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683d1393d7
sol2/tests/runtime_tests/source/functions.cpp
ThePhD 683d1393d7
std function can be empty 
fixes #862
2019-08-27 18:36:45 -04:00

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// sol3
// The MIT License (MIT)
// Copyright (c) 2013-2019 Rapptz, ThePhD and contributors
// Permission is hereby granted, free of charge, to any person obtaining a copy of
// this software and associated documentation files (the "Software"), to deal in
// the Software without restriction, including without limitation the rights to
// use, copy, modify, merge, publish, distribute, sublicense, and/or sell copies of
// the Software, and to permit persons to whom the Software is furnished to do so,
// subject to the following conditions:
// The above copyright notice and this permission notice shall be included in all
// copies or substantial portions of the Software.
// THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
// IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS
// FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR
// COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER
// IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN
// CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.
#include "sol_test.hpp"
#include <catch.hpp>
#include <iostream>
template <typename T>
T va_func(sol::variadic_args va, T first) {
T s = 0;
for (auto arg : va) {
T v = arg;
s += v;
}
std::cout << first << std::endl;
std::cout << s << std::endl;
return s;
}
struct A {
int a = 0xA;
int bark() {
return 1;
}
};
std::tuple<int, int> bark(int num_value, A* a) {
return std::tuple<int, int>(num_value * 2, a->bark());
}
int overloaded(int x) {
INFO(x);
return 3;
}
int overloaded(int x, int y) {
INFO(x << " " << y);
return 7;
}
int overloaded(int x, int y, int z) {
INFO(x << " " << y << " " << z);
return 11;
}
int non_overloaded(int x, int y, int z) {
INFO(x << " " << y << " " << z);
return 13;
}
namespace sep {
int plop_xyz(int x, int y, std::string z) {
INFO(x << " " << y << " " << z);
return 11;
}
} // namespace sep
int func_1(int) {
return 1;
}
std::string func_1s(std::string a) {
return "string: " + a;
}
int func_2(int, int) {
return 2;
}
void func_3(int, int, int) {
}
int f1(int) {
return 32;
}
int f2(int, int) {
return 1;
}
struct fer {
double f3(int, int) {
return 2.5;
}
};
static int raw_noexcept_function(lua_State* L) noexcept {
return sol::stack::push(L, 0x63);
}
TEST_CASE("functions/tuple returns", "Make sure tuple returns are ordered properly") {
sol::state lua;
auto result1 = lua.safe_script("function f() return '3', 4 end", sol::script_pass_on_error);
REQUIRE(result1.valid());
std::tuple<std::string, int> result = lua["f"]();
auto s = std::get<0>(result);
auto v = std::get<1>(result);
REQUIRE(s == "3");
REQUIRE(v == 4);
}
TEST_CASE("functions/overload resolution", "Check if overloaded function resolution templates compile/work") {
sol::state lua;
sol::stack_guard luasg(lua);
lua.open_libraries(sol::lib::base);
lua.set_function("non_overloaded", non_overloaded);
{
auto result = lua.safe_script("x = non_overloaded(1, 2, 3)\nprint(x)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
/*
// Cannot reasonably support: clang++ refuses to try enough
// deductions to make this work
lua.set_function<int>("overloaded", overloaded);
{ auto result = lua.safe_script("print(overloaded(1))", sol::script_pass_on_error); REQUIRE(result.valid()); }
lua.set_function<int, int>("overloaded", overloaded);
{ auto result = lua.safe_script("print(overloaded(1, 2))", sol::script_pass_on_error); REQUIRE(result.valid()); }
lua.set_function<int, int, int>("overloaded", overloaded);
{ auto result = lua.safe_script("print(overloaded(1, 2, 3))", sol::script_pass_on_error); REQUIRE(result.valid()); }
*/
lua.set_function("overloaded", sol::resolve<int(int)>(overloaded));
{
auto result = lua.safe_script("print(overloaded(1))", sol::script_pass_on_error);
REQUIRE(result.valid());
}
lua.set_function("overloaded", sol::resolve<int(int, int)>(overloaded));
{
auto result = lua.safe_script("print(overloaded(1, 2))", sol::script_pass_on_error);
REQUIRE(result.valid());
}
lua.set_function("overloaded", sol::resolve<int(int, int, int)>(overloaded));
{
auto result = lua.safe_script("print(overloaded(1, 2, 3))", sol::script_pass_on_error);
REQUIRE(result.valid());
}
}
TEST_CASE("functions/return order and multi get", "Check if return order is in the same reading order specified in Lua") {
const static std::tuple<int, int, int> triple = std::make_tuple(10, 11, 12);
const static std::tuple<int, float> paired = std::make_tuple(10, 10.f);
sol::state lua;
sol::stack_guard luasg(lua);
lua.set_function("f", [] { return std::make_tuple(10, 11, 12); });
lua.set_function("h", []() { return std::make_tuple(10, 10.0f); });
auto result1 = lua.safe_script("function g() return 10, 11, 12 end\nx,y,z = g()", sol::script_pass_on_error);
REQUIRE(result1.valid());
auto tcpp = lua.get<sol::function>("f").call<int, int, int>();
auto tlua = lua.get<sol::function>("g").call<int, int, int>();
auto tcpp2 = lua.get<sol::function>("h").call<int, float>();
auto tluaget = lua.get<int, int, int>("x", "y", "z");
REQUIRE(tcpp == triple);
REQUIRE(tlua == triple);
REQUIRE(tluaget == triple);
REQUIRE(tcpp2 == paired);
}
TEST_CASE("functions/deducing return order and multi get", "Check if return order is in the same reading order specified in Lua, with regular deducing calls") {
const static std::tuple<int, int, int> triple = std::make_tuple(10, 11, 12);
sol::state lua;
lua.set_function("f_string", []() { return "this is a string!"; });
sol::function f_string = lua["f_string"];
// Make sure there are no overload collisions / compiler errors for automatic string conversions
std::string f_string_result = f_string();
REQUIRE(f_string_result == "this is a string!");
f_string_result = f_string();
REQUIRE(f_string_result == "this is a string!");
lua.set_function("f", [] { return std::make_tuple(10, 11, 12); });
auto result1 = lua.safe_script("function g() return 10, 11, 12 end\nx,y,z = g()", sol::script_pass_on_error);
REQUIRE(result1.valid());
std::tuple<int, int, int> tcpp = lua.get<sol::function>("f")();
std::tuple<int, int, int> tlua = lua.get<sol::function>("g")();
std::tuple<int, int, int> tluaget = lua.get<int, int, int>("x", "y", "z");
INFO("cpp: " << std::get<0>(tcpp) << ',' << std::get<1>(tcpp) << ',' << std::get<2>(tcpp));
INFO("lua: " << std::get<0>(tlua) << ',' << std::get<1>(tlua) << ',' << std::get<2>(tlua));
INFO("lua xyz: " << lua.get<int>("x") << ',' << lua.get<int>("y") << ',' << lua.get<int>("z"));
REQUIRE(tcpp == triple);
REQUIRE(tlua == triple);
REQUIRE(tluaget == triple);
}
TEST_CASE("functions/optional values", "check if optionals can be passed in to be nil or otherwise") {
struct thing {
int v;
};
sol::state lua;
auto result1 = lua.safe_script(R"( function f (a)
return a
end )",
sol::script_pass_on_error);
REQUIRE(result1.valid());
sol::function lua_bark = lua["f"];
sol::optional<int> testv = lua_bark(sol::optional<int>(29));
sol::optional<int> testn = lua_bark(sol::nullopt);
REQUIRE((bool)testv);
REQUIRE_FALSE((bool)testn);
REQUIRE(testv.value() == 29);
sol::optional<thing> v = lua_bark(sol::optional<thing>(thing{ 29 }));
REQUIRE_NOTHROW([&] {
sol::lua_nil_t n = lua_bark(sol::nullopt);
return n;
}());
REQUIRE(v->v == 29);
}
TEST_CASE("functions/pair and tuple and proxy tests", "Check if sol::reference and sol::proxy can be passed to functions as arguments") {
sol::state lua;
sol::stack_guard luasg(lua);
lua.new_usertype<A>("A", "bark", &A::bark);
auto result1 = lua.safe_script(R"( function f (num_value, a)
return num_value * 2, a:bark()
end
function h (num_value, a, b)
return num_value * 2, a:bark(), b * 3
end
nested = { variables = { no = { problem = 10 } } } )",
sol::script_pass_on_error);
REQUIRE(result1.valid());
lua.set_function("g", bark);
sol::function cpp_bark = lua["g"];
sol::function lua_bark = lua["f"];
sol::function lua_bark2 = lua["h"];
sol::reference lua_variable_x = lua["nested"]["variables"]["no"]["problem"];
A cpp_variable_y;
static const std::tuple<int, int> abdesired(20, 1);
static const std::pair<int, int> cddesired = { 20, 1 };
static const std::tuple<int, int, int> abcdesired(20, 1, 3);
std::tuple<int, int> ab = cpp_bark(lua_variable_x, cpp_variable_y);
std::pair<int, int> cd = lua_bark(lua["nested"]["variables"]["no"]["problem"], cpp_variable_y);
REQUIRE(ab == abdesired);
REQUIRE(cd == cddesired);
ab = cpp_bark(std::make_pair(lua_variable_x, cpp_variable_y));
cd = static_cast<std::pair<int, int>>(lua_bark(std::make_pair(lua["nested"]["variables"]["no"]["problem"], cpp_variable_y)));
REQUIRE(ab == abdesired);
REQUIRE(cd == cddesired);
std::tuple<int, int, int> abc = lua_bark2(std::make_tuple(10, cpp_variable_y), sol::optional<int>(1));
REQUIRE(abc == abcdesired);
}
TEST_CASE("functions/function_result and protected_function_result",
"Function result should be the beefy return type for sol::function that allows for error checking and error handlers") {
static const char unhandlederrormessage[] = "true error message";
static const char handlederrormessage[] = "doodle";
static const std::string handlederrormessage_s = handlederrormessage;
sol::state lua;
sol::stack_guard luasg(lua);
lua.open_libraries(sol::lib::base, sol::lib::debug);
// Some function; just using a lambda to be cheap
auto doomfx = []() { throw std::runtime_error(unhandlederrormessage); };
lua.set_function("doom", doomfx);
auto cpphandlerfx = [](std::string x) {
INFO("c++ handler called with: " << x);
return handlederrormessage;
};
lua.set_function("cpphandler", cpphandlerfx);
auto result1 = lua.safe_script(std::string("function luahandler ( message )") + " print('lua handler called with: ' .. message)" + " return '"
+ handlederrormessage + "'" + "end",
sol::script_pass_on_error);
REQUIRE(result1.valid());
auto nontrampolinefx = [](lua_State* L) -> int { return luaL_error(L, "x"); };
lua_CFunction c_nontrampolinefx = nontrampolinefx;
lua.set("nontrampoline", c_nontrampolinefx);
lua.set_function("bark", []() -> int { return 100; });
sol::function luahandler = lua["luahandler"];
sol::function cpphandler = lua["cpphandler"];
sol::protected_function doom(lua["doom"], luahandler);
sol::protected_function nontrampoline(lua["nontrampoline"], cpphandler);
sol::protected_function justfine = lua["bark"];
sol::protected_function justfinewithhandler = lua["bark"];
justfinewithhandler.error_handler = luahandler;
bool present = true;
{
sol::protected_function_result result = doom();
REQUIRE_FALSE(result.valid());
sol::optional<sol::error> operr = result;
sol::optional<int> opvalue = result;
present = (bool)operr;
REQUIRE(present);
present = (bool)opvalue;
REQUIRE_FALSE(present);
sol::error err = result;
REQUIRE(err.what() == handlederrormessage_s);
}
{
sol::protected_function_result result = nontrampoline();
REQUIRE_FALSE(result.valid());
sol::optional<sol::error> operr = result;
sol::optional<int> opvalue = result;
present = (bool)operr;
REQUIRE(present);
present = (bool)opvalue;
REQUIRE_FALSE(present);
sol::error err = result;
REQUIRE(err.what() == handlederrormessage_s);
}
{
sol::protected_function_result result = justfine();
REQUIRE(result.valid());
sol::optional<sol::error> operr = result;
sol::optional<int> opvalue = result;
present = (bool)operr;
REQUIRE_FALSE(present);
present = (bool)opvalue;
REQUIRE(present);
int value = result;
REQUIRE(value == 100);
}
{
sol::protected_function_result result = justfinewithhandler();
REQUIRE(result.valid());
sol::optional<sol::error> operr = result;
sol::optional<int> opvalue = result;
present = (bool)operr;
REQUIRE_FALSE(present);
present = (bool)opvalue;
REQUIRE(present);
int value = result;
REQUIRE(value == 100);
}
}
#if !defined(SOL2_CI) && !(SOL2_CI) && ((!defined(_M_IX86) || defined(_M_IA64)) || (defined(_WIN64)) || (defined(__LLP64__) || defined(__LP64__)))
TEST_CASE("functions/safe protected_function_result handlers",
"These tests will (hopefully) not destroy the stack since they are supposed to be mildly safe. Still, run with caution.") {
sol::state lua;
lua.open_libraries(sol::lib::base, sol::lib::debug);
static const char unhandlederrormessage[] = "true error message";
static const char handlederrormessage[] = "doodle";
static const std::string handlederrormessage_s = handlederrormessage;
auto luadoomfx = [&lua]() {
// Does not bypass error function, will call it
// however, this bypasses `catch` state
// in trampoline entirely...
luaL_error(lua.lua_state(), unhandlederrormessage);
};
lua.set_function("luadoom", luadoomfx);
auto cpphandlerfx = [](std::string x) {
INFO("c++ handler called with: " << x);
return handlederrormessage;
};
lua.set_function("cpphandler", cpphandlerfx);
sol::function cpphandler = lua["cpphandler"];
sol::protected_function luadoom(lua["luadoom"]);
luadoom.error_handler = cpphandler;
bool present = true;
{
sol::protected_function_result result = luadoom();
REQUIRE_FALSE(result.valid());
sol::optional<sol::error> operr = result;
sol::optional<int> opvalue = result;
present = (bool)operr;
REQUIRE(present);
present = (bool)opvalue;
REQUIRE_FALSE(present);
sol::error err = result;
REQUIRE(err.what() == handlederrormessage_s);
}
}
TEST_CASE("functions/unsafe protected_function_result handlers",
"This test will thrash the stack and allocations on weaker compilers (e.g., non 64-bit ones). Run with caution.") {
sol::state lua;
lua.open_libraries(sol::lib::base, sol::lib::debug);
static const char handlederrormessage[] = "doodle";
static const std::string handlederrormessage_s = handlederrormessage;
auto cpphandlerfx = [](std::string x) {
INFO("c++ handler called with: " << x);
return handlederrormessage;
};
lua.set_function("cpphandler", cpphandlerfx);
auto nontrampolinefx = [](lua_State*) -> int {
// this code shoots an exception
// through the C API, without the trampoline
// present.
// it is probably guaranteed to kill our code.
throw "x";
};
lua_CFunction c_nontrampolinefx = nontrampolinefx;
lua.set("nontrampoline", c_nontrampolinefx);
sol::function cpphandler = lua["cpphandler"];
sol::protected_function nontrampoline = lua["nontrampoline"];
nontrampoline.error_handler = cpphandler;
{
sol::protected_function_result result = nontrampoline();
REQUIRE_FALSE(result.valid());
sol::optional<sol::error> operr = result;
sol::optional<int> opvalue = result;
bool present = (bool)operr;
REQUIRE(present);
present = (bool)opvalue;
REQUIRE_FALSE(present);
sol::error err = result;
#ifdef SOL_LUAJIT
#if !((!defined(SOL_EXCEPTIONS_SAFE_PROPAGATION) || !(SOL_EXCEPTIONS_SAFE_PROPAGATION)))
REQUIRE(err.what() == std::string("C++ exception"));
#else
REQUIRE(err.what() == handlederrormessage_s);
#endif
#else
REQUIRE(err.what() == handlederrormessage_s);
#endif
}
}
#endif // These tests will thrash the stack and allocations on weaker compilers
TEST_CASE("functions/all kinds", "Register all kinds of functions, make sure they all compile and work") {
sol::state lua;
sol::stack_guard luasg(lua);
struct test_1 {
int a = 0xA;
virtual int bark() {
return a;
}
int bark_mem() {
return a;
}
static std::tuple<int, int> x_bark(int num_value, test_1* a) {
return std::tuple<int, int>(num_value * 2, a->a);
}
virtual ~test_1() {
}
};
struct test_2 {
int a = 0xC;
int bark() {
return 20;
}
};
struct inner {
const int z = 5653;
};
struct nested {
inner i;
};
auto a = []() { return 500; };
auto b = [&]() { return 501; };
auto c = [&]() { return 502; };
auto d = []() { return 503; };
lua.new_usertype<test_1>("test_1", "bark", sol::c_call<decltype(&test_1::bark_mem), &test_1::bark_mem>);
lua.new_usertype<test_2>("test_2", "bark", sol::c_call<decltype(&test_2::bark), &test_2::bark>);
test_2 t2;
lua.set_function("a", a);
lua.set_function("b", b);
lua.set_function("c", std::ref(c));
lua.set_function("d", std::ref(d));
lua.set_function("f", &test_1::bark);
lua.set_function("g", test_1::x_bark);
lua.set_function("h", sol::c_call<decltype(&test_1::bark_mem), &test_1::bark_mem>);
lua.set_function("i", &test_2::bark, test_2());
lua.set_function("j", &test_2::a, test_2());
lua.set_function("k", &test_2::a);
lua.set_function("l", sol::c_call<decltype(&test_1::a), &test_1::a>);
lua.set_function("m", &test_2::a, &t2);
lua.set_function("n", sol::c_call<decltype(&non_overloaded), &non_overloaded>);
auto result1 = lua.safe_script(R"(
o1 = test_1.new()
o2 = test_2.new()
)",
sol::script_pass_on_error);
REQUIRE(result1.valid());
auto result2 = lua.safe_script(R"(
ob = o1:bark()
A = a()
B = b()
C = c()
D = d()
F = f(o1)
G0, G1 = g(2, o1)
H = h(o1)
I = i(o1)
I = i(o1)
)",
sol::script_pass_on_error);
REQUIRE(result2.valid());
auto result3 = lua.safe_script(R"(
J0 = j()
j(24)
J1 = j()
)",
sol::script_pass_on_error);
REQUIRE(result3.valid());
auto result4 = lua.safe_script(R"(
K0 = k(o2)
k(o2, 1024)
K1 = k(o2)
)",
sol::script_pass_on_error);
REQUIRE(result4.valid());
auto result5 = lua.safe_script(R"(
L0 = l(o1)
l(o1, 678)
L1 = l(o1)
)",
sol::script_pass_on_error);
REQUIRE(result5.valid());
auto result6 = lua.safe_script(R"(
M0 = m()
m(256)
M1 = m()
)",
sol::script_pass_on_error);
REQUIRE(result6.valid());
auto result7 = lua.safe_script(R"(
N = n(1, 2, 3)
)",
sol::script_pass_on_error);
REQUIRE(result7.valid());
int ob, A, B, C, D, F, G0, G1, H, I, J0, J1, K0, K1, L0, L1, M0, M1, N;
std::tie(ob, A, B, C, D, F, G0, G1, H, I, J0, J1, K0, K1, L0, L1, M0, M1, N)
= lua.get<int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int>(
"ob", "A", "B", "C", "D", "F", "G0", "G1", "H", "I", "J0", "J1", "K0", "K1", "L0", "L1", "M0", "M1", "N");
REQUIRE(ob == 0xA);
REQUIRE(A == 500);
REQUIRE(B == 501);
REQUIRE(C == 502);
REQUIRE(D == 503);
REQUIRE(F == 0xA);
REQUIRE(G0 == 4);
REQUIRE(G1 == 0xA);
REQUIRE(H == 0xA);
REQUIRE(I == 20);
REQUIRE(J0 == 0xC);
REQUIRE(J1 == 24);
REQUIRE(K0 == 0xC);
REQUIRE(K1 == 1024);
REQUIRE(L0 == 0xA);
REQUIRE(L1 == 678);
REQUIRE(M0 == 0xC);
REQUIRE(M1 == 256);
REQUIRE(N == 13);
sol::tie(ob, A, B, C, D, F, G0, G1, H, I, J0, J1, K0, K1, L0, L1, M0, M1, N)
= lua.get<int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int, int>(
"ob", "A", "B", "C", "D", "F", "G0", "G1", "H", "I", "J0", "J1", "K0", "K1", "L0", "L1", "M0", "M1", "N");
REQUIRE(ob == 0xA);
REQUIRE(A == 500);
REQUIRE(B == 501);
REQUIRE(C == 502);
REQUIRE(D == 503);
REQUIRE(F == 0xA);
REQUIRE(G0 == 4);
REQUIRE(G1 == 0xA);
REQUIRE(H == 0xA);
REQUIRE(I == 20);
REQUIRE(J0 == 0xC);
REQUIRE(J1 == 24);
REQUIRE(K0 == 0xC);
REQUIRE(K1 == 1024);
REQUIRE(L0 == 0xA);
REQUIRE(L1 == 678);
REQUIRE(M0 == 0xC);
REQUIRE(M1 == 256);
REQUIRE(N == 13);
// Work that compiler, WORK IT!
test_2 test_2_instance;
lua.set("o", &test_1::bark);
lua.set("p", test_1::x_bark);
lua.set("q", sol::c_call<decltype(&test_1::bark_mem), &test_1::bark_mem>);
lua.set("r", &test_2::a);
lua.set("s", sol::readonly(&test_2::a));
lua.set_function("t", sol::readonly(&test_2::a), test_2());
lua.set_function("t2", sol::readonly(&test_2::a), &test_2_instance);
lua.set_function("t3", sol::readonly(&test_2::a), std::ref(test_2_instance));
lua.set_function("t4", sol::readonly(&test_2::a), std::cref(test_2_instance));
lua.set_function("u", &nested::i, nested());
lua.set("v", &nested::i);
lua.set("nested", nested());
lua.set("inner", inner());
{
auto result = lua.safe_script("s(o2, 2)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
}
{
auto tresult = lua.safe_script("t(2)", sol::script_pass_on_error);
REQUIRE_FALSE(tresult.valid());
auto tresult2 = lua.safe_script("t2(2)", sol::script_pass_on_error);
REQUIRE_FALSE(tresult2.valid());
auto tresult3 = lua.safe_script("t3(2)", sol::script_pass_on_error);
REQUIRE_FALSE(tresult3.valid());
auto tresult4 = lua.safe_script("t4(2)", sol::script_pass_on_error);
REQUIRE_FALSE(tresult4.valid());
}
{
auto result = lua.safe_script("u(inner)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
}
{
auto result = lua.safe_script("v(nested, inner)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
}
}
TEST_CASE("simple/call with parameters", "Lua function is called with a few parameters from C++") {
sol::state lua;
{
auto result = lua.safe_script("function my_add(i, j, k) return i + j + k end", sol::script_pass_on_error);
REQUIRE(result.valid());
}
auto f = lua.get<sol::function>("my_add");
{
auto result = lua.safe_script("function my_nothing(i, j, k) end", sol::script_pass_on_error);
REQUIRE(result.valid());
}
auto fvoid = lua.get<sol::function>("my_nothing");
REQUIRE_NOTHROW([&]() { fvoid(1, 2, 3); }());
REQUIRE_NOTHROW([&]() {
int a = f.call<int>(1, 2, 3);
REQUIRE(a == 6);
}());
sol::protected_function pf = f;
REQUIRE_NOTHROW([&]() {
sol::protected_function_result pfr = pf(1, 2, "arf");
REQUIRE_FALSE(pfr.valid());
}());
}
TEST_CASE("simple/call c++ function", "C++ function is called from lua") {
sol::state lua;
lua.set_function("plop_xyz", sep::plop_xyz);
auto result1 = lua.safe_script("x = plop_xyz(2, 6, 'hello')", sol::script_pass_on_error);
REQUIRE(result1.valid());
REQUIRE(lua.get<int>("x") == 11);
}
TEST_CASE("simple/call lambda", "A C++ lambda is exposed to lua and called") {
sol::state lua;
int a = 0;
lua.set_function("foo", [&a] { a = 1; });
auto result1 = lua.safe_script("foo()", sol::script_pass_on_error);
REQUIRE(result1.valid());
REQUIRE(a == 1);
}
TEST_CASE("advanced/get and call", "Checks for lambdas returning values after a get operation") {
const static std::string lol = "lol", str = "str";
const static std::tuple<int, float, double, std::string> heh_tuple = std::make_tuple(1, 6.28f, 3.14, std::string("heh"));
sol::state lua;
REQUIRE_NOTHROW(lua.set_function("a", [] { return 42; }));
REQUIRE(lua.get<sol::function>("a").call<int>() == 42);
REQUIRE_NOTHROW(lua.set_function("b", [] { return 42u; }));
REQUIRE(lua.get<sol::function>("b").call<unsigned int>() == 42u);
REQUIRE_NOTHROW(lua.set_function("c", [] { return 3.14; }));
REQUIRE(lua.get<sol::function>("c").call<double>() == 3.14);
REQUIRE_NOTHROW(lua.set_function("d", [] { return 6.28f; }));
REQUIRE(lua.get<sol::function>("d").call<float>() == 6.28f);
REQUIRE_NOTHROW(lua.set_function("e", [] { return "lol"; }));
REQUIRE(lua.get<sol::function>("e").call<std::string>() == lol);
REQUIRE_NOTHROW(lua.set_function("f", [] { return true; }));
REQUIRE(lua.get<sol::function>("f").call<bool>());
REQUIRE_NOTHROW(lua.set_function("g", [] { return std::string("str"); }));
REQUIRE(lua.get<sol::function>("g").call<std::string>() == str);
REQUIRE_NOTHROW(lua.set_function("h", [] {}));
REQUIRE_NOTHROW(lua.get<sol::function>("h").call());
REQUIRE_NOTHROW(lua.set_function("i", [] { return sol::lua_nil; }));
REQUIRE(lua.get<sol::function>("i").call<sol::lua_nil_t>() == sol::lua_nil);
REQUIRE_NOTHROW(lua.set_function("j", [] { return std::make_tuple(1, 6.28f, 3.14, std::string("heh")); }));
REQUIRE((lua.get<sol::function>("j").call<int, float, double, std::string>() == heh_tuple));
}
TEST_CASE("advanced/operator[] call", "Checks for lambdas returning values using operator[]") {
const static std::string lol = "lol", str = "str";
const static std::tuple<int, float, double, std::string> heh_tuple = std::make_tuple(1, 6.28f, 3.14, std::string("heh"));
sol::state lua;
REQUIRE_NOTHROW(lua.set_function("a", [] { return 42; }));
REQUIRE(lua["a"].call<int>() == 42);
REQUIRE_NOTHROW(lua.set_function("b", [] { return 42u; }));
REQUIRE(lua["b"].call<unsigned int>() == 42u);
REQUIRE_NOTHROW(lua.set_function("c", [] { return 3.14; }));
REQUIRE(lua["c"].call<double>() == 3.14);
REQUIRE_NOTHROW(lua.set_function("d", [] { return 6.28f; }));
REQUIRE(lua["d"].call<float>() == 6.28f);
REQUIRE_NOTHROW(lua.set_function("e", [] { return "lol"; }));
REQUIRE(lua["e"].call<std::string>() == lol);
REQUIRE_NOTHROW(lua.set_function("f", [] { return true; }));
REQUIRE(lua["f"].call<bool>());
REQUIRE_NOTHROW(lua.set_function("g", [] { return std::string("str"); }));
REQUIRE(lua["g"].call<std::string>() == str);
REQUIRE_NOTHROW(lua.set_function("h", [] {}));
REQUIRE_NOTHROW(lua["h"].call());
REQUIRE_NOTHROW(lua.set_function("i", [] { return sol::lua_nil; }));
REQUIRE(lua["i"].call<sol::lua_nil_t>() == sol::lua_nil);
REQUIRE_NOTHROW(lua.set_function("j", [] { return std::make_tuple(1, 6.28f, 3.14, std::string("heh")); }));
REQUIRE((lua["j"].call<int, float, double, std::string>() == heh_tuple));
}
TEST_CASE("advanced/call lambdas", "A C++ lambda is exposed to lua and called") {
sol::state lua;
int x = 0;
lua.set_function("set_x", [&](int new_x) {
x = new_x;
return 0;
});
auto result1 = lua.safe_script("set_x(9)", sol::script_pass_on_error);
REQUIRE(result1.valid());
REQUIRE(x == 9);
}
TEST_CASE("advanced/call referenced obj", "A C++ object is passed by pointer/reference_wrapper to lua and invoked") {
sol::state lua;
int x = 0;
auto objx = [&](int new_x) {
x = new_x;
return 0;
};
lua.set_function("set_x", std::ref(objx));
int y = 0;
auto objy = [&](int new_y) {
y = new_y;
return std::tuple<int, int>(0, 0);
};
lua.set_function("set_y", &decltype(objy)::operator(), std::ref(objy));
auto result1 = lua.safe_script("set_x(9)", sol::script_pass_on_error);
REQUIRE(result1.valid());
auto result2 = lua.safe_script("set_y(9)", sol::script_pass_on_error);
REQUIRE(result2.valid());
REQUIRE(x == 9);
REQUIRE(y == 9);
}
TEST_CASE("functions/tie", "make sure advanced syntax with 'tie' works") {
sol::state lua;
auto result1 = lua.safe_script(R"(function f ()
return 1, 2, 3
end)",
sol::script_pass_on_error);
REQUIRE(result1.valid());
sol::function f = lua["f"];
int a, b, c;
sol::tie(a, b, c) = f();
REQUIRE(a == 1);
REQUIRE(b == 2);
REQUIRE(c == 3);
}
TEST_CASE("functions/overloading", "Check if overloading works properly for regular set function syntax") {
sol::state lua;
lua.open_libraries(sol::lib::base);
lua.set_function("func_1", func_1);
lua.set_function("func", sol::overload(func_2, func_3, func_1, func_1s));
const std::string string_bark = "string: bark";
{
auto result = lua.safe_script(
"a = func(1)\n"
"b = func('bark')\n"
"c = func(1,2)\n"
"func(1,2,3)\n",
sol::script_pass_on_error);
REQUIRE(result.valid());
}
REQUIRE((lua["a"] == 1));
REQUIRE((lua["b"] == string_bark));
REQUIRE((lua["c"] == 2));
{
auto result = lua.safe_script("func(1,2,'meow')", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
}
}
TEST_CASE("overloading/c_call", "Make sure that overloading works with c_call functionality") {
sol::state lua;
lua.set("f", sol::c_call<sol::wrap<decltype(&f1), &f1>, sol::wrap<decltype(&f2), &f2>, sol::wrap<decltype(&fer::f3), &fer::f3>>);
lua.set("g", sol::c_call<sol::wrap<decltype(&f1), &f1>>);
lua.set("h", sol::c_call<decltype(&f2), &f2>);
lua.set("obj", fer());
lua.safe_script("r1 = f(1)");
lua.safe_script("r2 = f(1, 2)");
lua.safe_script("r3 = f(obj, 1, 2)");
lua.safe_script("r4 = g(1)");
lua.safe_script("r5 = h(1, 2)");
int r1 = lua["r1"];
int r2 = lua["r2"];
double r3 = lua["r3"];
int r4 = lua["r4"];
int r5 = lua["r5"];
REQUIRE(r1 == 32);
REQUIRE(r2 == 1);
REQUIRE(r3 == 2.5);
REQUIRE(r4 == 32);
REQUIRE(r5 == 1);
}
TEST_CASE("functions/stack atomic", "make sure functions don't impede on the stack") {
// setup sol/lua
sol::state lua;
lua.open_libraries(sol::lib::base, sol::lib::string);
lua.safe_script("function ErrorHandler(msg) print('Lua created error msg : ' .. msg) return msg end");
lua.safe_script("function stringtest(a) if a == nil then error('fuck') end print('Lua recieved content : ' .. a) return a end");
// test normal function
{
sol::stack_guard normalsg(lua);
std::string str = lua["stringtest"]("normal test");
INFO("Back in C++, direct call result is : " << str);
}
// test protected_function
sol::protected_function Stringtest(lua["stringtest"]);
Stringtest.error_handler = lua["ErrorHandler"];
sol::stack_guard luasg(lua);
{
sol::protected_function_result stringresult = Stringtest("protected test");
REQUIRE(stringresult.valid());
std::string s = stringresult;
INFO("Back in C++, protected result is : " << s);
}
REQUIRE(luasg.check_stack());
// test optional
{
sol::stack_guard opsg(lua);
sol::optional<std::string> opt_result = Stringtest("optional test");
REQUIRE(opsg.check_stack());
if (opt_result) {
std::string s = opt_result.value();
INFO("Back in C++, opt_result is : " << s);
}
else {
INFO("opt_result failed");
}
}
REQUIRE(luasg.check_stack());
{
sol::protected_function_result errresult = Stringtest(sol::lua_nil);
REQUIRE_FALSE(errresult.valid());
sol::error err = errresult;
std::string msg = err.what();
INFO("error :" << msg);
}
REQUIRE(luasg.check_stack());
}
TEST_CASE("functions/stack multi-return", "Make sure the stack is protected after multi-returns") {
sol::state lua;
lua.safe_script("function f () return 1, 2, 3, 4, 5 end");
{
sol::stack_guard luasg(lua);
sol::stack::push(lua, double(256.78));
{
int a, b, c, d, e;
sol::stack_guard sg2(lua);
sol::function f = lua["f"];
sol::tie(a, b, c, d, e) = f();
REQUIRE(a == 1);
REQUIRE(b == 2);
REQUIRE(c == 3);
REQUIRE(d == 4);
REQUIRE(e == 5);
}
double f = sol::stack::pop<double>(lua);
REQUIRE(f == 256.78);
}
}
TEST_CASE("functions/protected stack multi-return", "Make sure the stack is protected after multi-returns") {
sol::state lua;
lua.safe_script("function f () return 1, 2, 3, 4, 5 end");
{
sol::stack_guard luasg(lua);
sol::stack::push(lua, double(256.78));
{
int a, b, c, d, e;
sol::stack_guard sg2(lua);
sol::protected_function pf = lua["f"];
sol::tie(a, b, c, d, e) = pf();
REQUIRE(a == 1);
REQUIRE(b == 2);
REQUIRE(c == 3);
REQUIRE(d == 4);
REQUIRE(e == 5);
}
double f = sol::stack::pop<double>(lua);
REQUIRE(f == 256.78);
}
}
TEST_CASE("functions/function_result as arguments", "ensure that function_result can be pushed as its results and not a userdata") {
sol::state lua;
lua.open_libraries();
lua.safe_script("function f () return 1, 2, 3, 4, 5 end");
lua.safe_script("function g (a, b, c, d, e) assert(a == 1) assert(b == 2) assert(c == 3) assert(d == 4) assert(e == 5) end");
{
sol::stack_guard luasg(lua);
sol::stack::push(lua, double(256.78));
{
int a, b, c, d, e;
sol::stack_guard sg2(lua);
sol::function pf = lua["f"];
sol::tie(a, b, c, d, e) = pf();
REQUIRE(a == 1);
REQUIRE(b == 2);
REQUIRE(c == 3);
REQUIRE(d == 4);
REQUIRE(e == 5);
REQUIRE_NOTHROW([&]() { lua["g"](pf()); }());
}
double f = sol::stack::pop<double>(lua);
REQUIRE(f == 256.78);
}
}
TEST_CASE("functions/protected_function_result as arguments", "ensure that protected_function_result can be pushed as its results and not a userdata") {
sol::state lua;
lua.open_libraries();
lua.safe_script("function f () return 1, 2, 3, 4, 5 end");
lua.safe_script("function g (a, b, c, d, e) assert(a == 1) assert(b == 2) assert(c == 3) assert(d == 4) assert(e == 5) end");
{
sol::stack_guard luasg(lua);
sol::stack::push(lua, double(256.78));
{
int a, b, c, d, e;
sol::stack_guard sg2(lua);
sol::protected_function pf = lua["f"];
sol::tie(a, b, c, d, e) = pf();
REQUIRE(a == 1);
REQUIRE(b == 2);
REQUIRE(c == 3);
REQUIRE(d == 4);
REQUIRE(e == 5);
REQUIRE_NOTHROW([&]() { lua["g"](pf()); }());
}
double f = sol::stack::pop<double>(lua);
REQUIRE(f == 256.78);
}
}
TEST_CASE("functions/overloaded variadic", "make sure variadics work to some degree with overloading") {
sol::state lua;
lua.open_libraries();
sol::table ssl = lua.create_named_table("ssl");
ssl.set_function("test", sol::overload(&va_func<int>, &va_func<double>));
lua.safe_script("a = ssl.test(1, 2, 3)");
lua.safe_script("b = ssl.test(1, 2)");
lua.safe_script("c = ssl.test(2.2)");
int a = lua["a"];
int b = lua["b"];
double c = lua["c"];
REQUIRE(a == 6);
REQUIRE(b == 3);
REQUIRE(c == 2.2);
}
TEST_CASE("functions/sectioning variadic", "make sure variadics can bite off chunks of data") {
sol::state lua;
lua.open_libraries(sol::lib::base);
lua.set_function("f", [](sol::variadic_args va) {
int r = 0;
sol::variadic_args shifted_va(va.lua_state(), 3);
for (auto v : shifted_va) {
int value = v;
r += value;
}
return r;
});
lua.safe_script("x = f(1, 2, 3, 4)");
lua.safe_script("x2 = f(8, 200, 3, 4)");
lua.safe_script("x3 = f(1, 2, 3, 4, 5, 6)");
lua.safe_script("print(x) assert(x == 7)");
lua.safe_script("print(x2) assert(x2 == 7)");
lua.safe_script("print(x3) assert(x3 == 18)");
}
TEST_CASE("functions/pointer nullptr + nil", "ensure specific semantics for handling pointer-nils passed through sol") {
struct nil_test {
static void f(nil_test* p) {
REQUIRE(p == nullptr);
}
static void g(std::unique_ptr<nil_test>& p) {
REQUIRE(p == nullptr);
}
static void h(std::shared_ptr<nil_test>& p) {
REQUIRE(p == nullptr);
}
};
std::shared_ptr<nil_test> sptr;
std::unique_ptr<nil_test> uptr;
std::unique_ptr<nil_test> ruptr;
nil_test* rptr = ruptr.get();
nil_test* vptr = nullptr;
SECTION("ptr") {
sol::state lua;
lua["v1"] = sptr;
lua["v2"] = std::unique_ptr<nil_test>();
lua["v3"] = rptr;
lua["v4"] = vptr;
REQUIRE_NOTHROW([&]() {
nil_test* v1 = lua["v1"];
nil_test* v2 = lua["v2"];
nil_test* v3 = lua["v3"];
nil_test* v4 = lua["v4"];
REQUIRE(v1 == sptr.get());
REQUIRE(v1 == nullptr);
REQUIRE(v2 == uptr.get());
REQUIRE(v2 == nullptr);
REQUIRE(v3 == rptr);
REQUIRE(v3 == nullptr);
REQUIRE(v4 == vptr);
REQUIRE(v4 == nullptr);
}());
}
SECTION("ptr") {
sol::state lua;
lua.open_libraries();
lua["v1"] = sptr;
lua["v2"] = std::unique_ptr<nil_test>();
lua["v3"] = rptr;
lua["v4"] = vptr;
lua["f"] = &nil_test::f;
lua["g"] = &nil_test::g;
lua["h"] = &nil_test::h;
REQUIRE_NOTHROW([&]() {
lua.safe_script("f(v1)");
lua.safe_script("f(v2)");
lua.safe_script("f(v3)");
lua.safe_script("f(v4)");
lua.safe_script("assert(v1 == nil)");
lua.safe_script("assert(v2 == nil)");
lua.safe_script("assert(v3 == nil)");
lua.safe_script("assert(v4 == nil)");
}());
}
SECTION("throw unique argument") {
sol::state lua;
lua["v2"] = std::unique_ptr<nil_test>();
lua["g"] = &nil_test::g;
auto result = lua.safe_script("g(v2)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
}
SECTION("throw shared argument") {
sol::state lua;
lua["v1"] = sptr;
lua["h"] = &nil_test::h;
auto result = lua.safe_script("h(v1)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
}
SECTION("throw ref") {
{
sol::state lua;
lua["v1"] = sptr;
sol::object o = lua["v1"];
bool isp = o.is<nil_test&>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v2"] = std::unique_ptr<nil_test>();
sol::object o = lua["v2"];
bool isp = o.is<nil_test&>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v3"] = rptr;
sol::object o = lua["v3"];
bool isp = o.is<nil_test&>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v4"] = vptr;
sol::object o = lua["v4"];
bool isp = o.is<nil_test&>();
REQUIRE_FALSE(isp);
}
}
SECTION("throw unique") {
{
sol::state lua;
lua["v1"] = sptr;
sol::object o = lua["v1"];
bool isp = o.is<std::unique_ptr<nil_test>>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v2"] = std::unique_ptr<nil_test>();
sol::object o = lua["v2"];
bool isp = o.is<std::unique_ptr<nil_test>>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v3"] = rptr;
sol::object o = lua["v3"];
bool isp = o.is<std::unique_ptr<nil_test>>();
REQUIRE_FALSE(isp);
};
{
sol::state lua;
lua["v4"] = vptr;
sol::object o = lua["v4"];
bool isp = o.is<std::unique_ptr<nil_test>>();
REQUIRE_FALSE(isp);
};
}
SECTION("throw shared") {
{
sol::state lua;
lua["v1"] = sptr;
sol::object o = lua["v1"];
bool isp = o.is<std::shared_ptr<nil_test>>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v2"] = std::unique_ptr<nil_test>();
sol::object o = lua["v2"];
bool isp = o.is<std::shared_ptr<nil_test>>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v3"] = rptr;
sol::object o = lua["v3"];
bool isp = o.is<std::shared_ptr<nil_test>>();
REQUIRE_FALSE(isp);
}
{
sol::state lua;
lua["v4"] = vptr;
sol::object o = lua["v4"];
bool isp = o.is<std::shared_ptr<nil_test>>();
REQUIRE_FALSE(isp);
}
}
}
TEST_CASE("functions/unique_usertype overloading", "make sure overloading can work with ptr vs. specifically asking for a unique_usertype") {
struct test {
int special_value = 17;
test() : special_value(17) {
}
test(int special_value) : special_value(special_value) {
}
};
auto print_up_test = [](std::unique_ptr<test>& x) { REQUIRE(x->special_value == 21); };
auto print_up_2_test = [](int, std::unique_ptr<test>& x) { REQUIRE(x->special_value == 21); };
auto print_sp_test = [](std::shared_ptr<test>& x) { REQUIRE(x->special_value == 44); };
auto print_ptr_test = [](test* x) { REQUIRE(x->special_value == 17); };
auto print_ref_test = [](test& x) {
bool is_any = x.special_value == 17 || x.special_value == 21 || x.special_value == 44;
REQUIRE(is_any);
};
using f_t = void(test&);
f_t* fptr = print_ref_test;
std::unique_ptr<test> ut = std::make_unique<test>(17);
SECTION("working") {
sol::state lua;
lua.set_function("f", print_up_test);
lua.set_function("g", sol::overload(std::move(print_sp_test), print_up_test, std::ref(print_ptr_test)));
lua.set_function("h", std::ref(fptr));
lua.set_function("i", std::move(print_up_2_test));
lua["v1"] = std::make_unique<test>(21);
lua["v2"] = std::make_shared<test>(44);
lua["v3"] = test(17);
lua["v4"] = ut.get();
{
auto result = lua.safe_script("f(v1)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("g(v1)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("g(v2)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("g(v3)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("g(v4)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("h(v1)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("h(v2)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("h(v3)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("h(v4)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
{
auto result = lua.safe_script("i(20, v1)", sol::script_pass_on_error);
REQUIRE(result.valid());
}
};
// LuaJIT segfaults hard on some Linux machines
// and it breaks all the tests...
SECTION("throws-value") {
sol::state lua;
lua.set_function("f", print_up_test);
lua["v3"] = test(17);
auto result = lua.safe_script("f(v3)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
};
SECTION("throws-shared_ptr") {
sol::state lua;
lua.set_function("f", print_up_test);
lua["v2"] = std::make_shared<test>(44);
auto result = lua.safe_script("f(v2)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
};
SECTION("throws-ptr") {
sol::state lua;
lua.set_function("f", print_up_test);
lua["v4"] = ut.get();
auto result = lua.safe_script("f(v4)", sol::script_pass_on_error);
REQUIRE_FALSE(result.valid());
};
}
TEST_CASE("functions/lua style default arguments", "allow default arguments using sol::reference and sol::object") {
auto def_f1 = [](sol::object defaulted) -> int {
bool inactive = defaulted == sol::lua_nil; // inactive by default
if (inactive) {
return 20;
}
return 10;
};
auto def_f2 = [](sol::reference defaulted) -> int {
bool inactive = defaulted == sol::lua_nil; // inactive by default
if (inactive) {
return 20;
}
return 10;
};
auto def_f3 = [](sol::stack_reference defaulted) -> int {
bool inactive = defaulted == sol::lua_nil; // inactive by default
if (inactive) {
return 20;
}
return 10;
};
sol::state lua;
lua.set_function("f1", def_f1);
lua.set_function("f2", def_f2);
lua.set_function("f3", def_f3);
auto result = lua.safe_script(R"(
v1d, v1nd = f1(), f1(1)
v2d, v2nd = f2(), f2(1)
v3d, v3nd = f3(), f3(1)
)",
sol::script_pass_on_error);
REQUIRE(result.valid());
int v1d = lua["v1d"];
int v1nd = lua["v1nd"];
int v2d = lua["v2d"];
int v2nd = lua["v2nd"];
int v3d = lua["v3d"];
int v3nd = lua["v3nd"];
REQUIRE(20 == v1d);
REQUIRE(20 == v2d);
REQUIRE(20 == v3d);
REQUIRE(10 == v1nd);
REQUIRE(10 == v2nd);
REQUIRE(10 == v3nd);
}
#if !defined(_MSC_VER) || !(defined(_WIN32) && !defined(_WIN64))
TEST_CASE("functions/noexcept", "allow noexcept functions to be serialized properly into Lua using sol3") {
struct T {
static int noexcept_function() noexcept {
return 0x61;
}
int noexcept_method() noexcept {
return 0x62;
}
} t;
lua_CFunction ccall = sol::c_call<decltype(&raw_noexcept_function), &raw_noexcept_function>;
sol::state lua;
lua.set_function("f", &T::noexcept_function);
lua.set_function("g", &T::noexcept_method);
lua.set_function("h", &T::noexcept_method, T());
lua.set_function("i", &T::noexcept_method, std::ref(t));
lua.set_function("j", &T::noexcept_method, &t);
lua.set_function("k", &T::noexcept_method, t);
lua.set_function("l", &raw_noexcept_function);
lua.set_function("m", ccall);
lua["t"] = T();
lua.safe_script("v1 = f()");
lua.safe_script("v2 = g(t)");
lua.safe_script("v3 = h()");
lua.safe_script("v4 = i()");
lua.safe_script("v5 = j()");
lua.safe_script("v6 = k()");
lua.safe_script("v7 = l()");
lua.safe_script("v8 = m()");
int v1 = lua["v1"];
int v2 = lua["v2"];
int v3 = lua["v3"];
int v4 = lua["v4"];
int v5 = lua["v5"];
int v6 = lua["v6"];
int v7 = lua["v7"];
int v8 = lua["v8"];
REQUIRE(v1 == 0x61);
REQUIRE(v2 == 0x62);
REQUIRE(v3 == 0x62);
REQUIRE(v4 == 0x62);
REQUIRE(v5 == 0x62);
REQUIRE(v6 == 0x62);
REQUIRE(v7 == 0x63);
REQUIRE(v8 == 0x63);
}
#endif // Strange VC++ stuff
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