9ba621b3ae
* add support for stake txs and payouts post-carrot * fixes on the stake return payments * complete post-carrot stake txs * rename protocol_tx_data to protocol_tx_data_t
683 lines
31 KiB
C++
683 lines
31 KiB
C++
// Copyright (c) 2025, The Monero Project
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//
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// All rights reserved.
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//
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// Redistribution and use in source and binary forms, with or without modification, are
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// permitted provided that the following conditions are met:
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//
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// 1. Redistributions of source code must retain the above copyright notice, this list of
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// conditions and the following disclaimer.
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//
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// 2. Redistributions in binary form must reproduce the above copyright notice, this list
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// of conditions and the following disclaimer in the documentation and/or other
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// materials provided with the distribution.
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//
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// 3. Neither the name of the copyright holder nor the names of its contributors may be
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// used to endorse or promote products derived from this software without specific
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// prior written permission.
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//
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// THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND ANY
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// EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF
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// MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL
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// THE COPYRIGHT HOLDER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
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// SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
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// PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
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// INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT,
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// STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF
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// THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
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#include "gtest/gtest.h"
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#include "carrot_core/output_set_finalization.h"
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#include "carrot_core/payment_proposal.h"
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#include "carrot_impl/format_utils.h"
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#include "carrot_impl/input_selection.h"
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#include "carrot_impl/tx_builder_inputs.h"
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#include "carrot_impl/tx_proposal_utils.h"
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#include "carrot_mock_helpers.h"
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#include "common/container_helpers.h"
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#include "crypto/generators.h"
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#include "cryptonote_basic/account.h"
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#include "cryptonote_basic/subaddress_index.h"
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#include "cryptonote_basic/cryptonote_format_utils.h"
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#include "cryptonote_core/blockchain.h"
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#include "curve_trees.h"
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#include "fcmp_pp/prove.h"
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#include "ringct/bulletproofs_plus.h"
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#include "ringct/rctOps.h"
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#include "ringct/rctSigs.h"
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using namespace carrot;
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namespace
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{
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//----------------------------------------------------------------------------------------------------------------------
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//----------------------------------------------------------------------------------------------------------------------
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static constexpr rct::xmr_amount MAX_AMOUNT_FCMP_PP = MONEY_SUPPLY /
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(FCMP_PLUS_PLUS_MAX_INPUTS + FCMP_PLUS_PLUS_MAX_OUTPUTS + 1);
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//----------------------------------------------------------------------------------------------------------------------
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//----------------------------------------------------------------------------------------------------------------------
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using CarrotEnoteVariant = tools::variant<CarrotCoinbaseEnoteV1, CarrotEnoteV1>;
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//----------------------------------------------------------------------------------------------------------------------
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//----------------------------------------------------------------------------------------------------------------------
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struct CarrotOutputContextsAndKeys
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{
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std::vector<CarrotEnoteVariant> enotes;
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std::vector<encrypted_payment_id_t> encrypted_payment_ids;
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std::vector<fcmp_pp::curve_trees::OutputContext> output_pairs;
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};
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//----------------------------------------------------------------------------------------------------------------------
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//----------------------------------------------------------------------------------------------------------------------
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static const CarrotOutputContextsAndKeys generate_random_carrot_outputs(
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const mock::mock_carrot_and_legacy_keys &keys,
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const std::size_t old_n_leaf_tuples,
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const std::size_t new_n_leaf_tuples)
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{
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CarrotOutputContextsAndKeys outs;
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outs.enotes.reserve(new_n_leaf_tuples);
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outs.encrypted_payment_ids.reserve(new_n_leaf_tuples);
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outs.output_pairs.reserve(new_n_leaf_tuples);
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for (std::size_t i = 0; i < new_n_leaf_tuples; ++i)
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{
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const std::uint64_t output_id = old_n_leaf_tuples + i;
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fcmp_pp::curve_trees::OutputContext output_pair{
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.output_id = output_id
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};
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CarrotPaymentProposalV1 normal_payment_proposal{
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.destination = keys.cryptonote_address(),
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.amount = rct::randXmrAmount(MAX_AMOUNT_FCMP_PP),
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.randomness = gen_janus_anchor()
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};
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CarrotPaymentProposalVerifiableSelfSendV1 selfsend_payment_proposal{
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.proposal = CarrotPaymentProposalSelfSendV1{
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.destination_address_spend_pubkey = keys.cryptonote_address().address_spend_pubkey,
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.amount = rct::randXmrAmount(MAX_AMOUNT_FCMP_PP),
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.enote_type = i % 2 ? CarrotEnoteType::CHANGE : CarrotEnoteType::PAYMENT,
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.enote_ephemeral_pubkey = gen_x25519_pubkey()
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},
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.subaddr_index = {0, 0}
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};
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bool push_coinbase = false;
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CarrotCoinbaseEnoteV1 coinbase_enote;
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RCTOutputEnoteProposal rct_output_enote_proposal;
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encrypted_payment_id_t encrypted_payment_id;
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const unsigned int enote_derive_type = i % 7;
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switch (enote_derive_type)
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{
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case 0: // coinbase enote
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get_coinbase_output_proposal_v1(normal_payment_proposal,
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mock::gen_block_index(),
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coinbase_enote);
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push_coinbase = true;
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break;
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case 1: // normal enote main address
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get_output_proposal_normal_v1(normal_payment_proposal,
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mock::gen_key_image(),
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rct_output_enote_proposal,
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encrypted_payment_id);
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break;
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case 2: // normal enote subaddress
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normal_payment_proposal.destination = keys.subaddress({mock::gen_subaddress_index()});
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get_output_proposal_normal_v1(normal_payment_proposal,
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mock::gen_key_image(),
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rct_output_enote_proposal,
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encrypted_payment_id);
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break;
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case 3: // special enote main address
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get_output_proposal_special_v1(selfsend_payment_proposal.proposal,
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keys.k_view_incoming_dev,
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keys.cryptonote_address().address_spend_pubkey,
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mock::gen_key_image(),
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std::nullopt,
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rct_output_enote_proposal);
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break;
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case 4: // special enote subaddress
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selfsend_payment_proposal.subaddr_index.index = mock::gen_subaddress_index();
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selfsend_payment_proposal.proposal.destination_address_spend_pubkey
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= keys.subaddress(selfsend_payment_proposal.subaddr_index).address_spend_pubkey;
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get_output_proposal_special_v1(selfsend_payment_proposal.proposal,
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keys.k_view_incoming_dev,
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keys.cryptonote_address().address_spend_pubkey,
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mock::gen_key_image(),
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std::nullopt,
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rct_output_enote_proposal);
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break;
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case 5: // internal main address
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get_output_proposal_internal_v1(selfsend_payment_proposal.proposal,
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keys.s_view_balance_dev,
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mock::gen_key_image(),
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std::nullopt,
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rct_output_enote_proposal);
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break;
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case 6: // internal subaddress
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selfsend_payment_proposal.subaddr_index.index = mock::gen_subaddress_index();
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selfsend_payment_proposal.proposal.destination_address_spend_pubkey
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= keys.subaddress(selfsend_payment_proposal.subaddr_index).address_spend_pubkey;
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get_output_proposal_internal_v1(selfsend_payment_proposal.proposal,
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keys.s_view_balance_dev,
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mock::gen_key_image(),
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std::nullopt,
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rct_output_enote_proposal);
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break;
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}
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if (push_coinbase)
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{
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output_pair.output_pair.output_pubkey = coinbase_enote.onetime_address;
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output_pair.output_pair.commitment = rct::zeroCommitVartime(coinbase_enote.amount);
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outs.enotes.push_back(coinbase_enote);
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outs.encrypted_payment_ids.emplace_back();
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}
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else
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{
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output_pair.output_pair.output_pubkey = rct_output_enote_proposal.enote.onetime_address;
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output_pair.output_pair.commitment = rct_output_enote_proposal.enote.amount_commitment;
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outs.enotes.push_back(rct_output_enote_proposal.enote);
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}
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outs.encrypted_payment_ids.push_back(encrypted_payment_id);
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outs.output_pairs.push_back(output_pair);
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}
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return outs;
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}
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} //anonymous namespace
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//----------------------------------------------------------------------------------------------------------------------
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//----------------------------------------------------------------------------------------------------------------------
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TEST(carrot_fcmp, receive_scan_spend_and_verify_serialized_carrot_tx)
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{
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// In this test we:
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// 1. Populate a curve tree with Carrot-derived enotes to Alice
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// 2. Scan those enotes and construct a transfer-style tx to Bob
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// 3. Serialize that tx, then deserialize it
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// 4. Verify non-input consensus rules on the deserialized tx
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// 5. Verify FCMP membership in the curve tree on the deserialized tx
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// 6. Scan the deserialized tx to Bob
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mock::mock_carrot_and_legacy_keys alice;
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mock::mock_carrot_and_legacy_keys bob;
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alice.generate();
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bob.generate();
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const size_t n_inputs = crypto::rand_range<size_t>(CARROT_MIN_TX_INPUTS, FCMP_PLUS_PLUS_MAX_INPUTS);
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const size_t n_outputs = crypto::rand_range<size_t>(CARROT_MIN_TX_OUTPUTS, FCMP_PLUS_PLUS_MAX_OUTPUTS);
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const std::size_t selene_chunk_width = fcmp_pp::curve_trees::SELENE_CHUNK_WIDTH;
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const std::size_t helios_chunk_width = fcmp_pp::curve_trees::HELIOS_CHUNK_WIDTH;
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const std::size_t tree_depth = 3;
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const std::size_t n_tree_layers = tree_depth + 1;
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const size_t expected_num_selene_branch_blinds = (tree_depth + 1) / 2;
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const size_t expected_num_helios_branch_blinds = tree_depth / 2;
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LOG_PRINT_L1("Test carrot_impl.receive_scan_spend_and_verify_serialized_carrot_tx with selene chunk width "
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<< selene_chunk_width << ", helios chunk width " << helios_chunk_width << ", tree depth " << tree_depth
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<< ", number of inputs " << n_inputs << ", number of outputs " << n_outputs);
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// Tree params
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uint64_t min_leaves_needed_for_tree_depth = 0;
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const auto curve_trees = test::init_curve_trees_test(selene_chunk_width,
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helios_chunk_width,
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tree_depth,
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min_leaves_needed_for_tree_depth);
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// Generate enotes...
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LOG_PRINT_L1("Generating carrot-derived enotes to Alice");
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const auto new_outputs = generate_random_carrot_outputs(alice,
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0,
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min_leaves_needed_for_tree_depth
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);
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ASSERT_GT(min_leaves_needed_for_tree_depth, n_inputs);
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// generate output ids to use as inputs...
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std::set<size_t> picked_output_ids_set;
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while (picked_output_ids_set.size() < n_inputs)
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picked_output_ids_set.insert(crypto::rand_idx(min_leaves_needed_for_tree_depth));
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std::vector<size_t> picked_output_ids(picked_output_ids_set.cbegin(), picked_output_ids_set.cend());
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std::shuffle(picked_output_ids.begin(), picked_output_ids.end(), crypto::random_device{});
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// scan inputs and make key images and opening hints...
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// a z C_a K_o opening hint output id
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using input_info_t = std::tuple<rct::xmr_amount, rct::key, rct::key, crypto::public_key, OutputOpeningHintVariant, std::uint64_t>;
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LOG_PRINT_L1("Alice scanning inputs");
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std::unordered_map<crypto::key_image, input_info_t> input_info_by_ki;
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rct::xmr_amount input_amount_sum = 0;
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for (const size_t picked_output_id : picked_output_ids)
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{
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// find index into new_outputs based on picked_output_id
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size_t new_outputs_idx;
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for (new_outputs_idx = 0; new_outputs_idx < new_outputs.output_pairs.size(); ++new_outputs_idx)
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{
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if (new_outputs.output_pairs.at(new_outputs_idx).output_id == picked_output_id)
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break;
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}
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ASSERT_LT(new_outputs_idx, new_outputs.enotes.size());
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// compile information about this enote
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const CarrotEnoteVariant &enote_v = new_outputs.enotes.at(new_outputs_idx);
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OutputOpeningHintVariant opening_hint;
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std::vector<mock::mock_scan_result_t> scan_results;
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if (enote_v.is_type<CarrotEnoteV1>())
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{
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const CarrotEnoteV1 &enote = enote_v.unwrap<CarrotEnoteV1>();
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const encrypted_payment_id_t encrypted_payment_id = new_outputs.encrypted_payment_ids.at(new_outputs_idx);
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mock::mock_scan_enote_set({enote},
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encrypted_payment_id,
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alice,
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scan_results);
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ASSERT_EQ(1, scan_results.size());
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const mock::mock_scan_result_t &scan_result = scan_results.front();
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const auto subaddr_it = alice.subaddress_map.find(scan_result.address_spend_pubkey);
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ASSERT_NE(alice.subaddress_map.cend(), subaddr_it);
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opening_hint = CarrotOutputOpeningHintV1{
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.source_enote = enote,
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.encrypted_payment_id = encrypted_payment_id,
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.subaddr_index = subaddr_it->second
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};
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}
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else // is coinbase
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{
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const CarrotCoinbaseEnoteV1 &enote = enote_v.unwrap<CarrotCoinbaseEnoteV1>();
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mock::mock_scan_coinbase_enote_set({enote},
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alice,
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scan_results);
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ASSERT_EQ(1, scan_results.size());
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const mock::mock_scan_result_t &scan_result = scan_results.front();
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ASSERT_EQ(alice.cryptonote_address().address_spend_pubkey, scan_result.address_spend_pubkey);
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opening_hint = CarrotCoinbaseOutputOpeningHintV1{
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.source_enote = enote,
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.derive_type = AddressDeriveType::Carrot
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};
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}
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ASSERT_EQ(1, scan_results.size());
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const mock::mock_scan_result_t &scan_result = scan_results.front();
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const fcmp_pp::curve_trees::OutputPair &output_pair = new_outputs.output_pairs.at(new_outputs_idx).output_pair;
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const crypto::key_image ki = alice.derive_key_image(scan_result.address_spend_pubkey,
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scan_result.sender_extension_g,
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scan_result.sender_extension_t,
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output_pair.output_pubkey);
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ASSERT_EQ(0, input_info_by_ki.count(ki));
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input_info_by_ki[ki] = {scan_result.amount,
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rct::sk2rct(scan_result.amount_blinding_factor),
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output_pair.commitment,
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output_pair.output_pubkey,
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opening_hint,
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new_outputs.output_pairs.at(new_outputs_idx).output_id};
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input_amount_sum += scan_result.amount;
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}
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// generate n_outputs-1 payment proposals to bob ...
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LOG_PRINT_L1("Generating payment proposals to Bob");
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rct::xmr_amount output_amount_remaining = rct::randXmrAmount(input_amount_sum);
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std::vector<CarrotPaymentProposalV1> bob_payment_proposals;
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for (size_t i = 0; i < n_outputs - 1; ++i)
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{
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const bool use_subaddress = i % 2 == 1;
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const CarrotDestinationV1 addr = use_subaddress ?
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bob.subaddress({mock::gen_subaddress_index()}) :
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bob.cryptonote_address();
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const rct::xmr_amount amount = rct::randXmrAmount(output_amount_remaining);
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bob_payment_proposals.push_back(CarrotPaymentProposalV1{
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.destination = addr,
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.amount = amount,
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.randomness = gen_janus_anchor()
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});
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output_amount_remaining -= amount;
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}
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// make a transfer-type tx proposal
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// @TODO: this can fail sporadically if fee exceeds remaining funds
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LOG_PRINT_L1("Creating transaction proposal");
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const rct::xmr_amount fee_per_weight = 1;
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CarrotTransactionProposalV1 tx_proposal;
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make_carrot_transaction_proposal_v1_transfer(bob_payment_proposals,
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/*selfsend_payment_proposals=*/{},
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fee_per_weight,
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/*extra=*/{},
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cryptonote::transaction_type::TRANSFER,
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[&input_info_by_ki]
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(
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const boost::multiprecision::int128_t&,
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const std::map<std::size_t, rct::xmr_amount>&,
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const std::size_t,
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const std::size_t,
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std::vector<CarrotSelectedInput>& key_images_out)
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{
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key_images_out.clear();
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key_images_out.reserve(input_info_by_ki.size());
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for (const auto &info : input_info_by_ki)
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{
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key_images_out.push_back(CarrotSelectedInput{
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.amount = std::get<0>(info.second),
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.key_image = info.first
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});
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}
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},
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alice.carrot_account_spend_pubkey,
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{{0, 0}, AddressDeriveType::Carrot},
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{},
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{},
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tx_proposal);
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ASSERT_EQ(n_outputs, tx_proposal.normal_payment_proposals.size() + tx_proposal.selfsend_payment_proposals.size());
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// collect core selfsend proposals
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std::vector<CarrotPaymentProposalSelfSendV1> selfsend_payment_proposal_cores;
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for (const CarrotPaymentProposalVerifiableSelfSendV1 &selfsend_payment_proposal : tx_proposal.selfsend_payment_proposals)
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selfsend_payment_proposal_cores.push_back(selfsend_payment_proposal.proposal);
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// derive output enote set
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LOG_PRINT_L1("Deriving enotes");
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std::vector<RCTOutputEnoteProposal> output_enote_proposals;
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encrypted_payment_id_t encrypted_payment_id;
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size_t change_index;
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std::unordered_map<crypto::public_key, size_t> normal_payments_indices;
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get_output_enote_proposals(tx_proposal.normal_payment_proposals,
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selfsend_payment_proposal_cores,
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tx_proposal.dummy_encrypted_payment_id,
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&alice.s_view_balance_dev,
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&alice.k_view_incoming_dev,
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alice.carrot_account_spend_pubkey,
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tx_proposal.key_images_sorted.at(0),
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output_enote_proposals,
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encrypted_payment_id,
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cryptonote::transaction_type::TRANSFER,
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change_index,
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normal_payments_indices);
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// Collect balance info and enotes
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std::vector<crypto::public_key> input_onetime_addresses;
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std::vector<rct::key> input_amount_commitments;
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std::vector<rct::key> input_amount_blinding_factors;
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std::vector<rct::xmr_amount> output_amounts;
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std::vector<rct::key> output_amount_blinding_factors;
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std::vector<CarrotEnoteV1> output_enotes;
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for (size_t i = 0; i < n_inputs; ++i)
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{
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const input_info_t &input_info = input_info_by_ki.at(tx_proposal.key_images_sorted.at(i));
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input_onetime_addresses.push_back(std::get<3>(input_info));
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input_amount_commitments.push_back(std::get<2>(input_info));
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input_amount_blinding_factors.push_back(std::get<1>(input_info));
|
|
}
|
|
for (const RCTOutputEnoteProposal &output_enote_proposal : output_enote_proposals)
|
|
{
|
|
output_amounts.push_back(output_enote_proposal.amount);
|
|
output_amount_blinding_factors.push_back(rct::sk2rct(output_enote_proposal.amount_blinding_factor));
|
|
output_enotes.push_back(output_enote_proposal.enote);
|
|
}
|
|
|
|
// make pruned tx
|
|
LOG_PRINT_L1("Storing carrot to transaction");
|
|
cryptonote::transaction tx = store_carrot_to_transaction_v1(output_enotes,
|
|
tx_proposal.key_images_sorted,
|
|
tx_proposal.sources,
|
|
tx_proposal.fee,
|
|
tx_proposal.tx_type,
|
|
tx_proposal.amount_burnt,
|
|
{}, // change_masks
|
|
{}, // return_enote
|
|
encrypted_payment_id);
|
|
|
|
ASSERT_EQ(2, tx.version);
|
|
ASSERT_EQ(0, tx.unlock_time);
|
|
ASSERT_EQ(n_inputs, tx.vin.size());
|
|
ASSERT_EQ(n_outputs, tx.vout.size());
|
|
ASSERT_EQ(n_outputs, tx.rct_signatures.outPk.size());
|
|
|
|
// Generate bulletproof+
|
|
LOG_PRINT_L1("Generating Bulletproof+");
|
|
tx.rct_signatures.p.bulletproofs_plus.push_back(rct::bulletproof_plus_PROVE(output_amounts, output_amount_blinding_factors));
|
|
ASSERT_EQ(n_outputs, tx.rct_signatures.p.bulletproofs_plus.at(0).V.size());
|
|
|
|
// expand tx and calculate signable tx hash
|
|
LOG_PRINT_L1("Calculating signable tx hash");
|
|
hw::device &hwdev = hw::get_device("default");
|
|
ASSERT_TRUE(cryptonote::expand_transaction_1(tx, /*base_only=*/false));
|
|
const crypto::hash tx_prefix_hash = cryptonote::get_transaction_prefix_hash(tx);
|
|
tx.rct_signatures.message = rct::hash2rct(tx_prefix_hash);
|
|
tx.rct_signatures.p.pseudoOuts.resize(n_inputs); // @TODO: make this not necessary to call get_mlsag_hash
|
|
const crypto::hash signable_tx_hash = rct::rct2hash(rct::get_pre_mlsag_hash(tx.rct_signatures, hwdev));
|
|
|
|
// rerandomize inputs
|
|
LOG_PRINT_L1("Making rerandomized inputs");
|
|
std::vector<FcmpRerandomizedOutputCompressed> rerandomized_outputs;
|
|
make_carrot_rerandomized_outputs_nonrefundable(input_onetime_addresses,
|
|
input_amount_commitments,
|
|
input_amount_blinding_factors,
|
|
output_amount_blinding_factors,
|
|
rerandomized_outputs);
|
|
|
|
// Make SA/L proofs
|
|
LOG_PRINT_L1("Generating FCMP++ SA/L proofs");
|
|
std::vector<crypto::key_image> actual_key_images;
|
|
std::vector<fcmp_pp::FcmpPpSalProof> sal_proofs;
|
|
for (size_t i = 0; i < n_inputs; ++i)
|
|
{
|
|
const CarrotOpenableRerandomizedOutputV1 openable_opening_hint{
|
|
.rerandomized_output = rerandomized_outputs.at(i),
|
|
.opening_hint = std::get<4>(input_info_by_ki.at(tx_proposal.key_images_sorted.at(i)))
|
|
};
|
|
|
|
make_sal_proof_any_to_carrot_v1(signable_tx_hash,
|
|
openable_opening_hint,
|
|
alice.k_prove_spend,
|
|
alice.k_generate_image,
|
|
alice.s_view_balance_dev,
|
|
alice.k_view_incoming_dev,
|
|
alice.s_generate_address_dev,
|
|
tools::add_element(sal_proofs),
|
|
tools::add_element(actual_key_images));
|
|
}
|
|
|
|
// Init tree in memory
|
|
LOG_PRINT_L1("Initializing tree with " << min_leaves_needed_for_tree_depth << " leaves");
|
|
CurveTreesGlobalTree global_tree(*curve_trees);
|
|
ASSERT_TRUE(global_tree.grow_tree(0, min_leaves_needed_for_tree_depth, new_outputs.output_pairs));
|
|
LOG_PRINT_L1("Finished initializing tree with " << min_leaves_needed_for_tree_depth << " leaves");
|
|
|
|
// Make FCMP paths
|
|
LOG_PRINT_L1("Calculating FCMP paths");
|
|
std::vector<fcmp_pp::ProofInput> fcmp_proof_inputs(n_inputs);
|
|
for (size_t i = 0; i < n_inputs; ++i)
|
|
{
|
|
const size_t leaf_idx = std::get<5>(input_info_by_ki.at(tx_proposal.key_images_sorted.at(i)));
|
|
const auto path = global_tree.get_path_at_leaf_idx(leaf_idx);
|
|
const std::size_t path_leaf_idx = leaf_idx % curve_trees->m_c1_width;
|
|
|
|
const fcmp_pp::curve_trees::OutputPair output_pair = {rct::rct2pk(path.leaves[path_leaf_idx].O),
|
|
path.leaves[path_leaf_idx].C};
|
|
const auto output_tuple = fcmp_pp::curve_trees::output_to_tuple(output_pair);
|
|
|
|
const auto path_for_proof = curve_trees->path_for_proof(path, output_tuple);
|
|
|
|
const auto helios_scalar_chunks = fcmp_pp::tower_cycle::scalar_chunks_to_chunk_vector<fcmp_pp::HeliosT>(
|
|
path_for_proof.c2_scalar_chunks);
|
|
const auto selene_scalar_chunks = fcmp_pp::tower_cycle::scalar_chunks_to_chunk_vector<fcmp_pp::SeleneT>(
|
|
path_for_proof.c1_scalar_chunks);
|
|
|
|
const auto path_rust = fcmp_pp::path_new({path_for_proof.leaves.data(), path_for_proof.leaves.size()},
|
|
path_for_proof.output_idx,
|
|
{helios_scalar_chunks.data(), helios_scalar_chunks.size()},
|
|
{selene_scalar_chunks.data(), selene_scalar_chunks.size()});
|
|
|
|
fcmp_proof_inputs[i].path = path_rust;
|
|
}
|
|
|
|
// make FCMP blinds
|
|
LOG_PRINT_L1("Calculating branch and output blinds");
|
|
for (size_t i = 0; i < n_inputs; ++i)
|
|
{
|
|
fcmp_pp::ProofInput &proof_input = fcmp_proof_inputs[i];
|
|
const FcmpRerandomizedOutputCompressed &rerandomized_output = rerandomized_outputs.at(i);
|
|
|
|
// calculate individual blinds
|
|
uint8_t *blinded_o_blind = fcmp_pp::blind_o_blind(fcmp_pp::o_blind(rerandomized_output));
|
|
uint8_t *blinded_i_blind = fcmp_pp::blind_i_blind(fcmp_pp::i_blind(rerandomized_output));
|
|
uint8_t *blinded_i_blind_blind = fcmp_pp::blind_i_blind_blind(fcmp_pp::i_blind_blind(rerandomized_output));
|
|
uint8_t *blinded_c_blind = fcmp_pp::blind_c_blind(fcmp_pp::c_blind(rerandomized_output));
|
|
|
|
// make output blinds
|
|
proof_input.output_blinds = fcmp_pp::output_blinds_new(
|
|
blinded_o_blind, blinded_i_blind, blinded_i_blind_blind, blinded_c_blind);
|
|
|
|
// generate selene blinds
|
|
proof_input.selene_branch_blinds.reserve(expected_num_selene_branch_blinds);
|
|
for (size_t j = 0; j < expected_num_selene_branch_blinds; ++j)
|
|
proof_input.selene_branch_blinds.push_back(fcmp_pp::selene_branch_blind());
|
|
|
|
// generate helios blinds
|
|
proof_input.helios_branch_blinds.reserve(expected_num_helios_branch_blinds);
|
|
for (size_t j = 0; j < expected_num_helios_branch_blinds; ++j)
|
|
proof_input.helios_branch_blinds.push_back(fcmp_pp::helios_branch_blind());
|
|
|
|
// dealloc individual blinds
|
|
free(blinded_o_blind);
|
|
free(blinded_i_blind);
|
|
free(blinded_i_blind_blind);
|
|
free(blinded_c_blind);
|
|
}
|
|
|
|
// Make FCMP membership proof
|
|
LOG_PRINT_L1("Generating FCMP++ membership proofs");
|
|
std::vector<const uint8_t*> fcmp_proof_inputs_rust;
|
|
for (size_t i = 0; i < n_inputs; ++i)
|
|
{
|
|
fcmp_pp::ProofInput &proof_input = fcmp_proof_inputs.at(i);
|
|
fcmp_proof_inputs_rust.push_back(fcmp_pp::fcmp_prove_input_new(
|
|
rerandomized_outputs.at(i),
|
|
proof_input.path,
|
|
proof_input.output_blinds,
|
|
proof_input.selene_branch_blinds,
|
|
proof_input.helios_branch_blinds));
|
|
free(proof_input.path);
|
|
free(proof_input.output_blinds);
|
|
for (const uint8_t *branch_blind : proof_input.selene_branch_blinds)
|
|
free(const_cast<uint8_t*>(branch_blind));
|
|
for (const uint8_t *branch_blind : proof_input.helios_branch_blinds)
|
|
free(const_cast<uint8_t*>(branch_blind));
|
|
}
|
|
const fcmp_pp::FcmpMembershipProof membership_proof = fcmp_pp::prove_membership(fcmp_proof_inputs_rust,
|
|
n_tree_layers);
|
|
|
|
// Dealloc FCMP proof inputs
|
|
for (const uint8_t *proof_input : fcmp_proof_inputs_rust)
|
|
free(const_cast<uint8_t*>(proof_input));
|
|
|
|
// Attach rctSigPrunable to tx
|
|
LOG_PRINT_L1("Storing rctSig prunable");
|
|
const std::uint64_t fcmp_block_reference_index = mock::gen_block_index();
|
|
tx.rct_signatures.p = store_fcmp_proofs_to_rct_prunable_v1(std::move(tx.rct_signatures.p.bulletproofs_plus),
|
|
rerandomized_outputs,
|
|
sal_proofs,
|
|
membership_proof,
|
|
fcmp_block_reference_index,
|
|
n_tree_layers);
|
|
tx.pruned = false;
|
|
|
|
// Serialize tx to bytes
|
|
LOG_PRINT_L1("Serializing & deserializing transaction");
|
|
const cryptonote::blobdata tx_blob = cryptonote::tx_to_blob(tx);
|
|
|
|
// Deserialize tx
|
|
cryptonote::transaction deserialized_tx;
|
|
ASSERT_TRUE(cryptonote::parse_and_validate_tx_from_blob(tx_blob, deserialized_tx));
|
|
|
|
// Expand tx
|
|
auto tree_root = global_tree.get_tree_root();
|
|
const crypto::hash tx_prefix_hash_2 = cryptonote::get_transaction_prefix_hash(deserialized_tx);
|
|
ASSERT_TRUE(cryptonote::Blockchain::expand_transaction_2(deserialized_tx, tx_prefix_hash_2, {}, tree_root));
|
|
|
|
// Verify non-input consensus rules on tx
|
|
LOG_PRINT_L1("Verifying non-input consensus rules");
|
|
cryptonote::tx_verification_context tvc{};
|
|
ASSERT_TRUE(cryptonote::ver_non_input_consensus(deserialized_tx, tvc, HF_VERSION_FCMP_PLUS_PLUS));
|
|
ASSERT_FALSE(tvc.m_verifivation_failed);
|
|
ASSERT_FALSE(tvc.m_verifivation_impossible);
|
|
ASSERT_FALSE(tvc.m_added_to_pool);
|
|
ASSERT_FALSE(tvc.m_low_mixin);
|
|
ASSERT_FALSE(tvc.m_double_spend);
|
|
ASSERT_FALSE(tvc.m_invalid_input);
|
|
ASSERT_FALSE(tvc.m_invalid_output);
|
|
ASSERT_FALSE(tvc.m_too_big);
|
|
ASSERT_FALSE(tvc.m_overspend);
|
|
ASSERT_FALSE(tvc.m_fee_too_low);
|
|
ASSERT_FALSE(tvc.m_too_few_outputs);
|
|
ASSERT_FALSE(tvc.m_tx_extra_too_big);
|
|
ASSERT_FALSE(tvc.m_nonzero_unlock_time);
|
|
|
|
// Recalculate signable tx hash from deserialized tx and check
|
|
const crypto::hash signable_tx_hash_2 = rct::rct2hash(rct::get_pre_mlsag_hash(deserialized_tx.rct_signatures, hwdev));
|
|
ASSERT_EQ(signable_tx_hash, signable_tx_hash_2);
|
|
|
|
// Pre-verify SAL proofs
|
|
LOG_PRINT_L1("Verify SA/L proofs");
|
|
ASSERT_EQ(deserialized_tx.vin.size(), n_inputs);
|
|
ASSERT_EQ(deserialized_tx.vin.size(), deserialized_tx.rct_signatures.p.fcmp_ver_helper_data.key_images.size());
|
|
ASSERT_EQ(deserialized_tx.vin.size(), deserialized_tx.rct_signatures.p.pseudoOuts.size());
|
|
ASSERT_GT(deserialized_tx.rct_signatures.p.fcmp_pp.size(), (3*32 + FCMP_PP_SAL_PROOF_SIZE_V1) * n_inputs);
|
|
for (size_t i = 0; i < n_inputs; ++i)
|
|
{
|
|
const uint8_t * const pbytes = deserialized_tx.rct_signatures.p.fcmp_pp.data() +
|
|
(3*32 + FCMP_PP_SAL_PROOF_SIZE_V1) * i;
|
|
FcmpInputCompressed input;
|
|
fcmp_pp::FcmpPpSalProof sal_proof(FCMP_PP_SAL_PROOF_SIZE_V1);
|
|
memcpy(&input, pbytes, 3*32);
|
|
memcpy(&sal_proof[0], pbytes + 3*32, FCMP_PP_SAL_PROOF_SIZE_V1);
|
|
memcpy(input.C_tilde, deserialized_tx.rct_signatures.p.pseudoOuts.at(i).bytes, 32);
|
|
const crypto::key_image &ki = deserialized_tx.rct_signatures.p.fcmp_ver_helper_data.key_images.at(i);
|
|
ASSERT_TRUE(fcmp_pp::verify_sal(signable_tx_hash_2, input, ki, sal_proof));
|
|
}
|
|
|
|
// Verify all RingCT non-semantics
|
|
LOG_PRINT_L1("Verify RingCT non-semantics consensus rules");
|
|
ASSERT_TRUE(rct::verRctNonSemanticsSimple(deserialized_tx.rct_signatures));
|
|
free(tree_root);
|
|
|
|
// Load carrot from tx
|
|
LOG_PRINT_L1("Parsing carrot info from deserialized transaction");
|
|
std::vector<CarrotEnoteV1> parsed_enotes;
|
|
std::vector<crypto::key_image> parsed_key_images;
|
|
rct::xmr_amount parsed_fee;
|
|
std::optional<encrypted_payment_id_t> parsed_encrypted_payment_id;
|
|
ASSERT_TRUE(try_load_carrot_from_transaction_v1(deserialized_tx,
|
|
parsed_enotes,
|
|
parsed_key_images,
|
|
parsed_fee,
|
|
parsed_encrypted_payment_id));
|
|
|
|
// Bob scan
|
|
LOG_PRINT_L1("Bob scanning");
|
|
std::vector<mock::mock_scan_result_t> bob_scan_results;
|
|
mock::mock_scan_enote_set(parsed_enotes,
|
|
parsed_encrypted_payment_id.value_or(encrypted_payment_id_t{}),
|
|
bob,
|
|
bob_scan_results);
|
|
ASSERT_EQ(bob_payment_proposals.size(), bob_scan_results.size());
|
|
|
|
// Compare bob scan results to bob payment proposals
|
|
std::unordered_set<size_t> matched_scan_results;
|
|
for (size_t i = 0; i < bob_payment_proposals.size(); ++i)
|
|
{
|
|
bool matched = false;
|
|
for (size_t j = 0; j < bob_scan_results.size(); ++j)
|
|
{
|
|
if (matched_scan_results.count(j))
|
|
continue;
|
|
else if (compare_scan_result(bob_scan_results.at(j),
|
|
bob_payment_proposals.at(i)))
|
|
{
|
|
matched = true;
|
|
matched_scan_results.insert(j);
|
|
break;
|
|
}
|
|
}
|
|
ASSERT_TRUE(matched);
|
|
}
|
|
}
|
|
//----------------------------------------------------------------------------------------------------------------------
|