == 200);
SS_CHECK(buf.capacity >= 200);
SS_CHECK(buf.len == 10);
bfree(&buf);
}
void test_bprepend()
{
buffer_t dst;
buffer_t src;
std::memset(&dst, 0, sizeof(dst));
std::memset(&src, 0, sizeof(src));
balloc(&dst, 100);
balloc(&src, 100);
std::memcpy(src.data, "HEADER", 6);
src.len = 6;
std::memcpy(dst.data, "BODY", 4);
dst.len = 4;
SS_CHECK(bprepend(&dst, &src, 200) == 10);
SS_CHECK(dst.len == 10);
SS_CHECK(std::memcmp(dst.data, "HEADERBODY", 10) == 0);
bfree(&dst);
bfree(&src);
}
void test_balloc_zero()
{
buffer_t buf;
std::memset(&buf, 0, sizeof(buf));
SS_CHECK(balloc(&buf, 0) == 0);
// A zero-capacity buffer should still succeed.
bfree(&buf);
}
} // namespace
int main()
{
SS_RUN(test_balloc);
SS_RUN(test_brealloc);
SS_RUN(test_bprepend);
SS_RUN(test_balloc_zero);
return 0;
}