Merge pull request #4213 from thsfs/bootstrap_ascending_class_files_split

Bootstrap ascending class files split
This commit is contained in:
Thiago Silva 2023-04-13 09:45:21 -03:00 committed by GitHub
commit 27a4c83259
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GPG key ID: 4AEE18F83AFDEB23
17 changed files with 1338 additions and 1265 deletions

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@ -1,5 +1,5 @@
#include <nano/lib/stats.hpp> #include <nano/lib/stats.hpp>
#include <nano/node/bootstrap/bootstrap_ascending.hpp> #include <nano/node/bootstrap_ascending/service.hpp>
#include <nano/test_common/system.hpp> #include <nano/test_common/system.hpp>
#include <nano/test_common/testutil.hpp> #include <nano/test_common/testutil.hpp>

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@ -34,8 +34,6 @@ add_library(
blockprocessor.cpp blockprocessor.cpp
bootstrap/block_deserializer.hpp bootstrap/block_deserializer.hpp
bootstrap/block_deserializer.cpp bootstrap/block_deserializer.cpp
bootstrap/bootstrap_ascending.hpp
bootstrap/bootstrap_ascending.cpp
bootstrap/bootstrap_attempt.hpp bootstrap/bootstrap_attempt.hpp
bootstrap/bootstrap_attempt.cpp bootstrap/bootstrap_attempt.cpp
bootstrap/bootstrap_bulk_pull.hpp bootstrap/bootstrap_bulk_pull.hpp
@ -56,6 +54,15 @@ add_library(
bootstrap/bootstrap.cpp bootstrap/bootstrap.cpp
bootstrap/bootstrap_server.hpp bootstrap/bootstrap_server.hpp
bootstrap/bootstrap_server.cpp bootstrap/bootstrap_server.cpp
bootstrap_ascending/common.hpp
bootstrap_ascending/throttle.hpp
bootstrap_ascending/throttle.cpp
bootstrap_ascending/account_sets.hpp
bootstrap_ascending/account_sets.cpp
bootstrap_ascending/iterators.hpp
bootstrap_ascending/iterators.cpp
bootstrap_ascending/service.hpp
bootstrap_ascending/service.cpp
cli.hpp cli.hpp
cli.cpp cli.cpp
common.hpp common.hpp

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@ -1,912 +0,0 @@
#include <nano/lib/stats_enums.hpp>
#include <nano/node/blockprocessor.hpp>
#include <nano/node/bootstrap/block_deserializer.hpp>
#include <nano/node/bootstrap/bootstrap_ascending.hpp>
#include <nano/node/network.hpp>
#include <nano/node/nodeconfig.hpp>
#include <nano/node/transport/transport.hpp>
#include <nano/secure/common.hpp>
#include <nano/secure/ledger.hpp>
#include <nano/secure/store.hpp>
#include <boost/format.hpp>
using namespace std::chrono_literals;
nano::bootstrap_ascending::throttle::throttle (size_t count) :
successes{ count },
samples{ count, true }
{
}
bool nano::bootstrap_ascending::throttle::throttled () const
{
return successes == 0;
}
void nano::bootstrap_ascending::throttle::add (bool sample)
{
if (samples.front ())
{
--successes;
}
samples.push_back (sample);
if (sample)
{
++successes;
}
}
/*
* database_iterator
*/
nano::bootstrap_ascending::database_iterator::database_iterator (nano::store & store_a, table_type table_a) :
store{ store_a },
table{ table_a }
{
}
nano::account nano::bootstrap_ascending::database_iterator::operator* () const
{
return current;
}
void nano::bootstrap_ascending::database_iterator::next (nano::transaction & tx)
{
switch (table)
{
case table_type::account:
{
auto i = current.number () + 1;
auto item = store.account.begin (tx, i);
if (item != store.account.end ())
{
current = item->first;
}
else
{
current = { 0 };
}
break;
}
case table_type::pending:
{
auto i = current.number () + 1;
auto item = store.pending.begin (tx, nano::pending_key{ i, 0 });
if (item != store.pending.end ())
{
current = item->first.account;
}
else
{
current = { 0 };
}
break;
}
}
}
/*
* buffered_iterator
*/
nano::bootstrap_ascending::buffered_iterator::buffered_iterator (nano::store & store_a) :
store{ store_a },
accounts_iterator{ store, database_iterator::table_type::account },
pending_iterator{ store, database_iterator::table_type::pending }
{
}
nano::account nano::bootstrap_ascending::buffered_iterator::operator* () const
{
return !buffer.empty () ? buffer.front () : nano::account{ 0 };
}
nano::account nano::bootstrap_ascending::buffered_iterator::next ()
{
if (!buffer.empty ())
{
buffer.pop_front ();
}
else
{
fill ();
}
return *(*this);
}
bool nano::bootstrap_ascending::buffered_iterator::warmup () const
{
return warmup_m;
}
void nano::bootstrap_ascending::buffered_iterator::fill ()
{
debug_assert (buffer.empty ());
// Fill half from accounts table and half from pending table
auto transaction = store.tx_begin_read ();
for (int n = 0; n < size / 2; ++n)
{
accounts_iterator.next (transaction);
if (!(*accounts_iterator).is_zero ())
{
buffer.push_back (*accounts_iterator);
}
}
for (int n = 0; n < size / 2; ++n)
{
pending_iterator.next (transaction);
if (!(*pending_iterator).is_zero ())
{
buffer.push_back (*pending_iterator);
}
else
{
warmup_m = false;
}
}
}
/*
* account_sets
*/
nano::bootstrap_ascending::account_sets::account_sets (nano::stats & stats_a, nano::account_sets_config config_a) :
stats{ stats_a },
config{ std::move (config_a) }
{
}
void nano::bootstrap_ascending::account_sets::priority_up (nano::account const & account)
{
if (!blocked (account))
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::prioritize);
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
priorities.get<tag_account> ().modify (iter, [] (auto & val) {
val.priority = std::min ((val.priority * account_sets::priority_increase), account_sets::priority_max);
});
}
else
{
priorities.get<tag_account> ().insert ({ account, account_sets::priority_initial });
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_insert);
trim_overflow ();
}
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::prioritize_failed);
}
}
void nano::bootstrap_ascending::account_sets::priority_down (nano::account const & account)
{
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::deprioritize);
auto priority_new = iter->priority - account_sets::priority_decrease;
if (priority_new <= account_sets::priority_cutoff)
{
priorities.get<tag_account> ().erase (iter);
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_erase_threshold);
}
else
{
priorities.get<tag_account> ().modify (iter, [priority_new] (auto & val) {
val.priority = priority_new;
});
}
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::deprioritize_failed);
}
}
void nano::bootstrap_ascending::account_sets::block (nano::account const & account, nano::block_hash const & dependency)
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::block);
auto existing = priorities.get<tag_account> ().find (account);
auto entry = existing == priorities.get<tag_account> ().end () ? priority_entry{ 0, 0 } : *existing;
priorities.get<tag_account> ().erase (account);
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_erase_block);
blocking.get<tag_account> ().insert ({ account, dependency, entry });
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::blocking_insert);
trim_overflow ();
}
void nano::bootstrap_ascending::account_sets::unblock (nano::account const & account, std::optional<nano::block_hash> const & hash)
{
// Unblock only if the dependency is fulfilled
auto existing = blocking.get<tag_account> ().find (account);
if (existing != blocking.get<tag_account> ().end () && (!hash || existing->dependency == *hash))
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::unblock);
debug_assert (priorities.get<tag_account> ().count (account) == 0);
if (!existing->original_entry.account.is_zero ())
{
debug_assert (existing->original_entry.account == account);
priorities.get<tag_account> ().insert (existing->original_entry);
}
else
{
priorities.get<tag_account> ().insert ({ account, account_sets::priority_initial });
}
blocking.get<tag_account> ().erase (account);
trim_overflow ();
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::unblock_failed);
}
}
void nano::bootstrap_ascending::account_sets::timestamp (const nano::account & account, bool reset)
{
const nano::millis_t tstamp = reset ? 0 : nano::milliseconds_since_epoch ();
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
priorities.get<tag_account> ().modify (iter, [tstamp] (auto & entry) {
entry.timestamp = tstamp;
});
}
}
bool nano::bootstrap_ascending::account_sets::check_timestamp (const nano::account & account) const
{
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
if (nano::milliseconds_since_epoch () - iter->timestamp < config.cooldown)
{
return false;
}
}
return true;
}
void nano::bootstrap_ascending::account_sets::trim_overflow ()
{
if (priorities.size () > config.priorities_max)
{
// Evict the lowest priority entry
priorities.get<tag_priority> ().erase (priorities.get<tag_priority> ().begin ());
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_erase_overflow);
}
if (blocking.size () > config.blocking_max)
{
// Evict the lowest priority entry
blocking.get<tag_priority> ().erase (blocking.get<tag_priority> ().begin ());
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::blocking_erase_overflow);
}
}
nano::account nano::bootstrap_ascending::account_sets::next ()
{
if (priorities.empty ())
{
return { 0 };
}
std::vector<float> weights;
std::vector<nano::account> candidates;
int iterations = 0;
while (candidates.size () < config.consideration_count && iterations++ < config.consideration_count * 10)
{
debug_assert (candidates.size () == weights.size ());
// Use a dedicated, uniformly distributed field for sampling to avoid problematic corner case when accounts in the queue are very close together
auto search = bootstrap_ascending::generate_id ();
auto iter = priorities.get<tag_id> ().lower_bound (search);
if (iter == priorities.get<tag_id> ().end ())
{
iter = priorities.get<tag_id> ().begin ();
}
if (check_timestamp (iter->account))
{
candidates.push_back (iter->account);
weights.push_back (iter->priority);
}
}
if (candidates.empty ())
{
return { 0 }; // All sampled accounts are busy
}
std::discrete_distribution dist{ weights.begin (), weights.end () };
auto selection = dist (rng);
debug_assert (!weights.empty () && selection < weights.size ());
auto result = candidates[selection];
return result;
}
bool nano::bootstrap_ascending::account_sets::blocked (nano::account const & account) const
{
return blocking.get<tag_account> ().count (account) > 0;
}
std::size_t nano::bootstrap_ascending::account_sets::priority_size () const
{
return priorities.size ();
}
std::size_t nano::bootstrap_ascending::account_sets::blocked_size () const
{
return blocking.size ();
}
float nano::bootstrap_ascending::account_sets::priority (nano::account const & account) const
{
if (blocked (account))
{
return 0.0f;
}
auto existing = priorities.get<tag_account> ().find (account);
if (existing != priorities.get<tag_account> ().end ())
{
return existing->priority;
}
return account_sets::priority_cutoff;
}
auto nano::bootstrap_ascending::account_sets::info () const -> info_t
{
return { blocking, priorities };
}
std::unique_ptr<nano::container_info_component> nano::bootstrap_ascending::account_sets::collect_container_info (const std::string & name)
{
auto composite = std::make_unique<container_info_composite> (name);
composite->add_component (std::make_unique<container_info_leaf> (container_info{ "priorities", priorities.size (), sizeof (decltype (priorities)::value_type) }));
composite->add_component (std::make_unique<container_info_leaf> (container_info{ "blocking", blocking.size (), sizeof (decltype (blocking)::value_type) }));
return composite;
}
/*
* priority_entry
*/
nano::bootstrap_ascending::account_sets::priority_entry::priority_entry (nano::account account_a, float priority_a) :
account{ account_a },
priority{ priority_a }
{
id = nano::bootstrap_ascending::generate_id ();
}
/*
* bootstrap_ascending
*/
nano::bootstrap_ascending::bootstrap_ascending (nano::node_config & config_a, nano::block_processor & block_processor_a, nano::ledger & ledger_a, nano::network & network_a, nano::stats & stat_a) :
config{ config_a },
network_consts{ config.network_params.network },
block_processor{ block_processor_a },
ledger{ ledger_a },
network{ network_a },
stats{ stat_a },
accounts{ stats },
iterator{ ledger.store },
throttle{ config.bootstrap_ascending.throttle_count },
limiter{ config.bootstrap_ascending.requests_limit, 1.0 },
database_limiter{ config.bootstrap_ascending.database_requests_limit, 1.0 }
{
// TODO: This is called from a very congested blockprocessor thread. Offload this work to a dedicated processing thread
block_processor.batch_processed.add ([this] (auto const & batch) {
{
nano::lock_guard<nano::mutex> lock{ mutex };
auto transaction = ledger.store.tx_begin_read ();
for (auto const & [result, block] : batch)
{
debug_assert (block != nullptr);
inspect (transaction, result, *block);
}
}
condition.notify_all ();
});
}
nano::bootstrap_ascending::~bootstrap_ascending ()
{
// All threads must be stopped before destruction
debug_assert (!thread.joinable ());
debug_assert (!timeout_thread.joinable ());
}
void nano::bootstrap_ascending::start ()
{
debug_assert (!thread.joinable ());
debug_assert (!timeout_thread.joinable ());
thread = std::thread ([this] () {
nano::thread_role::set (nano::thread_role::name::ascending_bootstrap);
run ();
});
timeout_thread = std::thread ([this] () {
nano::thread_role::set (nano::thread_role::name::ascending_bootstrap);
run_timeouts ();
});
}
void nano::bootstrap_ascending::stop ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
stopped = true;
lock.unlock ();
condition.notify_all ();
nano::join_or_pass (thread);
nano::join_or_pass (timeout_thread);
}
nano::bootstrap_ascending::id_t nano::bootstrap_ascending::generate_id ()
{
id_t id;
nano::random_pool::generate_block (reinterpret_cast<uint8_t *> (&id), sizeof (id));
return id;
}
void nano::bootstrap_ascending::send (std::shared_ptr<nano::transport::channel> channel, async_tag tag)
{
debug_assert (tag.type == async_tag::query_type::blocks_by_hash || tag.type == async_tag::query_type::blocks_by_account);
nano::asc_pull_req request{ network_consts };
request.id = tag.id;
request.type = nano::asc_pull_type::blocks;
nano::asc_pull_req::blocks_payload request_payload;
request_payload.start = tag.start;
request_payload.count = config.bootstrap_ascending.pull_count;
request_payload.start_type = (tag.type == async_tag::query_type::blocks_by_hash) ? nano::asc_pull_req::hash_type::block : nano::asc_pull_req::hash_type::account;
request.payload = request_payload;
request.update_header ();
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::request, nano::stat::dir::out);
// TODO: There is no feedback mechanism if bandwidth limiter starts dropping our requests
channel->send (
request, nullptr,
nano::transport::buffer_drop_policy::limiter, nano::transport::traffic_type::bootstrap);
}
size_t nano::bootstrap_ascending::priority_size () const
{
nano::lock_guard<nano::mutex> lock{ mutex };
return accounts.priority_size ();
}
size_t nano::bootstrap_ascending::blocked_size () const
{
nano::lock_guard<nano::mutex> lock{ mutex };
return accounts.blocked_size ();
}
/** Inspects a block that has been processed by the block processor
- Marks an account as blocked if the result code is gap source as there is no reason request additional blocks for this account until the dependency is resolved
- Marks an account as forwarded if it has been recently referenced by a block that has been inserted.
*/
void nano::bootstrap_ascending::inspect (nano::transaction const & tx, nano::process_return const & result, nano::block const & block)
{
auto const hash = block.hash ();
switch (result.code)
{
case nano::process_result::progress:
{
const auto account = ledger.account (tx, hash);
const auto is_send = ledger.is_send (tx, block);
// If we've inserted any block in to an account, unmark it as blocked
accounts.unblock (account);
accounts.priority_up (account);
accounts.timestamp (account, /* reset timestamp */ true);
if (is_send)
{
// TODO: Encapsulate this as a helper somewhere
nano::account destination{ 0 };
switch (block.type ())
{
case nano::block_type::send:
destination = block.destination ();
break;
case nano::block_type::state:
destination = block.link ().as_account ();
break;
default:
debug_assert (false, "unexpected block type");
break;
}
if (!destination.is_zero ())
{
accounts.unblock (destination, hash); // Unblocking automatically inserts account into priority set
accounts.priority_up (destination);
}
}
}
break;
case nano::process_result::gap_source:
{
const auto account = block.previous ().is_zero () ? block.account () : ledger.account (tx, block.previous ());
const auto source = block.source ().is_zero () ? block.link ().as_block_hash () : block.source ();
// Mark account as blocked because it is missing the source block
accounts.block (account, source);
// TODO: Track stats
}
break;
case nano::process_result::old:
{
// TODO: Track stats
}
break;
case nano::process_result::gap_previous:
{
// TODO: Track stats
}
break;
default: // No need to handle other cases
break;
}
}
void nano::bootstrap_ascending::wait_blockprocessor ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped && block_processor.half_full ())
{
condition.wait_for (lock, 500ms, [this] () { return stopped; }); // Blockprocessor is relatively slow, sleeping here instead of using conditions
}
}
void nano::bootstrap_ascending::wait_available_request ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped && !limiter.should_pass (1))
{
condition.wait_for (lock, 50ms, [this] () { return stopped; }); // Give it at least some time to cooldown to avoid hitting the limit too frequently
}
}
std::shared_ptr<nano::transport::channel> nano::bootstrap_ascending::available_channel ()
{
auto channels = network.random_set (32, network_consts.bootstrap_protocol_version_min, /* include temporary channels */ true);
for (auto & channel : channels)
{
if (!channel->max (nano::transport::traffic_type::bootstrap))
{
return channel;
}
}
return nullptr;
}
std::shared_ptr<nano::transport::channel> nano::bootstrap_ascending::wait_available_channel ()
{
std::shared_ptr<nano::transport::channel> channel;
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped && !(channel = available_channel ()))
{
condition.wait_for (lock, 100ms, [this] () { return stopped; });
}
return channel;
}
nano::account nano::bootstrap_ascending::available_account ()
{
{
auto account = accounts.next ();
if (!account.is_zero ())
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::next_priority);
return account;
}
}
if (database_limiter.should_pass (1))
{
auto account = iterator.next ();
if (!account.is_zero ())
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::next_database);
return account;
}
}
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::next_none);
return { 0 };
}
nano::account nano::bootstrap_ascending::wait_available_account ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped)
{
auto account = available_account ();
if (!account.is_zero ())
{
accounts.timestamp (account);
return account;
}
else
{
condition.wait_for (lock, 100ms);
}
}
return { 0 };
}
bool nano::bootstrap_ascending::request (nano::account & account, std::shared_ptr<nano::transport::channel> & channel)
{
async_tag tag{};
tag.id = generate_id ();
tag.account = account;
tag.time = nano::milliseconds_since_epoch ();
// Check if the account picked has blocks, if it does, start the pull from the highest block
auto info = ledger.store.account.get (ledger.store.tx_begin_read (), account);
if (info)
{
tag.type = async_tag::query_type::blocks_by_hash;
tag.start = info->head;
}
else
{
tag.type = async_tag::query_type::blocks_by_account;
tag.start = account;
}
on_request.notify (tag, channel);
track (tag);
send (channel, tag);
return true; // Request sent
}
bool nano::bootstrap_ascending::run_one ()
{
// Ensure there is enough space in blockprocessor for queuing new blocks
wait_blockprocessor ();
// Do not do too many requests in parallel, impose throttling
wait_available_request ();
// Waits for channel that is not full
auto channel = wait_available_channel ();
if (!channel)
{
return false;
}
// Waits for account either from priority queue or database
auto account = wait_available_account ();
if (account.is_zero ())
{
return false;
}
bool success = request (account, channel);
return success;
}
void nano::bootstrap_ascending::throttle_if_needed (nano::unique_lock<nano::mutex> & lock)
{
debug_assert (lock.owns_lock ());
if (!iterator.warmup () && throttle.throttled ())
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::throttled);
condition.wait_for (lock, std::chrono::milliseconds{ config.bootstrap_ascending.throttle_wait }, [this] () { return stopped; });
}
}
void nano::bootstrap_ascending::run ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped)
{
lock.unlock ();
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::loop);
run_one ();
lock.lock ();
throttle_if_needed (lock);
}
}
void nano::bootstrap_ascending::run_timeouts ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped)
{
auto & tags_by_order = tags.get<tag_sequenced> ();
while (!tags_by_order.empty () && nano::time_difference (tags_by_order.front ().time, nano::milliseconds_since_epoch ()) > config.bootstrap_ascending.timeout)
{
auto tag = tags_by_order.front ();
tags_by_order.pop_front ();
on_timeout.notify (tag);
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::timeout);
}
condition.wait_for (lock, 1s, [this] () { return stopped; });
}
}
void nano::bootstrap_ascending::process (const nano::asc_pull_ack & message)
{
nano::unique_lock<nano::mutex> lock{ mutex };
// Only process messages that have a known tag
auto & tags_by_id = tags.get<tag_id> ();
if (tags_by_id.count (message.id) > 0)
{
auto iterator = tags_by_id.find (message.id);
auto tag = *iterator;
tags_by_id.erase (iterator);
lock.unlock ();
on_reply.notify (tag);
condition.notify_all ();
std::visit ([this, &tag] (auto && request) { return process (request, tag); }, message.payload);
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::missing_tag);
}
}
void nano::bootstrap_ascending::process (const nano::asc_pull_ack::blocks_payload & response, const nano::bootstrap_ascending::async_tag & tag)
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::reply);
auto result = verify (response, tag);
switch (result)
{
case verify_result::ok:
{
stats.add (nano::stat::type::bootstrap_ascending, nano::stat::detail::blocks, nano::stat::dir::in, response.blocks.size ());
for (auto & block : response.blocks)
{
block_processor.add (block);
}
nano::lock_guard<nano::mutex> lock{ mutex };
throttle.add (true);
}
break;
case verify_result::nothing_new:
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::nothing_new);
nano::lock_guard<nano::mutex> lock{ mutex };
accounts.priority_down (tag.account);
throttle.add (false);
}
break;
case verify_result::invalid:
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::invalid);
// TODO: Log
}
break;
}
}
void nano::bootstrap_ascending::process (const nano::asc_pull_ack::account_info_payload & response, const nano::bootstrap_ascending::async_tag & tag)
{
// TODO: Make use of account info
}
void nano::bootstrap_ascending::process (const nano::empty_payload & response, const nano::bootstrap_ascending::async_tag & tag)
{
// Should not happen
debug_assert (false, "empty payload");
}
nano::bootstrap_ascending::verify_result nano::bootstrap_ascending::verify (const nano::asc_pull_ack::blocks_payload & response, const nano::bootstrap_ascending::async_tag & tag) const
{
auto const & blocks = response.blocks;
if (blocks.empty ())
{
return verify_result::nothing_new;
}
if (blocks.size () == 1 && blocks.front ()->hash () == tag.start.as_block_hash ())
{
return verify_result::nothing_new;
}
auto const & first = blocks.front ();
switch (tag.type)
{
case async_tag::query_type::blocks_by_hash:
{
if (first->hash () != tag.start.as_block_hash ())
{
// TODO: Stat & log
return verify_result::invalid;
}
}
break;
case async_tag::query_type::blocks_by_account:
{
// Open & state blocks always contain account field
if (first->account () != tag.start.as_account ())
{
// TODO: Stat & log
return verify_result::invalid;
}
}
break;
default:
return verify_result::invalid;
}
// Verify blocks make a valid chain
nano::block_hash previous_hash = blocks.front ()->hash ();
for (int n = 1; n < blocks.size (); ++n)
{
auto & block = blocks[n];
if (block->previous () != previous_hash)
{
// TODO: Stat & log
return verify_result::invalid; // Blocks do not make a chain
}
previous_hash = block->hash ();
}
return verify_result::ok;
}
void nano::bootstrap_ascending::track (async_tag const & tag)
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::track);
nano::lock_guard<nano::mutex> lock{ mutex };
debug_assert (tags.get<tag_id> ().count (tag.id) == 0);
tags.get<tag_id> ().insert (tag);
}
auto nano::bootstrap_ascending::info () const -> account_sets::info_t
{
nano::lock_guard<nano::mutex> lock{ mutex };
return accounts.info ();
}
std::unique_ptr<nano::container_info_component> nano::bootstrap_ascending::collect_container_info (std::string const & name)
{
nano::lock_guard<nano::mutex> lock{ mutex };
auto composite = std::make_unique<container_info_composite> (name);
composite->add_component (std::make_unique<container_info_leaf> (container_info{ "tags", tags.size (), sizeof (decltype (tags)::value_type) }));
composite->add_component (accounts.collect_container_info ("accounts"));
return composite;
}

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@ -1,344 +0,0 @@
#pragma once
#include <nano/lib/observer_set.hpp>
#include <nano/lib/timer.hpp>
#include <nano/node/bandwidth_limiter.hpp>
#include <nano/node/bootstrap/bootstrap_attempt.hpp>
#include <nano/node/bootstrap/bootstrap_config.hpp>
#include <nano/node/bootstrap/bootstrap_server.hpp>
#include <boost/multi_index/hashed_index.hpp>
#include <boost/multi_index/mem_fun.hpp>
#include <boost/multi_index/member.hpp>
#include <boost/multi_index/ordered_index.hpp>
#include <boost/multi_index/random_access_index.hpp>
#include <boost/multi_index/sequenced_index.hpp>
#include <boost/multi_index_container.hpp>
#include <random>
#include <thread>
namespace mi = boost::multi_index;
namespace nano
{
class block_processor;
class ledger;
class network;
class node_config;
namespace transport
{
class channel;
}
class bootstrap_ascending
{
using id_t = uint64_t;
// Class used to throttle the ascending bootstrapper once it reaches a steady state
// Tracks verify_result samples and signals throttling if no tracked samples have gotten results
class throttle
{
public:
// Initialized with all true samples
explicit throttle (size_t size);
bool throttled () const;
void add (bool success);
private:
// Rolling count of true samples in the sample buffer
size_t successes;
// Circular buffer that tracks sample results. True when something was retrieved, false otherwise
boost::circular_buffer<bool> samples;
};
public:
bootstrap_ascending (nano::node_config &, nano::block_processor &, nano::ledger &, nano::network &, nano::stats &);
~bootstrap_ascending ();
void start ();
void stop ();
/**
* Process `asc_pull_ack` message coming from network
*/
void process (nano::asc_pull_ack const & message);
public: // Container info
std::unique_ptr<nano::container_info_component> collect_container_info (std::string const & name);
size_t blocked_size () const;
size_t priority_size () const;
private: // Dependencies
nano::node_config & config;
nano::network_constants & network_consts;
nano::block_processor & block_processor;
nano::ledger & ledger;
nano::network & network;
nano::stats & stats;
public: // async_tag
struct async_tag
{
enum class query_type
{
invalid = 0, // Default initialization
blocks_by_hash,
blocks_by_account,
// TODO: account_info,
};
query_type type{ query_type::invalid };
id_t id{ 0 };
nano::hash_or_account start{ 0 };
nano::millis_t time{ 0 };
nano::account account{ 0 };
};
public: // Events
nano::observer_set<async_tag const &, std::shared_ptr<nano::transport::channel> &> on_request;
nano::observer_set<async_tag const &> on_reply;
nano::observer_set<async_tag const &> on_timeout;
private:
/* Inspects a block that has been processed by the block processor */
void inspect (nano::transaction const &, nano::process_return const & result, nano::block const & block);
void throttle_if_needed (nano::unique_lock<nano::mutex> & lock);
void run ();
bool run_one ();
void run_timeouts ();
/* Limits the number of requests per second we make */
void wait_available_request ();
/* Throttles requesting new blocks, not to overwhelm blockprocessor */
void wait_blockprocessor ();
/* Waits for channel with free capacity for bootstrap messages */
std::shared_ptr<nano::transport::channel> wait_available_channel ();
std::shared_ptr<nano::transport::channel> available_channel ();
/* Waits until a suitable account outside of cool down period is available */
nano::account available_account ();
nano::account wait_available_account ();
bool request (nano::account &, std::shared_ptr<nano::transport::channel> &);
void send (std::shared_ptr<nano::transport::channel>, async_tag tag);
void track (async_tag const & tag);
void process (nano::asc_pull_ack::blocks_payload const & response, async_tag const & tag);
void process (nano::asc_pull_ack::account_info_payload const & response, async_tag const & tag);
void process (nano::empty_payload const & response, async_tag const & tag);
enum class verify_result
{
ok,
nothing_new,
invalid,
};
/**
* Verifies whether the received response is valid. Returns:
* - invalid: when received blocks do not correspond to requested hash/account or they do not make a valid chain
* - nothing_new: when received response indicates that the account chain does not have more blocks
* - ok: otherwise, if all checks pass
*/
verify_result verify (nano::asc_pull_ack::blocks_payload const & response, async_tag const & tag) const;
static id_t generate_id ();
public: // account_sets
/** This class tracks accounts various account sets which are shared among the multiple bootstrap threads */
class account_sets
{
public:
explicit account_sets (nano::stats &, nano::account_sets_config config = {});
/**
* If an account is not blocked, increase its priority.
* If the account does not exist in priority set and is not blocked, inserts a new entry.
* Current implementation increases priority by 1.0f each increment
*/
void priority_up (nano::account const & account);
/**
* Decreases account priority
* Current implementation divides priority by 2.0f and saturates down to 1.0f.
*/
void priority_down (nano::account const & account);
void block (nano::account const & account, nano::block_hash const & dependency);
void unblock (nano::account const & account, std::optional<nano::block_hash> const & hash = std::nullopt);
void timestamp (nano::account const & account, bool reset = false);
nano::account next ();
public:
bool blocked (nano::account const & account) const;
std::size_t priority_size () const;
std::size_t blocked_size () const;
/**
* Accounts in the ledger but not in priority list are assumed priority 1.0f
* Blocked accounts are assumed priority 0.0f
*/
float priority (nano::account const & account) const;
public: // Container info
std::unique_ptr<nano::container_info_component> collect_container_info (std::string const & name);
private:
void trim_overflow ();
bool check_timestamp (nano::account const & account) const;
private: // Dependencies
nano::stats & stats;
private:
struct priority_entry
{
nano::account account{ 0 };
float priority{ 0 };
nano::millis_t timestamp{ 0 };
id_t id{ 0 }; // Uniformly distributed, used for random querying
priority_entry (nano::account account, float priority);
};
struct blocking_entry
{
nano::account account{ 0 };
nano::block_hash dependency{ 0 };
priority_entry original_entry{ 0, 0 };
float priority () const
{
return original_entry.priority;
}
};
// clang-format off
class tag_account {};
class tag_priority {};
class tag_sequenced {};
class tag_id {};
// Tracks the ongoing account priorities
// This only stores account priorities > 1.0f.
using ordered_priorities = boost::multi_index_container<priority_entry,
mi::indexed_by<
mi::sequenced<mi::tag<tag_sequenced>>,
mi::ordered_unique<mi::tag<tag_account>,
mi::member<priority_entry, nano::account, &priority_entry::account>>,
mi::ordered_non_unique<mi::tag<tag_priority>,
mi::member<priority_entry, float, &priority_entry::priority>>,
mi::ordered_unique<mi::tag<tag_id>,
mi::member<priority_entry, bootstrap_ascending::id_t, &priority_entry::id>>
>>;
// A blocked account is an account that has failed to insert a new block because the source block is not currently present in the ledger
// An account is unblocked once it has a block successfully inserted
using ordered_blocking = boost::multi_index_container<blocking_entry,
mi::indexed_by<
mi::sequenced<mi::tag<tag_sequenced>>,
mi::ordered_unique<mi::tag<tag_account>,
mi::member<blocking_entry, nano::account, &blocking_entry::account>>,
mi::ordered_non_unique<mi::tag<tag_priority>,
mi::const_mem_fun<blocking_entry, float, &blocking_entry::priority>>
>>;
// clang-format on
ordered_priorities priorities;
ordered_blocking blocking;
std::default_random_engine rng;
private:
nano::account_sets_config config;
public: // Consts
static float constexpr priority_initial = 8.0f;
static float constexpr priority_increase = 2.0f;
static float constexpr priority_decrease = 0.5f;
static float constexpr priority_max = 32.0f;
static float constexpr priority_cutoff = 1.0f;
public:
using info_t = std::tuple<decltype (blocking), decltype (priorities)>; // <blocking, priorities>
info_t info () const;
};
account_sets::info_t info () const;
private: // Database iterators
class database_iterator
{
public:
enum class table_type
{
account,
pending
};
explicit database_iterator (nano::store & store, table_type);
nano::account operator* () const;
void next (nano::transaction & tx);
private:
nano::store & store;
nano::account current{ 0 };
const table_type table;
};
class buffered_iterator
{
public:
explicit buffered_iterator (nano::store & store);
nano::account operator* () const;
nano::account next ();
// Indicates if a full ledger iteration has taken place e.g. warmed up
bool warmup () const;
private:
void fill ();
private:
nano::store & store;
std::deque<nano::account> buffer;
bool warmup_m{ true };
database_iterator accounts_iterator;
database_iterator pending_iterator;
static std::size_t constexpr size = 1024;
};
private:
account_sets accounts;
buffered_iterator iterator;
throttle throttle;
// clang-format off
class tag_sequenced {};
class tag_id {};
class tag_account {};
using ordered_tags = boost::multi_index_container<async_tag,
mi::indexed_by<
mi::sequenced<mi::tag<tag_sequenced>>,
mi::hashed_unique<mi::tag<tag_id>,
mi::member<async_tag, id_t, &async_tag::id>>,
mi::hashed_non_unique<mi::tag<tag_account>,
mi::member<async_tag, nano::account , &async_tag::account>>
>>;
// clang-format on
ordered_tags tags;
nano::bandwidth_limiter limiter;
// Requests for accounts from database have much lower hitrate and could introduce strain on the network
// A separate (lower) limiter ensures that we always reserve resources for querying accounts from priority queue
nano::bandwidth_limiter database_limiter;
bool stopped{ false };
mutable nano::mutex mutex;
mutable nano::condition_variable condition;
std::thread thread;
std::thread timeout_thread;
};
}

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@ -0,0 +1,254 @@
#include <nano/lib/stats.hpp>
#include <nano/lib/utility.hpp>
#include <nano/node/bootstrap/bootstrap_config.hpp>
#include <nano/node/bootstrap_ascending/account_sets.hpp>
#include <algorithm>
#include <memory>
#include <vector>
/*
* account_sets
*/
nano::bootstrap_ascending::account_sets::account_sets (nano::stats & stats_a, nano::account_sets_config config_a) :
stats{ stats_a },
config{ std::move (config_a) }
{
}
void nano::bootstrap_ascending::account_sets::priority_up (nano::account const & account)
{
if (!blocked (account))
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::prioritize);
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
priorities.get<tag_account> ().modify (iter, [] (auto & val) {
val.priority = std::min ((val.priority * account_sets::priority_increase), account_sets::priority_max);
});
}
else
{
priorities.get<tag_account> ().insert ({ account, account_sets::priority_initial });
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_insert);
trim_overflow ();
}
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::prioritize_failed);
}
}
void nano::bootstrap_ascending::account_sets::priority_down (nano::account const & account)
{
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::deprioritize);
auto priority_new = iter->priority - account_sets::priority_decrease;
if (priority_new <= account_sets::priority_cutoff)
{
priorities.get<tag_account> ().erase (iter);
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_erase_threshold);
}
else
{
priorities.get<tag_account> ().modify (iter, [priority_new] (auto & val) {
val.priority = priority_new;
});
}
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::deprioritize_failed);
}
}
void nano::bootstrap_ascending::account_sets::block (nano::account const & account, nano::block_hash const & dependency)
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::block);
auto existing = priorities.get<tag_account> ().find (account);
auto entry = existing == priorities.get<tag_account> ().end () ? priority_entry{ 0, 0 } : *existing;
priorities.get<tag_account> ().erase (account);
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_erase_block);
blocking.get<tag_account> ().insert ({ account, dependency, entry });
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::blocking_insert);
trim_overflow ();
}
void nano::bootstrap_ascending::account_sets::unblock (nano::account const & account, std::optional<nano::block_hash> const & hash)
{
// Unblock only if the dependency is fulfilled
auto existing = blocking.get<tag_account> ().find (account);
if (existing != blocking.get<tag_account> ().end () && (!hash || existing->dependency == *hash))
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::unblock);
debug_assert (priorities.get<tag_account> ().count (account) == 0);
if (!existing->original_entry.account.is_zero ())
{
debug_assert (existing->original_entry.account == account);
priorities.get<tag_account> ().insert (existing->original_entry);
}
else
{
priorities.get<tag_account> ().insert ({ account, account_sets::priority_initial });
}
blocking.get<tag_account> ().erase (account);
trim_overflow ();
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::unblock_failed);
}
}
void nano::bootstrap_ascending::account_sets::timestamp (const nano::account & account, bool reset)
{
const nano::millis_t tstamp = reset ? 0 : nano::milliseconds_since_epoch ();
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
priorities.get<tag_account> ().modify (iter, [tstamp] (auto & entry) {
entry.timestamp = tstamp;
});
}
}
bool nano::bootstrap_ascending::account_sets::check_timestamp (const nano::account & account) const
{
auto iter = priorities.get<tag_account> ().find (account);
if (iter != priorities.get<tag_account> ().end ())
{
if (nano::milliseconds_since_epoch () - iter->timestamp < config.cooldown)
{
return false;
}
}
return true;
}
void nano::bootstrap_ascending::account_sets::trim_overflow ()
{
if (priorities.size () > config.priorities_max)
{
// Evict the lowest priority entry
priorities.get<tag_priority> ().erase (priorities.get<tag_priority> ().begin ());
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::priority_erase_overflow);
}
if (blocking.size () > config.blocking_max)
{
// Evict the lowest priority entry
blocking.get<tag_priority> ().erase (blocking.get<tag_priority> ().begin ());
stats.inc (nano::stat::type::bootstrap_ascending_accounts, nano::stat::detail::blocking_erase_overflow);
}
}
nano::account nano::bootstrap_ascending::account_sets::next ()
{
if (priorities.empty ())
{
return { 0 };
}
std::vector<float> weights;
std::vector<nano::account> candidates;
int iterations = 0;
while (candidates.size () < config.consideration_count && iterations++ < config.consideration_count * 10)
{
debug_assert (candidates.size () == weights.size ());
// Use a dedicated, uniformly distributed field for sampling to avoid problematic corner case when accounts in the queue are very close together
auto search = nano::bootstrap_ascending::generate_id ();
auto iter = priorities.get<tag_id> ().lower_bound (search);
if (iter == priorities.get<tag_id> ().end ())
{
iter = priorities.get<tag_id> ().begin ();
}
if (check_timestamp (iter->account))
{
candidates.push_back (iter->account);
weights.push_back (iter->priority);
}
}
if (candidates.empty ())
{
return { 0 }; // All sampled accounts are busy
}
std::discrete_distribution dist{ weights.begin (), weights.end () };
auto selection = dist (rng);
debug_assert (!weights.empty () && selection < weights.size ());
auto result = candidates[selection];
return result;
}
bool nano::bootstrap_ascending::account_sets::blocked (nano::account const & account) const
{
return blocking.get<tag_account> ().count (account) > 0;
}
std::size_t nano::bootstrap_ascending::account_sets::priority_size () const
{
return priorities.size ();
}
std::size_t nano::bootstrap_ascending::account_sets::blocked_size () const
{
return blocking.size ();
}
float nano::bootstrap_ascending::account_sets::priority (nano::account const & account) const
{
if (blocked (account))
{
return 0.0f;
}
auto existing = priorities.get<tag_account> ().find (account);
if (existing != priorities.get<tag_account> ().end ())
{
return existing->priority;
}
return account_sets::priority_cutoff;
}
auto nano::bootstrap_ascending::account_sets::info () const -> nano::bootstrap_ascending::account_sets::info_t
{
return { blocking, priorities };
}
std::unique_ptr<nano::container_info_component> nano::bootstrap_ascending::account_sets::collect_container_info (const std::string & name)
{
auto composite = std::make_unique<container_info_composite> (name);
composite->add_component (std::make_unique<container_info_leaf> (container_info{ "priorities", priorities.size (), sizeof (decltype (priorities)::value_type) }));
composite->add_component (std::make_unique<container_info_leaf> (container_info{ "blocking", blocking.size (), sizeof (decltype (blocking)::value_type) }));
return composite;
}
/*
* priority_entry
*/
nano::bootstrap_ascending::account_sets::priority_entry::priority_entry (nano::account account_a, float priority_a) :
account{ account_a },
priority{ priority_a }
{
id = nano::bootstrap_ascending::generate_id ();
}

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@ -0,0 +1,142 @@
#pragma once
#include <nano/lib/numbers.hpp>
#include <nano/node/bootstrap/bootstrap_config.hpp>
#include <nano/node/bootstrap_ascending/common.hpp>
#include <boost/multi_index/hashed_index.hpp>
#include <boost/multi_index/mem_fun.hpp>
#include <boost/multi_index/member.hpp>
#include <boost/multi_index/ordered_index.hpp>
#include <boost/multi_index/random_access_index.hpp>
#include <boost/multi_index/sequenced_index.hpp>
#include <boost/multi_index_container.hpp>
#include <random>
namespace mi = boost::multi_index;
namespace nano
{
class stats;
namespace bootstrap_ascending
{
/** This class tracks accounts various account sets which are shared among the multiple bootstrap threads */
class account_sets
{
public:
explicit account_sets (nano::stats &, nano::account_sets_config config = {});
/**
* If an account is not blocked, increase its priority.
* If the account does not exist in priority set and is not blocked, inserts a new entry.
* Current implementation increases priority by 1.0f each increment
*/
void priority_up (nano::account const & account);
/**
* Decreases account priority
* Current implementation divides priority by 2.0f and saturates down to 1.0f.
*/
void priority_down (nano::account const & account);
void block (nano::account const & account, nano::block_hash const & dependency);
void unblock (nano::account const & account, std::optional<nano::block_hash> const & hash = std::nullopt);
void timestamp (nano::account const & account, bool reset = false);
nano::account next ();
public:
bool blocked (nano::account const & account) const;
std::size_t priority_size () const;
std::size_t blocked_size () const;
/**
* Accounts in the ledger but not in priority list are assumed priority 1.0f
* Blocked accounts are assumed priority 0.0f
*/
float priority (nano::account const & account) const;
public: // Container info
std::unique_ptr<nano::container_info_component> collect_container_info (std::string const & name);
private:
void trim_overflow ();
bool check_timestamp (nano::account const & account) const;
private: // Dependencies
nano::stats & stats;
private:
struct priority_entry
{
nano::account account{ 0 };
float priority{ 0 };
nano::millis_t timestamp{ 0 };
nano::bootstrap_ascending::id_t id{ 0 }; // Uniformly distributed, used for random querying
priority_entry (nano::account account, float priority);
};
struct blocking_entry
{
nano::account account{ 0 };
nano::block_hash dependency{ 0 };
priority_entry original_entry{ 0, 0 };
float priority () const
{
return original_entry.priority;
}
};
// clang-format off
class tag_account {};
class tag_priority {};
class tag_sequenced {};
class tag_id {};
// Tracks the ongoing account priorities
// This only stores account priorities > 1.0f.
using ordered_priorities = boost::multi_index_container<priority_entry,
mi::indexed_by<
mi::sequenced<mi::tag<tag_sequenced>>,
mi::ordered_unique<mi::tag<tag_account>,
mi::member<priority_entry, nano::account, &priority_entry::account>>,
mi::ordered_non_unique<mi::tag<tag_priority>,
mi::member<priority_entry, float, &priority_entry::priority>>,
mi::ordered_unique<mi::tag<tag_id>,
mi::member<priority_entry, nano::bootstrap_ascending::id_t, &priority_entry::id>>
>>;
// A blocked account is an account that has failed to insert a new block because the source block is not currently present in the ledger
// An account is unblocked once it has a block successfully inserted
using ordered_blocking = boost::multi_index_container<blocking_entry,
mi::indexed_by<
mi::sequenced<mi::tag<tag_sequenced>>,
mi::ordered_unique<mi::tag<tag_account>,
mi::member<blocking_entry, nano::account, &blocking_entry::account>>,
mi::ordered_non_unique<mi::tag<tag_priority>,
mi::const_mem_fun<blocking_entry, float, &blocking_entry::priority>>
>>;
// clang-format on
ordered_priorities priorities;
ordered_blocking blocking;
std::default_random_engine rng;
private:
nano::account_sets_config config;
public: // Consts
static float constexpr priority_initial = 8.0f;
static float constexpr priority_increase = 2.0f;
static float constexpr priority_decrease = 0.5f;
static float constexpr priority_max = 32.0f;
static float constexpr priority_cutoff = 1.0f;
public:
using info_t = std::tuple<decltype (blocking), decltype (priorities)>; // <blocking, priorities>
info_t info () const;
};
} // bootstrap_ascending
} // nano

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#pragma once
#include <nano/crypto_lib/random_pool.hpp>
#include <cstdlib>
namespace nano::bootstrap_ascending
{
using id_t = uint64_t;
static nano::bootstrap_ascending::id_t generate_id ()
{
nano::bootstrap_ascending::id_t id;
nano::random_pool::generate_block (reinterpret_cast<uint8_t *> (&id), sizeof (id));
return id;
}
} // nano::bootstrap_ascending

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#include <nano/lib/utility.hpp>
#include <nano/node/bootstrap_ascending/iterators.hpp>
#include <nano/secure/common.hpp>
#include <nano/secure/store.hpp>
/*
* database_iterator
*/
nano::bootstrap_ascending::database_iterator::database_iterator (nano::store & store_a, table_type table_a) :
store{ store_a },
table{ table_a }
{
}
nano::account nano::bootstrap_ascending::database_iterator::operator* () const
{
return current;
}
void nano::bootstrap_ascending::database_iterator::next (nano::transaction & tx)
{
switch (table)
{
case table_type::account:
{
auto i = current.number () + 1;
auto item = store.account.begin (tx, i);
if (item != store.account.end ())
{
current = item->first;
}
else
{
current = { 0 };
}
break;
}
case table_type::pending:
{
auto i = current.number () + 1;
auto item = store.pending.begin (tx, nano::pending_key{ i, 0 });
if (item != store.pending.end ())
{
current = item->first.account;
}
else
{
current = { 0 };
}
break;
}
}
}
/*
* buffered_iterator
*/
nano::bootstrap_ascending::buffered_iterator::buffered_iterator (nano::store & store_a) :
store{ store_a },
accounts_iterator{ store, database_iterator::table_type::account },
pending_iterator{ store, database_iterator::table_type::pending }
{
}
nano::account nano::bootstrap_ascending::buffered_iterator::operator* () const
{
return !buffer.empty () ? buffer.front () : nano::account{ 0 };
}
nano::account nano::bootstrap_ascending::buffered_iterator::next ()
{
if (!buffer.empty ())
{
buffer.pop_front ();
}
else
{
fill ();
}
return *(*this);
}
bool nano::bootstrap_ascending::buffered_iterator::warmup () const
{
return warmup_m;
}
void nano::bootstrap_ascending::buffered_iterator::fill ()
{
debug_assert (buffer.empty ());
// Fill half from accounts table and half from pending table
auto transaction = store.tx_begin_read ();
for (int n = 0; n < size / 2; ++n)
{
accounts_iterator.next (transaction);
if (!(*accounts_iterator).is_zero ())
{
buffer.push_back (*accounts_iterator);
}
}
for (int n = 0; n < size / 2; ++n)
{
pending_iterator.next (transaction);
if (!(*pending_iterator).is_zero ())
{
buffer.push_back (*pending_iterator);
}
else
{
warmup_m = false;
}
}
}

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#pragma once
#include <nano/lib/numbers.hpp>
#include <deque>
namespace nano
{
class store;
class transaction;
namespace bootstrap_ascending
{
class database_iterator
{
public:
enum class table_type
{
account,
pending
};
explicit database_iterator (nano::store & store, table_type);
nano::account operator* () const;
void next (nano::transaction & tx);
private:
nano::store & store;
nano::account current{ 0 };
const table_type table;
};
class buffered_iterator
{
public:
explicit buffered_iterator (nano::store & store);
nano::account operator* () const;
nano::account next ();
// Indicates if a full ledger iteration has taken place e.g. warmed up
bool warmup () const;
private:
void fill ();
private:
nano::store & store;
std::deque<nano::account> buffer;
bool warmup_m{ true };
database_iterator accounts_iterator;
database_iterator pending_iterator;
static std::size_t constexpr size = 1024;
};
} // nano
} // bootstrap_ascending

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#include <nano/lib/stats_enums.hpp>
#include <nano/node/blockprocessor.hpp>
#include <nano/node/bootstrap_ascending/service.hpp>
#include <nano/node/network.hpp>
#include <nano/node/nodeconfig.hpp>
#include <nano/node/transport/transport.hpp>
#include <nano/secure/common.hpp>
#include <nano/secure/ledger.hpp>
#include <nano/secure/store.hpp>
using namespace std::chrono_literals;
/*
* bootstrap_ascending
*/
nano::bootstrap_ascending::service::service (nano::node_config & config_a, nano::block_processor & block_processor_a, nano::ledger & ledger_a, nano::network & network_a, nano::stats & stat_a) :
config{ config_a },
network_consts{ config.network_params.network },
block_processor{ block_processor_a },
ledger{ ledger_a },
network{ network_a },
stats{ stat_a },
accounts{ stats },
iterator{ ledger.store },
throttle{ config.bootstrap_ascending.throttle_count },
limiter{ config.bootstrap_ascending.requests_limit, 1.0 },
database_limiter{ config.bootstrap_ascending.database_requests_limit, 1.0 }
{
// TODO: This is called from a very congested blockprocessor thread. Offload this work to a dedicated processing thread
block_processor.batch_processed.add ([this] (auto const & batch) {
{
nano::lock_guard<nano::mutex> lock{ mutex };
auto transaction = ledger.store.tx_begin_read ();
for (auto const & [result, block] : batch)
{
debug_assert (block != nullptr);
inspect (transaction, result, *block);
}
}
condition.notify_all ();
});
}
nano::bootstrap_ascending::service::~service ()
{
// All threads must be stopped before destruction
debug_assert (!thread.joinable ());
debug_assert (!timeout_thread.joinable ());
}
void nano::bootstrap_ascending::service::start ()
{
debug_assert (!thread.joinable ());
debug_assert (!timeout_thread.joinable ());
thread = std::thread ([this] () {
nano::thread_role::set (nano::thread_role::name::ascending_bootstrap);
run ();
});
timeout_thread = std::thread ([this] () {
nano::thread_role::set (nano::thread_role::name::ascending_bootstrap);
run_timeouts ();
});
}
void nano::bootstrap_ascending::service::stop ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
stopped = true;
lock.unlock ();
condition.notify_all ();
nano::join_or_pass (thread);
nano::join_or_pass (timeout_thread);
}
void nano::bootstrap_ascending::service::send (std::shared_ptr<nano::transport::channel> channel, async_tag tag)
{
debug_assert (tag.type == async_tag::query_type::blocks_by_hash || tag.type == async_tag::query_type::blocks_by_account);
nano::asc_pull_req request{ network_consts };
request.id = tag.id;
request.type = nano::asc_pull_type::blocks;
nano::asc_pull_req::blocks_payload request_payload;
request_payload.start = tag.start;
request_payload.count = config.bootstrap_ascending.pull_count;
request_payload.start_type = (tag.type == async_tag::query_type::blocks_by_hash) ? nano::asc_pull_req::hash_type::block : nano::asc_pull_req::hash_type::account;
request.payload = request_payload;
request.update_header ();
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::request, nano::stat::dir::out);
// TODO: There is no feedback mechanism if bandwidth limiter starts dropping our requests
channel->send (
request, nullptr,
nano::transport::buffer_drop_policy::limiter, nano::transport::traffic_type::bootstrap);
}
size_t nano::bootstrap_ascending::service::priority_size () const
{
nano::lock_guard<nano::mutex> lock{ mutex };
return accounts.priority_size ();
}
size_t nano::bootstrap_ascending::service::blocked_size () const
{
nano::lock_guard<nano::mutex> lock{ mutex };
return accounts.blocked_size ();
}
/** Inspects a block that has been processed by the block processor
- Marks an account as blocked if the result code is gap source as there is no reason request additional blocks for this account until the dependency is resolved
- Marks an account as forwarded if it has been recently referenced by a block that has been inserted.
*/
void nano::bootstrap_ascending::service::inspect (nano::transaction const & tx, nano::process_return const & result, nano::block const & block)
{
auto const hash = block.hash ();
switch (result.code)
{
case nano::process_result::progress:
{
const auto account = ledger.account (tx, hash);
const auto is_send = ledger.is_send (tx, block);
// If we've inserted any block in to an account, unmark it as blocked
accounts.unblock (account);
accounts.priority_up (account);
accounts.timestamp (account, /* reset timestamp */ true);
if (is_send)
{
// TODO: Encapsulate this as a helper somewhere
nano::account destination{ 0 };
switch (block.type ())
{
case nano::block_type::send:
destination = block.destination ();
break;
case nano::block_type::state:
destination = block.link ().as_account ();
break;
default:
debug_assert (false, "unexpected block type");
break;
}
if (!destination.is_zero ())
{
accounts.unblock (destination, hash); // Unblocking automatically inserts account into priority set
accounts.priority_up (destination);
}
}
}
break;
case nano::process_result::gap_source:
{
const auto account = block.previous ().is_zero () ? block.account () : ledger.account (tx, block.previous ());
const auto source = block.source ().is_zero () ? block.link ().as_block_hash () : block.source ();
// Mark account as blocked because it is missing the source block
accounts.block (account, source);
// TODO: Track stats
}
break;
case nano::process_result::old:
{
// TODO: Track stats
}
break;
case nano::process_result::gap_previous:
{
// TODO: Track stats
}
break;
default: // No need to handle other cases
break;
}
}
void nano::bootstrap_ascending::service::wait_blockprocessor ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped && block_processor.half_full ())
{
condition.wait_for (lock, 500ms, [this] () { return stopped; }); // Blockprocessor is relatively slow, sleeping here instead of using conditions
}
}
void nano::bootstrap_ascending::service::wait_available_request ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped && !limiter.should_pass (1))
{
condition.wait_for (lock, 50ms, [this] () { return stopped; }); // Give it at least some time to cooldown to avoid hitting the limit too frequently
}
}
std::shared_ptr<nano::transport::channel> nano::bootstrap_ascending::service::available_channel ()
{
auto channels = network.random_set (32, network_consts.bootstrap_protocol_version_min, /* include temporary channels */ true);
for (auto & channel : channels)
{
if (!channel->max (nano::transport::traffic_type::bootstrap))
{
return channel;
}
}
return nullptr;
}
std::shared_ptr<nano::transport::channel> nano::bootstrap_ascending::service::wait_available_channel ()
{
std::shared_ptr<nano::transport::channel> channel;
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped && !(channel = available_channel ()))
{
condition.wait_for (lock, 100ms, [this] () { return stopped; });
}
return channel;
}
nano::account nano::bootstrap_ascending::service::available_account ()
{
{
auto account = accounts.next ();
if (!account.is_zero ())
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::next_priority);
return account;
}
}
if (database_limiter.should_pass (1))
{
auto account = iterator.next ();
if (!account.is_zero ())
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::next_database);
return account;
}
}
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::next_none);
return { 0 };
}
nano::account nano::bootstrap_ascending::service::wait_available_account ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped)
{
auto account = available_account ();
if (!account.is_zero ())
{
accounts.timestamp (account);
return account;
}
else
{
condition.wait_for (lock, 100ms);
}
}
return { 0 };
}
bool nano::bootstrap_ascending::service::request (nano::account & account, std::shared_ptr<nano::transport::channel> & channel)
{
async_tag tag{};
tag.id = nano::bootstrap_ascending::generate_id ();
tag.account = account;
tag.time = nano::milliseconds_since_epoch ();
// Check if the account picked has blocks, if it does, start the pull from the highest block
auto info = ledger.store.account.get (ledger.store.tx_begin_read (), account);
if (info)
{
tag.type = async_tag::query_type::blocks_by_hash;
tag.start = info->head;
}
else
{
tag.type = async_tag::query_type::blocks_by_account;
tag.start = account;
}
on_request.notify (tag, channel);
track (tag);
send (channel, tag);
return true; // Request sent
}
bool nano::bootstrap_ascending::service::run_one ()
{
// Ensure there is enough space in blockprocessor for queuing new blocks
wait_blockprocessor ();
// Do not do too many requests in parallel, impose throttling
wait_available_request ();
// Waits for channel that is not full
auto channel = wait_available_channel ();
if (!channel)
{
return false;
}
// Waits for account either from priority queue or database
auto account = wait_available_account ();
if (account.is_zero ())
{
return false;
}
bool success = request (account, channel);
return success;
}
void nano::bootstrap_ascending::service::throttle_if_needed (nano::unique_lock<nano::mutex> & lock)
{
debug_assert (lock.owns_lock ());
if (!iterator.warmup () && throttle.throttled ())
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::throttled);
condition.wait_for (lock, std::chrono::milliseconds{ config.bootstrap_ascending.throttle_wait }, [this] () { return stopped; });
}
}
void nano::bootstrap_ascending::service::run ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped)
{
lock.unlock ();
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::loop);
run_one ();
lock.lock ();
throttle_if_needed (lock);
}
}
void nano::bootstrap_ascending::service::run_timeouts ()
{
nano::unique_lock<nano::mutex> lock{ mutex };
while (!stopped)
{
auto & tags_by_order = tags.get<tag_sequenced> ();
while (!tags_by_order.empty () && nano::time_difference (tags_by_order.front ().time, nano::milliseconds_since_epoch ()) > config.bootstrap_ascending.timeout)
{
auto tag = tags_by_order.front ();
tags_by_order.pop_front ();
on_timeout.notify (tag);
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::timeout);
}
condition.wait_for (lock, 1s, [this] () { return stopped; });
}
}
void nano::bootstrap_ascending::service::process (const nano::asc_pull_ack & message)
{
nano::unique_lock<nano::mutex> lock{ mutex };
// Only process messages that have a known tag
auto & tags_by_id = tags.get<tag_id> ();
if (tags_by_id.count (message.id) > 0)
{
auto iterator = tags_by_id.find (message.id);
auto tag = *iterator;
tags_by_id.erase (iterator);
lock.unlock ();
on_reply.notify (tag);
condition.notify_all ();
std::visit ([this, &tag] (auto && request) { return process (request, tag); }, message.payload);
}
else
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::missing_tag);
}
}
void nano::bootstrap_ascending::service::process (const nano::asc_pull_ack::blocks_payload & response, const nano::bootstrap_ascending::service::async_tag & tag)
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::reply);
auto result = verify (response, tag);
switch (result)
{
case verify_result::ok:
{
stats.add (nano::stat::type::bootstrap_ascending, nano::stat::detail::blocks, nano::stat::dir::in, response.blocks.size ());
for (auto & block : response.blocks)
{
block_processor.add (block);
}
nano::lock_guard<nano::mutex> lock{ mutex };
throttle.add (true);
}
break;
case verify_result::nothing_new:
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::nothing_new);
nano::lock_guard<nano::mutex> lock{ mutex };
accounts.priority_down (tag.account);
throttle.add (false);
}
break;
case verify_result::invalid:
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::invalid);
// TODO: Log
}
break;
}
}
void nano::bootstrap_ascending::service::process (const nano::asc_pull_ack::account_info_payload & response, const nano::bootstrap_ascending::service::async_tag & tag)
{
// TODO: Make use of account info
}
void nano::bootstrap_ascending::service::process (const nano::empty_payload & response, const nano::bootstrap_ascending::service::async_tag & tag)
{
// Should not happen
debug_assert (false, "empty payload");
}
nano::bootstrap_ascending::service::verify_result nano::bootstrap_ascending::service::verify (const nano::asc_pull_ack::blocks_payload & response, const nano::bootstrap_ascending::service::async_tag & tag) const
{
auto const & blocks = response.blocks;
if (blocks.empty ())
{
return verify_result::nothing_new;
}
if (blocks.size () == 1 && blocks.front ()->hash () == tag.start.as_block_hash ())
{
return verify_result::nothing_new;
}
auto const & first = blocks.front ();
switch (tag.type)
{
case async_tag::query_type::blocks_by_hash:
{
if (first->hash () != tag.start.as_block_hash ())
{
// TODO: Stat & log
return verify_result::invalid;
}
}
break;
case async_tag::query_type::blocks_by_account:
{
// Open & state blocks always contain account field
if (first->account () != tag.start.as_account ())
{
// TODO: Stat & log
return verify_result::invalid;
}
}
break;
default:
return verify_result::invalid;
}
// Verify blocks make a valid chain
nano::block_hash previous_hash = blocks.front ()->hash ();
for (int n = 1; n < blocks.size (); ++n)
{
auto & block = blocks[n];
if (block->previous () != previous_hash)
{
// TODO: Stat & log
return verify_result::invalid; // Blocks do not make a chain
}
previous_hash = block->hash ();
}
return verify_result::ok;
}
void nano::bootstrap_ascending::service::track (async_tag const & tag)
{
stats.inc (nano::stat::type::bootstrap_ascending, nano::stat::detail::track);
nano::lock_guard<nano::mutex> lock{ mutex };
debug_assert (tags.get<tag_id> ().count (tag.id) == 0);
tags.get<tag_id> ().insert (tag);
}
auto nano::bootstrap_ascending::service::info () const -> nano::bootstrap_ascending::account_sets::info_t
{
nano::lock_guard<nano::mutex> lock{ mutex };
return accounts.info ();
}
std::unique_ptr<nano::container_info_component> nano::bootstrap_ascending::service::collect_container_info (std::string const & name)
{
nano::lock_guard<nano::mutex> lock{ mutex };
auto composite = std::make_unique<container_info_composite> (name);
composite->add_component (std::make_unique<container_info_leaf> (container_info{ "tags", tags.size (), sizeof (decltype (tags)::value_type) }));
composite->add_component (accounts.collect_container_info ("accounts"));
return composite;
}

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#pragma once
#include <nano/lib/locks.hpp>
#include <nano/lib/numbers.hpp>
#include <nano/lib/observer_set.hpp>
#include <nano/lib/timer.hpp>
#include <nano/node/bandwidth_limiter.hpp>
#include <nano/node/bootstrap/bootstrap_config.hpp>
#include <nano/node/bootstrap_ascending/account_sets.hpp>
#include <nano/node/bootstrap_ascending/common.hpp>
#include <nano/node/bootstrap_ascending/iterators.hpp>
#include <nano/node/bootstrap_ascending/throttle.hpp>
#include <boost/multi_index/hashed_index.hpp>
#include <boost/multi_index/mem_fun.hpp>
#include <boost/multi_index/member.hpp>
#include <boost/multi_index/ordered_index.hpp>
#include <boost/multi_index/random_access_index.hpp>
#include <boost/multi_index/sequenced_index.hpp>
#include <boost/multi_index_container.hpp>
#include <thread>
namespace mi = boost::multi_index;
namespace nano
{
class block_processor;
class ledger;
class network;
class node_config;
class transaction;
namespace transport
{
class channel;
}
namespace bootstrap_ascending
{
class service
{
public:
service (nano::node_config &, nano::block_processor &, nano::ledger &, nano::network &, nano::stats &);
~service ();
void start ();
void stop ();
/**
* Process `asc_pull_ack` message coming from network
*/
void process (nano::asc_pull_ack const & message);
public: // Container info
std::unique_ptr<nano::container_info_component> collect_container_info (std::string const & name);
size_t blocked_size () const;
size_t priority_size () const;
private: // Dependencies
nano::node_config & config;
nano::network_constants & network_consts;
nano::block_processor & block_processor;
nano::ledger & ledger;
nano::network & network;
nano::stats & stats;
public: // async_tag
struct async_tag
{
enum class query_type
{
invalid = 0, // Default initialization
blocks_by_hash,
blocks_by_account,
// TODO: account_info,
};
query_type type{ query_type::invalid };
nano::bootstrap_ascending::id_t id{ 0 };
nano::hash_or_account start{ 0 };
nano::millis_t time{ 0 };
nano::account account{ 0 };
};
public: // Events
nano::observer_set<async_tag const &, std::shared_ptr<nano::transport::channel> &> on_request;
nano::observer_set<async_tag const &> on_reply;
nano::observer_set<async_tag const &> on_timeout;
private:
/* Inspects a block that has been processed by the block processor */
void inspect (nano::transaction const &, nano::process_return const & result, nano::block const & block);
void throttle_if_needed (nano::unique_lock<nano::mutex> & lock);
void run ();
bool run_one ();
void run_timeouts ();
/* Limits the number of requests per second we make */
void wait_available_request ();
/* Throttles requesting new blocks, not to overwhelm blockprocessor */
void wait_blockprocessor ();
/* Waits for channel with free capacity for bootstrap messages */
std::shared_ptr<nano::transport::channel> wait_available_channel ();
std::shared_ptr<nano::transport::channel> available_channel ();
/* Waits until a suitable account outside of cool down period is available */
nano::account available_account ();
nano::account wait_available_account ();
bool request (nano::account &, std::shared_ptr<nano::transport::channel> &);
void send (std::shared_ptr<nano::transport::channel>, async_tag tag);
void track (async_tag const & tag);
void process (nano::asc_pull_ack::blocks_payload const & response, async_tag const & tag);
void process (nano::asc_pull_ack::account_info_payload const & response, async_tag const & tag);
void process (nano::empty_payload const & response, async_tag const & tag);
enum class verify_result
{
ok,
nothing_new,
invalid,
};
/**
* Verifies whether the received response is valid. Returns:
* - invalid: when received blocks do not correspond to requested hash/account or they do not make a valid chain
* - nothing_new: when received response indicates that the account chain does not have more blocks
* - ok: otherwise, if all checks pass
*/
verify_result verify (nano::asc_pull_ack::blocks_payload const & response, async_tag const & tag) const;
public: // account_sets
nano::bootstrap_ascending::account_sets::info_t info () const;
private:
nano::bootstrap_ascending::account_sets accounts;
nano::bootstrap_ascending::buffered_iterator iterator;
nano::bootstrap_ascending::throttle throttle;
// clang-format off
class tag_sequenced {};
class tag_id {};
class tag_account {};
using ordered_tags = boost::multi_index_container<async_tag,
mi::indexed_by<
mi::sequenced<mi::tag<tag_sequenced>>,
mi::hashed_unique<mi::tag<tag_id>,
mi::member<async_tag, nano::bootstrap_ascending::id_t, &async_tag::id>>,
mi::hashed_non_unique<mi::tag<tag_account>,
mi::member<async_tag, nano::account , &async_tag::account>>
>>;
// clang-format on
ordered_tags tags;
nano::bandwidth_limiter limiter;
// Requests for accounts from database have much lower hitrate and could introduce strain on the network
// A separate (lower) limiter ensures that we always reserve resources for querying accounts from priority queue
nano::bandwidth_limiter database_limiter;
bool stopped{ false };
mutable nano::mutex mutex;
mutable nano::condition_variable condition;
std::thread thread;
std::thread timeout_thread;
};
}
}

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@ -0,0 +1,25 @@
#include <nano/node/bootstrap_ascending/throttle.hpp>
nano::bootstrap_ascending::throttle::throttle (std::size_t count) :
successes{ count },
samples{ count, true }
{
}
bool nano::bootstrap_ascending::throttle::throttled () const
{
return successes == 0;
}
void nano::bootstrap_ascending::throttle::add (bool sample)
{
if (samples.front ())
{
--successes;
}
samples.push_back (sample);
if (sample)
{
++successes;
}
}

View file

@ -0,0 +1,23 @@
#pragma once
#include <boost/circular_buffer.hpp>
namespace nano::bootstrap_ascending
{
// Class used to throttle the ascending bootstrapper once it reaches a steady state
// Tracks verify_result samples and signals throttling if no tracked samples have gotten results
class throttle
{
public:
// Initialized with all true samples
explicit throttle (std::size_t size);
bool throttled () const;
void add (bool success);
private:
// Rolling count of true samples in the sample buffer
std::size_t successes;
// Circular buffer that tracks sample results. True when something was retrieved, false otherwise
boost::circular_buffer<bool> samples;
};
} // nano::boostrap_ascending

View file

@ -1,8 +1,8 @@
#include <nano/lib/config.hpp> #include <nano/lib/config.hpp>
#include <nano/lib/json_error_response.hpp> #include <nano/lib/json_error_response.hpp>
#include <nano/lib/timer.hpp> #include <nano/lib/timer.hpp>
#include <nano/node/bootstrap/bootstrap_ascending.hpp>
#include <nano/node/bootstrap/bootstrap_lazy.hpp> #include <nano/node/bootstrap/bootstrap_lazy.hpp>
#include <nano/node/bootstrap_ascending/service.hpp>
#include <nano/node/common.hpp> #include <nano/node/common.hpp>
#include <nano/node/election.hpp> #include <nano/node/election.hpp>
#include <nano/node/json_handler.hpp> #include <nano/node/json_handler.hpp>

View file

@ -1,6 +1,6 @@
#include <nano/crypto_lib/random_pool_shuffle.hpp> #include <nano/crypto_lib/random_pool_shuffle.hpp>
#include <nano/lib/threading.hpp> #include <nano/lib/threading.hpp>
#include <nano/node/bootstrap/bootstrap_ascending.hpp> #include <nano/node/bootstrap_ascending/service.hpp>
#include <nano/node/network.hpp> #include <nano/node/network.hpp>
#include <nano/node/node.hpp> #include <nano/node/node.hpp>
#include <nano/node/telemetry.hpp> #include <nano/node/telemetry.hpp>

View file

@ -11,9 +11,9 @@
#include <nano/node/block_publisher.hpp> #include <nano/node/block_publisher.hpp>
#include <nano/node/blockprocessor.hpp> #include <nano/node/blockprocessor.hpp>
#include <nano/node/bootstrap/bootstrap.hpp> #include <nano/node/bootstrap/bootstrap.hpp>
#include <nano/node/bootstrap/bootstrap_ascending.hpp>
#include <nano/node/bootstrap/bootstrap_attempt.hpp> #include <nano/node/bootstrap/bootstrap_attempt.hpp>
#include <nano/node/bootstrap/bootstrap_server.hpp> #include <nano/node/bootstrap/bootstrap_server.hpp>
#include <nano/node/bootstrap_ascending/service.hpp>
#include <nano/node/confirmation_height_processor.hpp> #include <nano/node/confirmation_height_processor.hpp>
#include <nano/node/distributed_work_factory.hpp> #include <nano/node/distributed_work_factory.hpp>
#include <nano/node/election.hpp> #include <nano/node/election.hpp>
@ -193,7 +193,7 @@ public:
nano::request_aggregator aggregator; nano::request_aggregator aggregator;
nano::wallets wallets; nano::wallets wallets;
nano::backlog_population backlog; nano::backlog_population backlog;
nano::bootstrap_ascending ascendboot; nano::bootstrap_ascending::service ascendboot;
nano::websocket_server websocket; nano::websocket_server websocket;
nano::epoch_upgrader epoch_upgrader; nano::epoch_upgrader epoch_upgrader;
nano::block_broadcast block_broadcast; nano::block_broadcast block_broadcast;

View file

@ -1,6 +1,6 @@
#include <nano/lib/rpcconfig.hpp> #include <nano/lib/rpcconfig.hpp>
#include <nano/node/bootstrap/bootstrap_ascending.hpp>
#include <nano/node/bootstrap/bootstrap_server.hpp> #include <nano/node/bootstrap/bootstrap_server.hpp>
#include <nano/node/bootstrap_ascending/service.hpp>
#include <nano/node/ipc/ipc_server.hpp> #include <nano/node/ipc/ipc_server.hpp>
#include <nano/node/json_handler.hpp> #include <nano/node/json_handler.hpp>
#include <nano/node/transport/transport.hpp> #include <nano/node/transport/transport.hpp>
@ -110,7 +110,7 @@ TEST (bootstrap_ascending, profile)
struct entry struct entry
{ {
nano::bootstrap_ascending::async_tag tag; nano::bootstrap_ascending::service::async_tag tag;
std::shared_ptr<nano::transport::channel> request_channel; std::shared_ptr<nano::transport::channel> request_channel;
std::shared_ptr<nano::transport::channel> reply_channel; std::shared_ptr<nano::transport::channel> reply_channel;