function->_instruction_args_size = instr_args_max;

function->_ptrcall_args_size = ptrcall_max;

ended = true;

return function;

}

append(Address());

append(p_target);

append(op_func);

return;

}

append(p_right_operand);

append(p_target);

append(op_func);

return;

}

append(p_target);

append(p_source);

append(setter);

return;

}

append_opcode(GDScriptFunction::OPCODE_SET_NAMED);

append(p_source);

append(p_target);

append(getter);

return;

}

append_opcode(GDScriptFunction::OPCODE_GET_NAMED);

append(p_function_name);

}

append_opcode_and_argcount(GDScriptFunction::OPCODE_CALL_GDSCRIPT_UTILITY, 1 + p_arguments.size());

for (int i = 0; i < p_arguments.size(); i++) {

append(p_arguments[i]);

}

append(get_call_target(p_target));

append(p_arguments.size());

}

void GDScriptByteCodeGenerator::write_call_utility(const Address &p_target, const StringName &p_function, const Vector<Address> &p_arguments) {

append(target);

append(p_arguments.size());

append(Variant::get_validated_utility_function(p_function));

} else {

append_opcode_and_argcount(GDScriptFunction::OPCODE_CALL_UTILITY, 1 + p_arguments.size());

for (int i = 0; i < p_arguments.size(); i++) {

append(target);

append(p_arguments.size());

append(Variant::get_validated_builtin_method(p_type, p_method));

}

void GDScriptByteCodeGenerator::write_call_builtin_type(const Address &p_target, const Address &p_base, Variant::Type p_type, const StringName &p_method, const Vector<Address> &p_arguments) {

append(get_call_target(p_target));

append(p_arguments.size());

append(Variant::get_validated_constructor(p_type, valid_constructor));

return;

}

}

current_breaks_to_patch.pop_back();

}

void GDScriptByteCodeGenerator::write_break() {

append_opcode(GDScriptFunction::OPCODE_JUMP);

current_breaks_to_patch.back()->get().push_back(opcodes.size());

append(continue_addrs.back()->get());

}

void GDScriptByteCodeGenerator::write_breakpoint() {

append_opcode(GDScriptFunction::OPCODE_BREAKPOINT);

}

RBMap<MethodBind *, int> method_bind_map;

RBMap<GDScriptFunction *, int> lambdas_map;

// Lists since these can be nested.

List<int> if_jmp_addrs;

List<int> for_jmp_addrs;

List<int> ternary_jump_skip_pos;

List<List<int>> current_breaks_to_patch;

void add_stack_identifier(const StringName &p_id, int p_stackpos) {

if (locals.size() > max_locals) {

virtual void write_super_call(const Address &p_target, const StringName &p_function_name, const Vector<Address> &p_arguments) override;

virtual void write_call_async(const Address &p_target, const Address &p_base, const StringName &p_function_name, const Vector<Address> &p_arguments) override;

virtual void write_call_utility(const Address &p_target, const StringName &p_function, const Vector<Address> &p_arguments) override;

void write_call_builtin_type(const Address &p_target, const Address &p_base, Variant::Type p_type, const StringName &p_method, bool p_is_static, const Vector<Address> &p_arguments);

virtual void write_call_builtin_type(const Address &p_target, const Address &p_base, Variant::Type p_type, const StringName &p_method, const Vector<Address> &p_arguments) override;

virtual void write_call_builtin_type_static(const Address &p_target, Variant::Type p_type, const StringName &p_method, const Vector<Address> &p_arguments) override;

virtual void write_call_native_static(const Address &p_target, const StringName &p_class, const StringName &p_method, const Vector<Address> &p_arguments) override;

virtual void start_while_condition() override;

virtual void write_while(const Address &p_condition) override;

virtual void write_endwhile() override;

virtual void write_break() override;

virtual void write_continue() override;

virtual void write_breakpoint() override;

virtual void write_newline(int p_line) override;

virtual void write_return(const Address &p_return_value) override;

virtual void write_super_call(const Address &p_target, const StringName &p_function_name, const Vector<Address> &p_arguments) = 0;

virtual void write_call_async(const Address &p_target, const Address &p_base, const StringName &p_function_name, const Vector<Address> &p_arguments) = 0;

virtual void write_call_utility(const Address &p_target, const StringName &p_function, const Vector<Address> &p_arguments) = 0;

virtual void write_call_builtin_type(const Address &p_target, const Address &p_base, Variant::Type p_type, const StringName &p_method, const Vector<Address> &p_arguments) = 0;

virtual void write_call_builtin_type_static(const Address &p_target, Variant::Type p_type, const StringName &p_method, const Vector<Address> &p_arguments) = 0;

virtual void write_call_native_static(const Address &p_target, const StringName &p_class, const StringName &p_method, const Vector<Address> &p_arguments) = 0;

virtual void start_while_condition() = 0; // Used to allow a jump to the expression evaluation.

virtual void write_while(const Address &p_condition) = 0;

virtual void write_endwhile() = 0;

virtual void write_break() = 0;

virtual void write_continue() = 0;

virtual void write_breakpoint() = 0;

virtual void write_newline(int p_line) = 0;

virtual void write_return(const Address &p_return_value) = 0;

gen->write_call_utility(result, call->function_name, arguments);

} else if (!call->is_super && call->callee->type == GDScriptParser::Node::IDENTIFIER && GDScriptUtilityFunctions::function_exists(call->function_name)) {

// GDScript utility function.

} else {

// Regular function.

const GDScriptParser::ExpressionNode *callee = call->callee;

GDScriptCodeGenerator::Address value_length_addr = codegen.add_temporary(temp_type);

Vector<GDScriptCodeGenerator::Address> len_args;

len_args.push_back(p_value_addr);

// Test length compatibility.

temp_type.builtin_type = Variant::BOOL;

GDScriptCodeGenerator::Address value_length_addr = codegen.add_temporary(temp_type);

Vector<GDScriptCodeGenerator::Address> func_args;

func_args.push_back(p_value_addr);

// Test length compatibility.

temp_type.builtin_type = Variant::BOOL;

case GDScriptParser::Node::MATCH: {

const GDScriptParser::MatchNode *match = static_cast<const GDScriptParser::MatchNode *>(s);

codegen.start_block();

// Evaluate the match expression.

const GDScriptParser::MatchBranchNode *branch = match->branches[j];

codegen.start_block(); // Create an extra block around for binds.

// Add locals in block before patterns, so temporaries don't use the stack address for binds.

for (int j = 0; j < match->branches.size(); j++) {

gen->write_endif();

}

} break;

case GDScriptParser::Node::IF: {

const GDScriptParser::IfNode *if_n = static_cast<const GDScriptParser::IfNode *>(s);

gen->write_break();

} break;

case GDScriptParser::Node::CONTINUE: {

} break;

case GDScriptParser::Node::RETURN: {

const GDScriptParser::ReturnNode *return_n = static_cast<const GDScriptParser::ReturnNode *>(s);

text += DADDR(3);

text += " = ";

text += DADDR(1);

text += DADDR(2);

incr += 5;

text += "set_named validated ";

text += DADDR(1);

text += "[\"";

text += "\"] = ";

text += DADDR(2);

text += " = ";

text += DADDR(1);

text += "[\"";

text += "\"]";

incr += 4;

text += DADDR(1 + argc);

text += " = ";

for (int i = 0; i < argc; i++) {

if (i > 0) {

text += ", ";

text += DADDR(2 + argc) + " = ";

text += DADDR(1) + ".";

text += "(";

case OPCODE_CALL_UTILITY_VALIDATED: {

int instr_var_args = _code_ptr[++ip];

int argc = _code_ptr[ip + 1 + instr_var_args];

text += DADDR(1 + argc) + " = ";

text += "(";

for (int i = 0; i < argc; i++) {

case OPCODE_CALL_GDSCRIPT_UTILITY: {

int instr_var_args = _code_ptr[++ip];

int argc = _code_ptr[ip + 1 + instr_var_args];

text += DADDR(1 + argc) + " = ";

text += "(";

for (int i = 0; i < argc; i++) {

Vector<Variant> default_arg_values;

#endif

List<StackDebug> stack_debug;

Variant _get_default_variant_for_data_type(const GDScriptDataType &p_data_type);

GDScriptParser::ContinueNode *GDScriptParser::parse_continue() {

if (!can_continue) {

}

current_suite->has_continue = true;

ContinueNode *cont = alloc_node<ContinueNode>();

complete_extents(cont);

end_statement(R"("continue")");

return cont;

// Save break/continue state.

bool could_break = can_break;

bool could_continue = can_continue;

// Allow break/continue.

can_break = true;

can_continue = true;

SuiteNode *suite = alloc_node<SuiteNode>();

if (n_for->variable) {

// Reset break/continue state.

can_break = could_break;

can_continue = could_continue;

return n_for;

}

return nullptr;

}

SuiteNode *suite = alloc_node<SuiteNode>();

if (branch->patterns.size() > 0) {

for (const KeyValue<StringName, IdentifierNode *> &E : branch->patterns[0]->binds) {

branch->block = parse_suite("match pattern block", suite);

complete_extents(branch);

return branch;

}

// Save break/continue state.

bool could_break = can_break;

bool could_continue = can_continue;

// Allow break/continue.

can_break = true;

can_continue = true;

n_while->loop = parse_suite(R"("while" block)");

n_while->loop->is_loop = true;

// Reset break/continue state.

can_break = could_break;

can_continue = could_continue;

return n_while;

}

};

struct ContinueNode : public Node {

ContinueNode() {

type = CONTINUE;

}

bool panic_mode = false;

bool can_break = false;

bool can_continue = false;

List<bool> multiline_stack;

ClassNode *head = nullptr;

match i:

"Hello":

print("hello")

"Good bye":

print("bye")

_:

GDTEST_OK

hello

This will match

1234:

print("2")

match number:

_:

match number:

1234:

print("4")

1

2

3

4

5

6