mirror of
https://github.com/danog/ton.git
synced 2024-12-11 08:39:51 +01:00
676 lines
24 KiB
C++
676 lines
24 KiB
C++
/*
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This file is part of TON Blockchain Library.
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TON Blockchain Library is free software: you can redistribute it and/or modify
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it under the terms of the GNU Lesser General Public License as published by
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the Free Software Foundation, either version 2 of the License, or
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(at your option) any later version.
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TON Blockchain Library is distributed in the hope that it will be useful,
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but WITHOUT ANY WARRANTY; without even the implied warranty of
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MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
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GNU Lesser General Public License for more details.
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You should have received a copy of the GNU Lesser General Public License
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along with TON Blockchain Library. If not, see <http://www.gnu.org/licenses/>.
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Copyright 2017-2019 Telegram Systems LLP
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*/
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#include <functional>
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#include "vm/tonops.h"
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#include "vm/log.h"
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#include "vm/opctable.h"
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#include "vm/stack.hpp"
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#include "vm/continuation.h"
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#include "vm/excno.hpp"
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#include "vm/dict.h"
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#include "Ed25519.h"
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namespace vm {
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namespace {
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bool debug(const char* str) TD_UNUSED;
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bool debug(const char* str) {
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std::cerr << str;
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return true;
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}
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bool debug(int x) TD_UNUSED;
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bool debug(int x) {
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if (x < 100) {
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std::cerr << '[' << (char)(64 + x) << ']';
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} else {
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std::cerr << '[' << (char)(64 + x / 100) << x % 100 << ']';
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}
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return true;
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}
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} // namespace
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#define DBG_START int dbg = 0;
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#define DBG debug(++dbg)&&
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#define DEB_START DBG_START
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#define DEB DBG
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int exec_set_gas_generic(VmState* st, long long new_gas_limit) {
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if (new_gas_limit < st->gas_consumed()) {
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throw VmNoGas{};
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}
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st->change_gas_limit(new_gas_limit);
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return 0;
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}
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int exec_accept(VmState* st) {
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VM_LOG(st) << "execute ACCEPT";
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return exec_set_gas_generic(st, GasLimits::infty);
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}
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int exec_set_gas_limit(VmState* st) {
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VM_LOG(st) << "execute SETGASLIMIT";
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td::RefInt256 x = st->get_stack().pop_int_finite();
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long long gas = 0;
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if (x->sgn() > 0) {
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gas = x->unsigned_fits_bits(63) ? x->to_long() : GasLimits::infty;
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}
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return exec_set_gas_generic(st, gas);
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}
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void register_basic_gas_ops(OpcodeTable& cp0) {
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using namespace std::placeholders;
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cp0.insert(OpcodeInstr::mksimple(0xf800, 16, "ACCEPT", exec_accept))
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.insert(OpcodeInstr::mksimple(0xf801, 16, "SETGASLIMIT", exec_set_gas_limit));
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}
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void register_ton_gas_ops(OpcodeTable& cp0) {
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using namespace std::placeholders;
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}
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int exec_get_param(VmState* st, unsigned idx, const char* name) {
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if (name) {
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VM_LOG(st) << "execute " << name;
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}
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Stack& stack = st->get_stack();
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auto tuple = st->get_c7();
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auto t1 = tuple_index(*tuple, 0).as_tuple_range(255);
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if (t1.is_null()) {
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throw VmError{Excno::type_chk, "intermediate value is not a tuple"};
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}
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stack.push(tuple_index(*t1, idx));
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return 0;
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}
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int exec_get_var_param(VmState* st, unsigned idx) {
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idx &= 15;
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VM_LOG(st) << "execute GETPARAM " << idx;
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return exec_get_param(st, idx, nullptr);
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}
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int exec_get_config_dict(VmState* st) {
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exec_get_param(st, 9, "CONFIGDICT");
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st->get_stack().push_smallint(32);
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return 0;
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}
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int exec_get_config_param(VmState* st, bool opt) {
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VM_LOG(st) << "execute CONFIG" << (opt ? "OPTPARAM" : "PARAM");
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Stack& stack = st->get_stack();
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auto idx = stack.pop_int();
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exec_get_param(st, 9, nullptr);
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Dictionary dict{stack.pop_maybe_cell(), 32};
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td::BitArray<32> key;
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Ref<vm::Cell> value;
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if (idx->export_bits(key.bits(), key.size(), true)) {
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value = dict.lookup_ref(key);
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}
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if (opt) {
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stack.push_maybe_cell(std::move(value));
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} else if (value.not_null()) {
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stack.push_cell(std::move(value));
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stack.push_bool(true);
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} else {
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stack.push_bool(false);
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}
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return 0;
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}
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int exec_get_global_common(VmState* st, unsigned n) {
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st->get_stack().push(tuple_extend_index(st->get_c7(), n));
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return 0;
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}
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int exec_get_global(VmState* st, unsigned args) {
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args &= 31;
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VM_LOG(st) << "execute GETGLOB " << args;
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return exec_get_global_common(st, args);
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}
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int exec_get_global_var(VmState* st) {
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VM_LOG(st) << "execute GETGLOBVAR";
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st->check_underflow(1);
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unsigned args = st->get_stack().pop_smallint_range(254);
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return exec_get_global_common(st, args);
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}
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int exec_set_global_common(VmState* st, unsigned idx) {
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Stack& stack = st->get_stack();
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auto x = stack.pop();
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auto tuple = st->get_c7();
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if (idx >= 255) {
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throw VmError{Excno::range_chk, "tuple index out of range"};
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}
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auto tpay = tuple_extend_set_index(tuple, idx, std::move(x));
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if (tpay > 0) {
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st->consume_tuple_gas(tpay);
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}
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st->set_c7(std::move(tuple));
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return 0;
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}
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int exec_set_global(VmState* st, unsigned args) {
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args &= 31;
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VM_LOG(st) << "execute SETGLOB " << args;
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st->check_underflow(1);
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return exec_set_global_common(st, args);
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}
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int exec_set_global_var(VmState* st) {
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VM_LOG(st) << "execute SETGLOBVAR";
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st->check_underflow(2);
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unsigned args = st->get_stack().pop_smallint_range(254);
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return exec_set_global_common(st, args);
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}
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void register_ton_config_ops(OpcodeTable& cp0) {
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using namespace std::placeholders;
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cp0.insert(OpcodeInstr::mkfixedrange(0xf820, 0xf823, 16, 4, instr::dump_1c("GETPARAM "), exec_get_var_param))
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.insert(OpcodeInstr::mksimple(0xf823, 16, "NOW", std::bind(exec_get_param, _1, 3, "NOW")))
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.insert(OpcodeInstr::mksimple(0xf824, 16, "BLOCKLT", std::bind(exec_get_param, _1, 4, "BLOCKLT")))
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.insert(OpcodeInstr::mksimple(0xf825, 16, "LTIME", std::bind(exec_get_param, _1, 5, "LTIME")))
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.insert(OpcodeInstr::mkfixedrange(0xf826, 0xf828, 16, 4, instr::dump_1c("GETPARAM "), exec_get_var_param))
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.insert(OpcodeInstr::mksimple(0xf828, 16, "MYADDR", std::bind(exec_get_param, _1, 8, "MYADDR")))
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.insert(OpcodeInstr::mksimple(0xf829, 16, "CONFIGROOT", std::bind(exec_get_param, _1, 9, "CONFIGROOT")))
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.insert(OpcodeInstr::mkfixedrange(0xf82a, 0xf830, 16, 4, instr::dump_1c("GETPARAM "), exec_get_var_param))
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.insert(OpcodeInstr::mksimple(0xf830, 16, "CONFIGDICT", exec_get_config_dict))
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.insert(OpcodeInstr::mksimple(0xf832, 16, "CONFIGPARAM", std::bind(exec_get_config_param, _1, false)))
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.insert(OpcodeInstr::mksimple(0xf833, 16, "CONFIGOPTPARAM", std::bind(exec_get_config_param, _1, true)))
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.insert(OpcodeInstr::mksimple(0xf840, 16, "GETGLOBVAR", exec_get_global_var))
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.insert(OpcodeInstr::mkfixedrange(0xf841, 0xf860, 16, 5, instr::dump_1c_and(31, "GETGLOB "), exec_get_global))
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.insert(OpcodeInstr::mksimple(0xf860, 16, "SETGLOBVAR", exec_set_global_var))
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.insert(OpcodeInstr::mkfixedrange(0xf861, 0xf880, 16, 5, instr::dump_1c_and(31, "SETGLOB "), exec_set_global));
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}
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int exec_compute_hash(VmState* st, int mode) {
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VM_LOG(st) << "execute HASH" << (mode & 1 ? 'S' : 'C') << 'U';
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Stack& stack = st->get_stack();
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std::array<unsigned char, 32> hash;
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if (!(mode & 1)) {
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auto cell = stack.pop_cell();
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hash = cell->get_hash().as_array();
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} else {
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auto cs = stack.pop_cellslice();
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vm::CellBuilder cb;
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CHECK(cb.append_cellslice_bool(std::move(cs)));
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// TODO: use cb.get_hash() instead
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hash = cb.finalize()->get_hash().as_array();
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}
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td::RefInt256 res{true};
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CHECK(res.write().import_bytes(hash.data(), hash.size(), false));
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stack.push_int(std::move(res));
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return 0;
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}
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int exec_compute_sha256(VmState* st) {
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VM_LOG(st) << "execute SHA256U";
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Stack& stack = st->get_stack();
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auto cs = stack.pop_cellslice();
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if (cs->size() & 7) {
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throw VmError{Excno::cell_und, "Slice does not consist of an integer number of bytes"};
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}
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auto len = (cs->size() >> 3);
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unsigned char data[128], hash[32];
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CHECK(len <= sizeof(data));
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CHECK(cs->prefetch_bytes(data, len));
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digest::hash_str<digest::SHA256>(hash, data, len);
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td::RefInt256 res{true};
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CHECK(res.write().import_bytes(hash, 32, false));
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stack.push_int(std::move(res));
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return 0;
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}
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int exec_ed25519_check_signature(VmState* st, bool from_slice) {
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VM_LOG(st) << "execute CHKSIGN" << (from_slice ? 'S' : 'U');
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Stack& stack = st->get_stack();
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stack.check_underflow(3);
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auto key_int = stack.pop_int();
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auto signature_cs = stack.pop_cellslice();
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unsigned char data[128], key[32], signature[64];
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unsigned data_len;
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if (from_slice) {
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auto cs = stack.pop_cellslice();
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if (cs->size() & 7) {
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throw VmError{Excno::cell_und, "Slice does not consist of an integer number of bytes"};
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}
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data_len = (cs->size() >> 3);
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CHECK(data_len <= sizeof(data));
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CHECK(cs->prefetch_bytes(data, data_len));
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} else {
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auto hash_int = stack.pop_int();
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data_len = 32;
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if (!hash_int->export_bytes(data, data_len, false)) {
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throw VmError{Excno::range_chk, "data hash must fit in an unsigned 256-bit integer"};
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}
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}
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if (!signature_cs->prefetch_bytes(signature, 64)) {
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throw VmError{Excno::cell_und, "Ed25519 signature must contain at least 512 data bits"};
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}
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if (!key_int->export_bytes(key, 32, false)) {
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throw VmError{Excno::range_chk, "Ed25519 public key must fit in an unsigned 256-bit integer"};
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}
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td::Ed25519::PublicKey pub_key{td::SecureString(td::Slice{key, 32})};
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auto res = pub_key.verify_signature(td::Slice{data, data_len}, td::Slice{signature, 64});
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stack.push_bool(res.is_ok());
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return 0;
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}
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void register_ton_crypto_ops(OpcodeTable& cp0) {
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using namespace std::placeholders;
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cp0.insert(OpcodeInstr::mksimple(0xf900, 16, "HASHCU", std::bind(exec_compute_hash, _1, 0)))
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.insert(OpcodeInstr::mksimple(0xf901, 16, "HASHSU", std::bind(exec_compute_hash, _1, 1)))
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.insert(OpcodeInstr::mksimple(0xf902, 16, "SHA256U", exec_compute_sha256))
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.insert(OpcodeInstr::mksimple(0xf910, 16, "CHKSIGNU", std::bind(exec_ed25519_check_signature, _1, false)))
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.insert(OpcodeInstr::mksimple(0xf911, 16, "CHKSIGNS", std::bind(exec_ed25519_check_signature, _1, true)));
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}
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int exec_load_var_integer(VmState* st, int len_bits, bool sgnd, bool quiet) {
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if (len_bits == 4 && !sgnd) {
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VM_LOG(st) << "execute LDGRAMS" << (quiet ? "Q" : "");
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} else {
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VM_LOG(st) << "execute LDVAR" << (sgnd ? "" : "U") << "INT" << (1 << len_bits) << (quiet ? "Q" : "");
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}
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Stack& stack = st->get_stack();
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auto csr = stack.pop_cellslice();
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td::RefInt256 x;
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int len;
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if (!(csr.write().fetch_uint_to(len_bits, len) && csr.unique_write().fetch_int256_to(len * 8, x, sgnd))) {
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if (quiet) {
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stack.push_bool(false);
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} else {
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throw VmError{Excno::cell_und, "cannot deserialize a variable-length integer"};
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}
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} else {
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stack.push_int(std::move(x));
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stack.push_cellslice(std::move(csr));
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if (quiet) {
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stack.push_bool(true);
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}
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}
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return 0;
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}
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int exec_store_var_integer(VmState* st, int len_bits, bool sgnd, bool quiet) {
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if (len_bits == 4 && !sgnd) {
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VM_LOG(st) << "execute STGRAMS" << (quiet ? "Q" : "");
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} else {
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VM_LOG(st) << "execute STVAR" << (sgnd ? "" : "U") << "INT" << (1 << len_bits) << (quiet ? "Q" : "");
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}
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Stack& stack = st->get_stack();
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stack.check_underflow(2);
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auto x = stack.pop_int();
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auto cbr = stack.pop_builder();
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unsigned len = ((x->bit_size(sgnd) + 7) >> 3);
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if (len >= (1u << len_bits)) {
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throw VmError{Excno::range_chk};
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}
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if (!(cbr.write().store_long_bool(len, len_bits) && cbr.unique_write().store_int256_bool(*x, len * 8, sgnd))) {
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if (quiet) {
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stack.push_bool(false);
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} else {
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throw VmError{Excno::cell_ov, "cannot serialize a variable-length integer"};
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}
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} else {
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stack.push_builder(std::move(cbr));
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if (quiet) {
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stack.push_bool(true);
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}
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}
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return 0;
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}
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bool skip_maybe_anycast(CellSlice& cs) {
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if (cs.prefetch_ulong(1) != 1) {
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return cs.advance(1);
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}
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unsigned depth;
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return cs.advance(1) // just$1
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&& cs.fetch_uint_leq(30, depth) // anycast_info$_ depth:(#<= 30)
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&& depth >= 1 // { depth >= 1 }
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&& cs.advance(depth); // rewrite_pfx:(bits depth) = Anycast;
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}
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bool skip_message_addr(CellSlice& cs) {
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switch ((unsigned)cs.fetch_ulong(2)) {
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case 0: // addr_none$00 = MsgAddressExt;
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return true;
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case 1: { // addr_extern$01
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unsigned len;
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return cs.fetch_uint_to(9, len) // len:(## 9)
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&& cs.advance(len); // external_address:(bits len) = MsgAddressExt;
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}
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case 2: { // addr_std$10
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return skip_maybe_anycast(cs) // anycast:(Maybe Anycast)
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&& cs.advance(8 + 256); // workchain_id:int8 address:bits256 = MsgAddressInt;
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}
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case 3: { // addr_var$11
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unsigned len;
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return skip_maybe_anycast(cs) // anycast:(Maybe Anycast)
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&& cs.fetch_uint_to(9, len) // addr_len:(## 9)
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&& cs.advance(32 + len); // workchain_id:int32 address:(bits addr_len) = MsgAddressInt;
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}
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default:
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return false;
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}
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}
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int exec_load_message_addr(VmState* st, bool quiet) {
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VM_LOG(st) << "execute LDMSGADDR" << (quiet ? "Q" : "");
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Stack& stack = st->get_stack();
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auto csr = stack.pop_cellslice(), csr_copy = csr;
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auto& cs = csr.write();
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if (!(skip_message_addr(cs) && csr_copy.write().cut_tail(cs))) {
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csr.clear();
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if (quiet) {
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stack.push_cellslice(std::move(csr_copy));
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stack.push_bool(false);
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} else {
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throw VmError{Excno::cell_und, "cannot load a MsgAddress"};
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}
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} else {
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stack.push_cellslice(std::move(csr_copy));
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stack.push_cellslice(std::move(csr));
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if (quiet) {
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stack.push_bool(true);
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}
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}
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return 0;
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}
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bool parse_maybe_anycast(CellSlice& cs, StackEntry& res) {
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res = StackEntry{};
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if (cs.prefetch_ulong(1) != 1) {
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return cs.advance(1);
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}
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unsigned depth;
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Ref<CellSlice> pfx;
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if (cs.advance(1) // just$1
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&& cs.fetch_uint_leq(30, depth) // anycast_info$_ depth:(#<= 30)
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&& depth >= 1 // { depth >= 1 }
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&& cs.fetch_subslice_to(depth, pfx)) { // rewrite_pfx:(bits depth) = Anycast;
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res = std::move(pfx);
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return true;
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}
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return false;
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}
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bool parse_message_addr(CellSlice& cs, std::vector<StackEntry>& res) {
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res.clear();
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switch ((unsigned)cs.fetch_ulong(2)) {
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case 0: // addr_none$00 = MsgAddressExt;
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res.emplace_back(td::RefInt256{true, 0}); // -> (0)
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return true;
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case 1: { // addr_extern$01
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unsigned len;
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Ref<CellSlice> addr;
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if (cs.fetch_uint_to(9, len) // len:(## 9)
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&& cs.fetch_subslice_to(len, addr)) { // external_address:(bits len) = MsgAddressExt;
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res.emplace_back(td::RefInt256{true, 1});
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res.emplace_back(std::move(addr));
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return true;
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}
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break;
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}
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case 2: { // addr_std$10
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StackEntry v;
|
|
int workchain;
|
|
Ref<CellSlice> addr;
|
|
if (parse_maybe_anycast(cs, v) // anycast:(Maybe Anycast)
|
|
&& cs.fetch_int_to(8, workchain) // workchain_id:int8
|
|
&& cs.fetch_subslice_to(256, addr)) { // address:bits256 = MsgAddressInt;
|
|
res.emplace_back(td::RefInt256{true, 2});
|
|
res.emplace_back(std::move(v));
|
|
res.emplace_back(td::RefInt256{true, workchain});
|
|
res.emplace_back(std::move(addr));
|
|
return true;
|
|
}
|
|
break;
|
|
}
|
|
case 3: { // addr_var$11
|
|
StackEntry v;
|
|
int len, workchain;
|
|
Ref<CellSlice> addr;
|
|
if (parse_maybe_anycast(cs, v) // anycast:(Maybe Anycast)
|
|
&& cs.fetch_uint_to(9, len) // addr_len:(## 9)
|
|
&& cs.fetch_int_to(32, workchain) // workchain_id:int32
|
|
&& cs.fetch_subslice_to(len, addr)) { // address:(bits addr_len) = MsgAddressInt;
|
|
res.emplace_back(td::RefInt256{true, 3});
|
|
res.emplace_back(std::move(v));
|
|
res.emplace_back(td::RefInt256{true, workchain});
|
|
res.emplace_back(std::move(addr));
|
|
return true;
|
|
}
|
|
break;
|
|
}
|
|
}
|
|
return false;
|
|
}
|
|
|
|
int exec_parse_message_addr(VmState* st, bool quiet) {
|
|
VM_LOG(st) << "execute PARSEMSGADDR" << (quiet ? "Q" : "");
|
|
Stack& stack = st->get_stack();
|
|
auto csr = stack.pop_cellslice();
|
|
auto& cs = csr.write();
|
|
std::vector<StackEntry> res;
|
|
if (!(parse_message_addr(cs, res) && cs.empty_ext())) {
|
|
if (quiet) {
|
|
stack.push_bool(false);
|
|
} else {
|
|
throw VmError{Excno::cell_und, "cannot parse a MsgAddress"};
|
|
}
|
|
} else {
|
|
stack.push_tuple(std::move(res));
|
|
if (quiet) {
|
|
stack.push_bool(true);
|
|
}
|
|
}
|
|
return 0;
|
|
}
|
|
|
|
// replaces first bits of `addr` with those of `prefix`
|
|
Ref<CellSlice> do_rewrite_addr(Ref<CellSlice> addr, Ref<CellSlice> prefix) {
|
|
if (prefix.is_null() || !prefix->size()) {
|
|
return std::move(addr);
|
|
}
|
|
if (prefix->size() > addr->size()) {
|
|
return {};
|
|
}
|
|
if (prefix->size() == addr->size()) {
|
|
return std::move(prefix);
|
|
}
|
|
vm::CellBuilder cb;
|
|
if (!(addr.write().advance(prefix->size()) && cb.append_cellslice_bool(std::move(prefix)) &&
|
|
cb.append_cellslice_bool(std::move(addr)))) {
|
|
return {};
|
|
}
|
|
return vm::load_cell_slice_ref(cb.finalize());
|
|
}
|
|
|
|
int exec_rewrite_message_addr(VmState* st, bool allow_var_addr, bool quiet) {
|
|
VM_LOG(st) << "execute REWRITE" << (allow_var_addr ? "VAR" : "STD") << "ADDR" << (quiet ? "Q" : "");
|
|
Stack& stack = st->get_stack();
|
|
auto csr = stack.pop_cellslice();
|
|
auto& cs = csr.write();
|
|
std::vector<StackEntry> tuple;
|
|
if (!(parse_message_addr(cs, tuple) && cs.empty_ext())) {
|
|
if (quiet) {
|
|
stack.push_bool(false);
|
|
return 0;
|
|
}
|
|
throw VmError{Excno::cell_und, "cannot parse a MsgAddress"};
|
|
}
|
|
int t = (int)std::move(tuple[0]).as_int()->to_long();
|
|
if (t != 2 && t != 3) {
|
|
if (quiet) {
|
|
stack.push_bool(false);
|
|
return 0;
|
|
}
|
|
throw VmError{Excno::cell_und, "cannot parse a MsgAddressInt"};
|
|
}
|
|
auto addr = std::move(tuple[3]).as_slice();
|
|
auto prefix = std::move(tuple[1]).as_slice();
|
|
if (!allow_var_addr) {
|
|
if (addr->size() != 256) {
|
|
if (quiet) {
|
|
stack.push_bool(false);
|
|
return 0;
|
|
}
|
|
throw VmError{Excno::cell_und, "MsgAddressInt is not a standard 256-bit address"};
|
|
}
|
|
td::Bits256 rw_addr;
|
|
td::RefInt256 int_addr{true};
|
|
CHECK(addr->prefetch_bits_to(rw_addr) &&
|
|
(prefix.is_null() || prefix->prefetch_bits_to(rw_addr.bits(), prefix->size())) &&
|
|
int_addr.unique_write().import_bits(rw_addr, false));
|
|
stack.push(std::move(tuple[2]));
|
|
stack.push(std::move(int_addr));
|
|
} else {
|
|
addr = do_rewrite_addr(std::move(addr), std::move(prefix));
|
|
if (addr.is_null()) {
|
|
if (quiet) {
|
|
stack.push_bool(false);
|
|
return 0;
|
|
}
|
|
throw VmError{Excno::cell_und, "cannot rewrite address in a MsgAddressInt"};
|
|
}
|
|
stack.push(std::move(tuple[2]));
|
|
stack.push(std::move(addr));
|
|
}
|
|
if (quiet) {
|
|
stack.push_bool(true);
|
|
}
|
|
return 0;
|
|
}
|
|
|
|
void register_ton_currency_address_ops(OpcodeTable& cp0) {
|
|
using namespace std::placeholders;
|
|
cp0.insert(OpcodeInstr::mksimple(0xfa00, 16, "LDGRAMS", std::bind(exec_load_var_integer, _1, 4, false, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa01, 16, "LDVARINT16", std::bind(exec_load_var_integer, _1, 4, true, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa02, 16, "STGRAMS", std::bind(exec_store_var_integer, _1, 4, false, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa03, 16, "STVARINT16", std::bind(exec_store_var_integer, _1, 4, true, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa04, 16, "LDVARUINT32", std::bind(exec_load_var_integer, _1, 5, false, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa05, 16, "LDVARINT32", std::bind(exec_load_var_integer, _1, 5, true, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa06, 16, "STVARUINT32", std::bind(exec_store_var_integer, _1, 5, false, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa07, 16, "STVARINT32", std::bind(exec_store_var_integer, _1, 5, true, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa40, 16, "LDMSGADDR", std::bind(exec_load_message_addr, _1, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa41, 16, "LDMSGADDRQ", std::bind(exec_load_message_addr, _1, true)))
|
|
.insert(OpcodeInstr::mksimple(0xfa42, 16, "PARSEMSGADDR", std::bind(exec_parse_message_addr, _1, false)))
|
|
.insert(OpcodeInstr::mksimple(0xfa43, 16, "PARSEMSGADDRQ", std::bind(exec_parse_message_addr, _1, true)))
|
|
.insert(
|
|
OpcodeInstr::mksimple(0xfa44, 16, "REWRITESTDADDR", std::bind(exec_rewrite_message_addr, _1, false, false)))
|
|
.insert(
|
|
OpcodeInstr::mksimple(0xfa45, 16, "REWRITESTDADDRQ", std::bind(exec_rewrite_message_addr, _1, false, true)))
|
|
.insert(
|
|
OpcodeInstr::mksimple(0xfa46, 16, "REWRITEVARADDR", std::bind(exec_rewrite_message_addr, _1, true, false)))
|
|
.insert(
|
|
OpcodeInstr::mksimple(0xfa47, 16, "REWRITEVARADDRQ", std::bind(exec_rewrite_message_addr, _1, true, true)));
|
|
}
|
|
|
|
static constexpr int output_actions_idx = 5;
|
|
|
|
int install_output_action(VmState* st, Ref<Cell> new_action_head) {
|
|
// TODO: increase actions:uint16 and msgs_sent:uint16 in SmartContractInfo at first reference of c5
|
|
VM_LOG(st) << "installing an output action";
|
|
st->set_d(output_actions_idx, std::move(new_action_head));
|
|
return 0;
|
|
}
|
|
|
|
static inline Ref<Cell> get_actions(VmState* st) {
|
|
return st->get_d(output_actions_idx);
|
|
}
|
|
|
|
int exec_send_raw_message(VmState* st) {
|
|
VM_LOG(st) << "execute SENDRAWMSG";
|
|
Stack& stack = st->get_stack();
|
|
stack.check_underflow(2);
|
|
int f = stack.pop_smallint_range(255);
|
|
Ref<Cell> msg_cell = stack.pop_cell();
|
|
CellBuilder cb;
|
|
if (!(cb.store_ref_bool(get_actions(st)) // out_list$_ {n:#} prev:^(OutList n)
|
|
&& cb.store_long_bool(0x0ec3c86d, 32) // action_send_msg#0ec3c86d
|
|
&& cb.store_long_bool(f, 8) // mode:(## 8)
|
|
&& cb.store_ref_bool(std::move(msg_cell)))) {
|
|
throw VmError{Excno::cell_ov, "cannot serialize raw output message into an output action cell"};
|
|
}
|
|
return install_output_action(st, cb.finalize());
|
|
}
|
|
|
|
bool store_grams(CellBuilder& cb, td::RefInt256 value) {
|
|
int k = value->bit_size(false);
|
|
return k <= 15 * 8 && cb.store_long_bool((k + 7) >> 3, 4) && cb.store_int256_bool(*value, (k + 7) & -8, false);
|
|
}
|
|
|
|
int exec_reserve_raw(VmState* st, int mode) {
|
|
VM_LOG(st) << "execute RESERVERAW" << (mode & 1 ? "X" : "");
|
|
Stack& stack = st->get_stack();
|
|
stack.check_underflow(2);
|
|
int f = stack.pop_smallint_range(3);
|
|
td::RefInt256 x;
|
|
Ref<CellSlice> csr;
|
|
if (mode & 1) {
|
|
csr = stack.pop_cellslice();
|
|
} else {
|
|
x = stack.pop_int_finite();
|
|
if (td::sgn(x) < 0) {
|
|
throw VmError{Excno::range_chk, "amount of nanograms must be non-negative"};
|
|
}
|
|
}
|
|
CellBuilder cb;
|
|
if (!(cb.store_ref_bool(get_actions(st)) // out_list$_ {n:#} prev:^(OutList n)
|
|
&& cb.store_long_bool(0x36e6b809, 32) // action_reserve_currency#36e6b809
|
|
&& cb.store_long_bool(f, 8) // mode:(## 8)
|
|
&& (mode & 1 ? cb.append_cellslice_bool(std::move(csr))
|
|
: (store_grams(cb, std::move(x)) && cb.store_bool_bool(false))))) {
|
|
throw VmError{Excno::cell_ov, "cannot serialize raw reserved currency amount into an output action cell"};
|
|
}
|
|
return install_output_action(st, cb.finalize());
|
|
}
|
|
|
|
int exec_set_code(VmState* st) {
|
|
VM_LOG(st) << "execute SETCODE";
|
|
auto code = st->get_stack().pop_cell();
|
|
CellBuilder cb;
|
|
if (!(cb.store_ref_bool(get_actions(st)) // out_list$_ {n:#} prev:^(OutList n)
|
|
&& cb.store_long_bool(0xad4de08e, 32) // action_set_code#ad4de08e
|
|
&& cb.store_ref_bool(std::move(code)))) { // new_code:^Cell = OutAction;
|
|
throw VmError{Excno::cell_ov, "cannot serialize new smart contract code into an output action cell"};
|
|
}
|
|
return install_output_action(st, cb.finalize());
|
|
}
|
|
|
|
void register_ton_message_ops(OpcodeTable& cp0) {
|
|
using namespace std::placeholders;
|
|
cp0.insert(OpcodeInstr::mksimple(0xfb00, 16, "SENDRAWMSG", exec_send_raw_message))
|
|
.insert(OpcodeInstr::mksimple(0xfb02, 16, "RESERVERAW", std::bind(exec_reserve_raw, _1, 0)))
|
|
.insert(OpcodeInstr::mksimple(0xfb03, 16, "RESERVERAWX", std::bind(exec_reserve_raw, _1, 1)))
|
|
.insert(OpcodeInstr::mksimple(0xfb04, 16, "SETCODE", exec_set_code));
|
|
}
|
|
|
|
void register_ton_ops(OpcodeTable& cp0) {
|
|
register_basic_gas_ops(cp0);
|
|
register_ton_gas_ops(cp0);
|
|
register_ton_config_ops(cp0);
|
|
register_ton_crypto_ops(cp0);
|
|
register_ton_currency_address_ops(cp0);
|
|
register_ton_message_ops(cp0);
|
|
}
|
|
|
|
} // namespace vm
|