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serenity/Meta/Lagom/Tools/CodeGenerators/IPCCompiler/main.cpp
Itamar 1aa8f73ddb IPCCompiler: Don't loop endlessly on nameless parameters
Previously, given a malformed IPC call declaration, where a parameter
does not have a name, the IPCCompiler would spin endlessly while
consuming more and more memory.

This is because it parses the parameter type incorrectly
(it consumes superfluous characters into the parameter type).

An example for such malformed declaration is:
tokens_info_result(Vector<GUI::AutocompleteProvider::TokenInfo>) =|

As a temporary fix, this adds VERIFY calls that would fail if we're at
EOF when parsing parameter names.

A real solution would be to parse C++ parameter types correctly.
LibCpp's Parser could be used for this task.
2022-01-29 12:44:15 +01:00

883 lines
31 KiB
C++

/*
* Copyright (c) 2018-2020, Andreas Kling <kling@serenityos.org>
*
* SPDX-License-Identifier: BSD-2-Clause
*/
#include <AK/Debug.h>
#include <AK/Function.h>
#include <AK/GenericLexer.h>
#include <AK/HashMap.h>
#include <AK/SourceGenerator.h>
#include <AK/StringBuilder.h>
#include <LibCore/File.h>
#include <ctype.h>
#include <stdio.h>
struct Parameter {
Vector<String> attributes;
String type;
String name;
};
static String pascal_case(String const& identifier)
{
StringBuilder builder;
bool was_new_word = true;
for (auto ch : identifier) {
if (ch == '_') {
was_new_word = true;
continue;
}
if (was_new_word) {
builder.append(toupper(ch));
was_new_word = false;
} else
builder.append(ch);
}
return builder.to_string();
}
struct Message {
String name;
bool is_synchronous { false };
Vector<Parameter> inputs;
Vector<Parameter> outputs;
String response_name() const
{
StringBuilder builder;
builder.append(pascal_case(name));
builder.append("Response");
return builder.to_string();
}
};
struct Endpoint {
Vector<String> includes;
String name;
u32 magic;
Vector<Message> messages;
};
static bool is_primitive_type(String const& type)
{
return type.is_one_of("u8", "i8", "u16", "i16", "u32", "i32", "u64", "i64", "bool", "double", "float", "int", "unsigned", "unsigned int");
}
static String message_name(String const& endpoint, String& message, bool is_response)
{
StringBuilder builder;
builder.append("Messages::");
builder.append(endpoint);
builder.append("::");
builder.append(pascal_case(message));
if (is_response)
builder.append("Response");
return builder.to_string();
}
int main(int argc, char** argv)
{
if (argc != 2) {
outln("usage: {} <IPC endpoint definition file>", argv[0]);
return 0;
}
auto file = Core::File::construct(argv[1]);
if (!file->open(Core::OpenMode::ReadOnly)) {
warnln("Error: Cannot open {}: {}", argv[1], file->error_string());
return 1;
}
auto file_contents = file->read_all();
GenericLexer lexer(file_contents);
Vector<Endpoint> endpoints;
auto assert_specific = [&](char ch) {
if (lexer.peek() != ch)
warnln("assert_specific: wanted '{}', but got '{}' at index {}", ch, lexer.peek(), lexer.tell());
bool saw_expected = lexer.consume_specific(ch);
VERIFY(saw_expected);
};
auto consume_whitespace = [&] {
lexer.ignore_while([](char ch) { return isspace(ch); });
if (lexer.peek() == '/' && lexer.peek(1) == '/')
lexer.ignore_until([](char ch) { return ch == '\n'; });
};
auto parse_parameter = [&](Vector<Parameter>& storage) {
for (;;) {
Parameter parameter;
if (lexer.is_eof()) {
warnln("EOF when parsing parameter");
VERIFY_NOT_REACHED();
}
consume_whitespace();
if (lexer.peek() == ')')
break;
if (lexer.consume_specific('[')) {
for (;;) {
if (lexer.consume_specific(']')) {
consume_whitespace();
break;
}
if (lexer.consume_specific(',')) {
consume_whitespace();
}
auto attribute = lexer.consume_until([](char ch) { return ch == ']' || ch == ','; });
parameter.attributes.append(attribute);
consume_whitespace();
}
}
// FIXME: This is not entirely correct. Types can have spaces, for example `HashMap<int, String>`.
// Maybe we should use LibCpp::Parser for parsing types.
parameter.type = lexer.consume_until([](char ch) { return isspace(ch); });
VERIFY(!lexer.is_eof());
consume_whitespace();
parameter.name = lexer.consume_until([](char ch) { return isspace(ch) || ch == ',' || ch == ')'; });
consume_whitespace();
storage.append(move(parameter));
if (lexer.consume_specific(','))
continue;
if (lexer.peek() == ')')
break;
}
};
auto parse_parameters = [&](Vector<Parameter>& storage) {
for (;;) {
consume_whitespace();
parse_parameter(storage);
consume_whitespace();
if (lexer.consume_specific(','))
continue;
if (lexer.peek() == ')')
break;
}
};
auto parse_message = [&] {
Message message;
consume_whitespace();
message.name = lexer.consume_until([](char ch) { return isspace(ch) || ch == '('; });
consume_whitespace();
assert_specific('(');
parse_parameters(message.inputs);
assert_specific(')');
consume_whitespace();
assert_specific('=');
auto type = lexer.consume();
if (type == '>')
message.is_synchronous = true;
else if (type == '|')
message.is_synchronous = false;
else
VERIFY_NOT_REACHED();
consume_whitespace();
if (message.is_synchronous) {
assert_specific('(');
parse_parameters(message.outputs);
assert_specific(')');
}
consume_whitespace();
endpoints.last().messages.append(move(message));
};
auto parse_messages = [&] {
for (;;) {
consume_whitespace();
if (lexer.peek() == '}')
break;
parse_message();
consume_whitespace();
}
};
auto parse_include = [&] {
String include;
consume_whitespace();
include = lexer.consume_while([](char ch) { return ch != '\n'; });
consume_whitespace();
endpoints.last().includes.append(move(include));
};
auto parse_includes = [&] {
for (;;) {
consume_whitespace();
if (lexer.peek() != '#')
break;
parse_include();
consume_whitespace();
}
};
auto parse_endpoint = [&] {
endpoints.empend();
consume_whitespace();
parse_includes();
consume_whitespace();
lexer.consume_specific("endpoint");
consume_whitespace();
endpoints.last().name = lexer.consume_while([](char ch) { return !isspace(ch); });
endpoints.last().magic = Traits<String>::hash(endpoints.last().name);
consume_whitespace();
assert_specific('{');
parse_messages();
assert_specific('}');
consume_whitespace();
};
while (lexer.tell() < file_contents.size())
parse_endpoint();
StringBuilder builder;
SourceGenerator generator { builder };
generator.append("#pragma once\n");
// This must occur before LibIPC/Decoder.h
for (auto& endpoint : endpoints) {
for (auto& include : endpoint.includes) {
generator.append(include);
generator.append("\n");
}
}
generator.append(R"~~~(#include <AK/MemoryStream.h>
#include <AK/OwnPtr.h>
#include <AK/Result.h>
#include <AK/Utf8View.h>
#include <LibIPC/Connection.h>
#include <LibIPC/Decoder.h>
#include <LibIPC/Dictionary.h>
#include <LibIPC/Encoder.h>
#include <LibIPC/File.h>
#include <LibIPC/Message.h>
#include <LibIPC/Stub.h>
#ifdef __clang__
#pragma clang diagnostic push
#pragma clang diagnostic ignored "-Wdefaulted-function-deleted"
#endif
)~~~");
for (auto& endpoint : endpoints) {
auto endpoint_generator = generator.fork();
endpoint_generator.set("endpoint.name", endpoint.name);
endpoint_generator.set("endpoint.magic", String::number(endpoint.magic));
endpoint_generator.append(R"~~~(
namespace Messages::@endpoint.name@ {
)~~~");
HashMap<String, int> message_ids;
endpoint_generator.append(R"~~~(
enum class MessageID : i32 {
)~~~");
for (auto& message : endpoint.messages) {
auto message_generator = endpoint_generator.fork();
message_ids.set(message.name, message_ids.size() + 1);
message_generator.set("message.name", message.name);
message_generator.set("message.pascal_name", pascal_case(message.name));
message_generator.set("message.id", String::number(message_ids.size()));
message_generator.append(R"~~~(
@message.pascal_name@ = @message.id@,
)~~~");
if (message.is_synchronous) {
message_ids.set(message.response_name(), message_ids.size() + 1);
message_generator.set("message.name", message.response_name());
message_generator.set("message.pascal_name", pascal_case(message.response_name()));
message_generator.set("message.id", String::number(message_ids.size()));
message_generator.append(R"~~~(
@message.pascal_name@ = @message.id@,
)~~~");
}
}
endpoint_generator.append(R"~~~(
};
)~~~");
auto constructor_for_message = [&](const String& name, const Vector<Parameter>& parameters) {
StringBuilder builder;
builder.append(name);
if (parameters.is_empty()) {
builder.append("() {}");
return builder.to_string();
}
builder.append('(');
for (size_t i = 0; i < parameters.size(); ++i) {
auto& parameter = parameters[i];
builder.append(parameter.type);
builder.append(" ");
builder.append(parameter.name);
if (i != parameters.size() - 1)
builder.append(", ");
}
builder.append(") : ");
for (size_t i = 0; i < parameters.size(); ++i) {
auto& parameter = parameters[i];
builder.append("m_");
builder.append(parameter.name);
builder.append("(move(");
builder.append(parameter.name);
builder.append("))");
if (i != parameters.size() - 1)
builder.append(", ");
}
builder.append(" {}");
return builder.to_string();
};
auto do_message = [&](const String& name, const Vector<Parameter>& parameters, const String& response_type = {}) {
auto message_generator = endpoint_generator.fork();
auto pascal_name = pascal_case(name);
message_generator.set("message.name", name);
message_generator.set("message.pascal_name", pascal_name);
message_generator.set("message.response_type", response_type);
message_generator.set("message.constructor", constructor_for_message(pascal_name, parameters));
message_generator.append(R"~~~(
class @message.pascal_name@ final : public IPC::Message {
public:
)~~~");
if (!response_type.is_null())
message_generator.append(R"~~~(
typedef class @message.response_type@ ResponseType;
)~~~");
message_generator.append(R"~~~(
@message.pascal_name@(decltype(nullptr)) : m_ipc_message_valid(false) { }
@message.pascal_name@(@message.pascal_name@ const&) = default;
@message.pascal_name@(@message.pascal_name@&&) = default;
@message.pascal_name@& operator=(@message.pascal_name@ const&) = default;
@message.constructor@
virtual ~@message.pascal_name@() override {}
virtual u32 endpoint_magic() const override { return @endpoint.magic@; }
virtual i32 message_id() const override { return (int)MessageID::@message.pascal_name@; }
static i32 static_message_id() { return (int)MessageID::@message.pascal_name@; }
virtual const char* message_name() const override { return "@endpoint.name@::@message.pascal_name@"; }
static OwnPtr<@message.pascal_name@> decode(InputMemoryStream& stream, Core::Stream::LocalSocket& socket)
{
IPC::Decoder decoder { stream, socket };
)~~~");
for (auto& parameter : parameters) {
auto parameter_generator = message_generator.fork();
parameter_generator.set("parameter.type", parameter.type);
parameter_generator.set("parameter.name", parameter.name);
if (parameter.type == "bool")
parameter_generator.set("parameter.initial_value", "false");
else
parameter_generator.set("parameter.initial_value", "{}");
parameter_generator.append(R"~~~(
@parameter.type@ @parameter.name@ = @parameter.initial_value@;
if (decoder.decode(@parameter.name@).is_error())
return {};
)~~~");
if (parameter.attributes.contains_slow("UTF8")) {
parameter_generator.append(R"~~~(
if (!Utf8View(@parameter.name@).validate())
return {};
)~~~");
}
}
StringBuilder builder;
for (size_t i = 0; i < parameters.size(); ++i) {
auto& parameter = parameters[i];
builder.append("move(");
builder.append(parameter.name);
builder.append(")");
if (i != parameters.size() - 1)
builder.append(", ");
}
message_generator.set("message.constructor_call_parameters", builder.build());
message_generator.append(R"~~~(
return make<@message.pascal_name@>(@message.constructor_call_parameters@);
}
)~~~");
message_generator.append(R"~~~(
virtual bool valid() const override { return m_ipc_message_valid; }
virtual IPC::MessageBuffer encode() const override
{
VERIFY(valid());
IPC::MessageBuffer buffer;
IPC::Encoder stream(buffer);
stream << endpoint_magic();
stream << (int)MessageID::@message.pascal_name@;
)~~~");
for (auto& parameter : parameters) {
auto parameter_generator = message_generator.fork();
parameter_generator.set("parameter.name", parameter.name);
parameter_generator.append(R"~~~(
stream << m_@parameter.name@;
)~~~");
}
message_generator.append(R"~~~(
return buffer;
}
)~~~");
for (auto& parameter : parameters) {
auto parameter_generator = message_generator.fork();
parameter_generator.set("parameter.type", parameter.type);
parameter_generator.set("parameter.name", parameter.name);
parameter_generator.append(R"~~~(
const @parameter.type@& @parameter.name@() const { return m_@parameter.name@; }
@parameter.type@ take_@parameter.name@() { return move(m_@parameter.name@); }
)~~~");
}
message_generator.append(R"~~~(
private:
bool m_ipc_message_valid { true };
)~~~");
for (auto& parameter : parameters) {
auto parameter_generator = message_generator.fork();
parameter_generator.set("parameter.type", parameter.type);
parameter_generator.set("parameter.name", parameter.name);
parameter_generator.append(R"~~~(
@parameter.type@ m_@parameter.name@ {};
)~~~");
}
message_generator.append(R"~~~(
};
)~~~");
};
for (auto& message : endpoint.messages) {
String response_name;
if (message.is_synchronous) {
response_name = message.response_name();
do_message(response_name, message.outputs);
}
do_message(message.name, message.inputs, response_name);
}
endpoint_generator.append(R"~~~(
} // namespace Messages::@endpoint.name@
)~~~");
endpoint_generator.append(R"~~~(
template<typename LocalEndpoint, typename PeerEndpoint>
class @endpoint.name@Proxy {
public:
// Used to disambiguate the constructor call.
struct Tag { };
@endpoint.name@Proxy(IPC::Connection<LocalEndpoint, PeerEndpoint>& connection, Tag)
: m_connection(connection)
{ }
)~~~");
for (auto& message : endpoint.messages) {
auto message_generator = endpoint_generator.fork();
auto do_implement_proxy = [&](String const& name, Vector<Parameter> const& parameters, bool is_synchronous, bool is_try) {
String return_type = "void";
if (is_synchronous) {
if (message.outputs.size() == 1)
return_type = message.outputs[0].type;
else if (!message.outputs.is_empty())
return_type = message_name(endpoint.name, message.name, true);
}
String inner_return_type = return_type;
if (is_try) {
StringBuilder builder;
builder.append("Result<");
builder.append(return_type);
builder.append(", IPC::ErrorCode>");
return_type = builder.to_string();
}
message_generator.set("message.name", message.name);
message_generator.set("message.pascal_name", pascal_case(message.name));
message_generator.set("message.complex_return_type", return_type);
message_generator.set("async_prefix_maybe", is_synchronous ? "" : "async_");
message_generator.set("try_prefix_maybe", is_try ? "try_" : "");
message_generator.set("handler_name", name);
message_generator.append(R"~~~(
@message.complex_return_type@ @try_prefix_maybe@@async_prefix_maybe@@handler_name@()~~~");
for (size_t i = 0; i < parameters.size(); ++i) {
auto& parameter = parameters[i];
auto argument_generator = message_generator.fork();
argument_generator.set("argument.type", parameter.type);
argument_generator.set("argument.name", parameter.name);
argument_generator.append("@argument.type@ @argument.name@");
if (i != parameters.size() - 1)
argument_generator.append(", ");
}
message_generator.append(") {");
if (is_synchronous && !is_try) {
if (return_type != "void") {
message_generator.append(R"~~~(
return )~~~");
if (message.outputs.size() != 1)
message_generator.append("move(*");
} else {
message_generator.append(R"~~~(
(void) )~~~");
}
message_generator.append("m_connection.template send_sync<Messages::@endpoint.name@::@message.pascal_name@>(");
} else if (is_try) {
message_generator.append(R"~~~(
auto result = m_connection.template send_sync_but_allow_failure<Messages::@endpoint.name@::@message.pascal_name@>()~~~");
} else {
message_generator.append(R"~~~(
// FIXME: Handle post_message failures.
(void) m_connection.post_message(Messages::@endpoint.name@::@message.pascal_name@ { )~~~");
}
for (size_t i = 0; i < parameters.size(); ++i) {
auto& parameter = parameters[i];
auto argument_generator = message_generator.fork();
argument_generator.set("argument.name", parameter.name);
if (is_primitive_type(parameters[i].type))
argument_generator.append("@argument.name@");
else
argument_generator.append("move(@argument.name@)");
if (i != parameters.size() - 1)
argument_generator.append(", ");
}
if (is_synchronous && !is_try) {
if (return_type != "void") {
message_generator.append(")");
}
if (message.outputs.size() == 1) {
message_generator.append("->take_");
message_generator.append(message.outputs[0].name);
message_generator.append("()");
} else
message_generator.append(")");
message_generator.append(";");
} else if (is_try) {
message_generator.append(R"~~~();
if (!result)
return IPC::ErrorCode::PeerDisconnected;
)~~~");
if (inner_return_type != "void") {
message_generator.append(R"~~~(
return move(*result);
)~~~");
} else {
message_generator.append(R"~~~(
return { };
)~~~");
}
} else {
message_generator.append(R"~~~( });
)~~~");
}
message_generator.append(R"~~~(
}
)~~~");
};
do_implement_proxy(message.name, message.inputs, message.is_synchronous, false);
if (message.is_synchronous) {
do_implement_proxy(message.name, message.inputs, false, false);
do_implement_proxy(message.name, message.inputs, true, true);
}
}
endpoint_generator.append(R"~~~(
private:
IPC::Connection<LocalEndpoint, PeerEndpoint>& m_connection;
};
)~~~");
endpoint_generator.append(R"~~~(
template<typename LocalEndpoint, typename PeerEndpoint>
class @endpoint.name@Proxy;
class @endpoint.name@Stub;
class @endpoint.name@Endpoint {
public:
template<typename LocalEndpoint>
using Proxy = @endpoint.name@Proxy<LocalEndpoint, @endpoint.name@Endpoint>;
using Stub = @endpoint.name@Stub;
static u32 static_magic() { return @endpoint.magic@; }
static OwnPtr<IPC::Message> decode_message(ReadonlyBytes buffer, [[maybe_unused]] Core::Stream::LocalSocket& socket)
{
InputMemoryStream stream { buffer };
u32 message_endpoint_magic = 0;
stream >> message_endpoint_magic;
if (stream.handle_any_error()) {
)~~~");
if constexpr (GENERATE_DEBUG) {
endpoint_generator.append(R"~~~(
dbgln("Failed to read message endpoint magic");
)~~~");
}
endpoint_generator.append(R"~~~(
return {};
}
if (message_endpoint_magic != @endpoint.magic@) {
)~~~");
if constexpr (GENERATE_DEBUG) {
endpoint_generator.append(R"~~~(
dbgln("@endpoint.name@: Endpoint magic number message_endpoint_magic != @endpoint.magic@, not my message! (the other endpoint may have handled it)");
)~~~");
}
endpoint_generator.append(R"~~~(
return {};
}
i32 message_id = 0;
stream >> message_id;
if (stream.handle_any_error()) {
)~~~");
if constexpr (GENERATE_DEBUG) {
endpoint_generator.append(R"~~~(
dbgln("Failed to read message ID");
)~~~");
}
endpoint_generator.append(R"~~~(
return {};
}
OwnPtr<IPC::Message> message;
switch (message_id) {
)~~~");
for (auto& message : endpoint.messages) {
auto do_decode_message = [&](const String& name) {
auto message_generator = endpoint_generator.fork();
message_generator.set("message.name", name);
message_generator.set("message.pascal_name", pascal_case(name));
message_generator.append(R"~~~(
case (int)Messages::@endpoint.name@::MessageID::@message.pascal_name@:
message = Messages::@endpoint.name@::@message.pascal_name@::decode(stream, socket);
break;
)~~~");
};
do_decode_message(message.name);
if (message.is_synchronous)
do_decode_message(message.response_name());
}
endpoint_generator.append(R"~~~(
default:
)~~~");
if constexpr (GENERATE_DEBUG) {
endpoint_generator.append(R"~~~(
dbgln("Failed to decode @endpoint.name@.({})", message_id);
)~~~");
}
endpoint_generator.append(R"~~~(
return {};
}
if (stream.handle_any_error()) {
)~~~");
if constexpr (GENERATE_DEBUG) {
endpoint_generator.append(R"~~~(
dbgln("Failed to read the message");
)~~~");
}
endpoint_generator.append(R"~~~(
return {};
}
return message;
}
};
class @endpoint.name@Stub : public IPC::Stub {
public:
@endpoint.name@Stub() { }
virtual ~@endpoint.name@Stub() override { }
virtual u32 magic() const override { return @endpoint.magic@; }
virtual String name() const override { return "@endpoint.name@"; }
virtual OwnPtr<IPC::MessageBuffer> handle(const IPC::Message& message) override
{
switch (message.message_id()) {
)~~~");
for (auto& message : endpoint.messages) {
auto do_handle_message = [&](String const& name, Vector<Parameter> const& parameters, bool returns_something) {
auto message_generator = endpoint_generator.fork();
StringBuilder argument_generator;
for (size_t i = 0; i < parameters.size(); ++i) {
auto& parameter = parameters[i];
argument_generator.append("request.");
argument_generator.append(parameter.name);
argument_generator.append("()");
if (i != parameters.size() - 1)
argument_generator.append(", ");
}
message_generator.set("message.pascal_name", pascal_case(name));
message_generator.set("message.response_type", pascal_case(message.response_name()));
message_generator.set("handler_name", name);
message_generator.set("arguments", argument_generator.to_string());
message_generator.append(R"~~~(
case (int)Messages::@endpoint.name@::MessageID::@message.pascal_name@: {
)~~~");
if (returns_something) {
if (message.outputs.is_empty()) {
message_generator.append(R"~~~(
[[maybe_unused]] auto& request = static_cast<const Messages::@endpoint.name@::@message.pascal_name@&>(message);
@handler_name@(@arguments@);
auto response = Messages::@endpoint.name@::@message.response_type@ { };
return make<IPC::MessageBuffer>(response.encode());
)~~~");
} else {
message_generator.append(R"~~~(
[[maybe_unused]] auto& request = static_cast<const Messages::@endpoint.name@::@message.pascal_name@&>(message);
auto response = @handler_name@(@arguments@);
if (!response.valid())
return {};
return make<IPC::MessageBuffer>(response.encode());
)~~~");
}
} else {
message_generator.append(R"~~~(
[[maybe_unused]] auto& request = static_cast<const Messages::@endpoint.name@::@message.pascal_name@&>(message);
@handler_name@(@arguments@);
return {};
)~~~");
}
message_generator.append(R"~~~(
}
)~~~");
};
do_handle_message(message.name, message.inputs, message.is_synchronous);
}
endpoint_generator.append(R"~~~(
default:
return {};
}
}
)~~~");
for (auto& message : endpoint.messages) {
auto message_generator = endpoint_generator.fork();
auto do_handle_message_decl = [&](String const& name, Vector<Parameter> const& parameters, bool is_response) {
String return_type = "void";
if (message.is_synchronous && !message.outputs.is_empty() && !is_response)
return_type = message_name(endpoint.name, message.name, true);
message_generator.set("message.complex_return_type", return_type);
message_generator.set("handler_name", name);
message_generator.append(R"~~~(
virtual @message.complex_return_type@ @handler_name@()~~~");
auto make_argument_type = [](String const& type) {
StringBuilder builder;
bool const_ref = !is_primitive_type(type);
builder.append(type);
if (const_ref)
builder.append(" const&");
return builder.to_string();
};
for (size_t i = 0; i < parameters.size(); ++i) {
auto& parameter = parameters[i];
auto argument_generator = message_generator.fork();
argument_generator.set("argument.type", make_argument_type(parameter.type));
argument_generator.set("argument.name", parameter.name);
argument_generator.append("[[maybe_unused]] @argument.type@ @argument.name@");
if (i != parameters.size() - 1)
argument_generator.append(", ");
}
if (is_response) {
message_generator.append(R"~~~() { };
)~~~");
} else {
message_generator.append(R"~~~() = 0;
)~~~");
}
};
do_handle_message_decl(message.name, message.inputs, false);
}
endpoint_generator.append(R"~~~(
private:
};
#ifdef __clang__
#pragma clang diagnostic pop
#endif
)~~~");
}
outln("{}", generator.as_string_view());
if constexpr (GENERATE_DEBUG) {
for (auto& endpoint : endpoints) {
warnln("Endpoint '{}' (magic: {})", endpoint.name, endpoint.magic);
for (auto& message : endpoint.messages) {
warnln(" Message: '{}'", message.name);
warnln(" Sync: {}", message.is_synchronous);
warnln(" Inputs:");
for (auto& parameter : message.inputs)
warnln(" Parameter: {} ({})", parameter.name, parameter.type);
if (message.inputs.is_empty())
warnln(" (none)");
if (message.is_synchronous) {
warnln(" Outputs:");
for (auto& parameter : message.outputs)
warnln(" Parameter: {} ({})", parameter.name, parameter.type);
if (message.outputs.is_empty())
warnln(" (none)");
}
}
}
}
}