Files
brk/crates/brk_computer/src/lib.rs
2026-02-27 23:00:43 +01:00

574 lines
18 KiB
Rust

#![doc = include_str!("../README.md")]
use std::{fs, path::Path, thread, time::Instant};
use brk_error::Result;
use brk_indexer::Indexer;
use brk_reader::Reader;
use brk_traversable::Traversable;
use brk_types::Version;
use tracing::info;
use vecdb::{Exit, Ro, Rw, StorageMode};
mod blocks;
mod cointime;
mod constants;
mod distribution;
pub mod indexes;
mod inputs;
mod internal;
mod market;
mod mining;
mod outputs;
mod pools;
mod positions;
pub mod prices;
mod scripts;
mod supply;
mod traits;
mod transactions;
use indexes::ComputeIndexes;
#[derive(Traversable)]
pub struct Computer<M: StorageMode = Rw> {
pub blocks: Box<blocks::Vecs<M>>,
pub mining: Box<mining::Vecs<M>>,
pub transactions: Box<transactions::Vecs<M>>,
pub scripts: Box<scripts::Vecs<M>>,
pub positions: Box<positions::Vecs<M>>,
pub cointime: Box<cointime::Vecs<M>>,
pub constants: Box<constants::Vecs>,
pub indexes: Box<indexes::Vecs<M>>,
pub market: Box<market::Vecs<M>>,
pub pools: Box<pools::Vecs<M>>,
pub prices: Box<prices::Vecs<M>>,
pub distribution: Box<distribution::Vecs<M>>,
pub supply: Box<supply::Vecs<M>>,
pub inputs: Box<inputs::Vecs<M>>,
pub outputs: Box<outputs::Vecs<M>>,
}
const VERSION: Version = Version::new(5);
impl Computer {
/// Do NOT import multiple times or things will break !!!
pub fn forced_import(outputs_path: &Path, indexer: &Indexer) -> Result<Self> {
info!("Importing computer...");
let import_start = Instant::now();
let computed_path = outputs_path.join("computed");
const STACK_SIZE: usize = 8 * 1024 * 1024;
let big_thread = || thread::Builder::new().stack_size(STACK_SIZE);
let i = Instant::now();
let (indexes, positions) = thread::scope(|s| -> Result<_> {
let positions_handle = big_thread().spawn_scoped(s, || -> Result<_> {
Ok(Box::new(positions::Vecs::forced_import(
&computed_path,
VERSION,
)?))
})?;
let indexes = Box::new(indexes::Vecs::forced_import(
&computed_path,
VERSION,
indexer,
)?);
let positions = positions_handle.join().unwrap()?;
Ok((indexes, positions))
})?;
info!("Imported indexes/positions in {:?}", i.elapsed());
// inputs/outputs need indexes for count imports
let i = Instant::now();
let (inputs, outputs) = thread::scope(|s| -> Result<_> {
let inputs_handle = big_thread().spawn_scoped(s, || -> Result<_> {
Ok(Box::new(inputs::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?))
})?;
let outputs_handle = big_thread().spawn_scoped(s, || -> Result<_> {
Ok(Box::new(outputs::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?))
})?;
let inputs = inputs_handle.join().unwrap()?;
let outputs = outputs_handle.join().unwrap()?;
Ok((inputs, outputs))
})?;
info!("Imported inputs/outputs in {:?}", i.elapsed());
let i = Instant::now();
let constants = Box::new(constants::Vecs::new(VERSION, &indexes));
// Price must be created before market since market's lazy vecs reference price
let prices = Box::new(prices::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?);
info!("Imported price/constants in {:?}", i.elapsed());
let i = Instant::now();
let (blocks, mining, transactions, scripts, pools, cointime) =
thread::scope(|s| -> Result<_> {
// Import blocks module (no longer needs prices)
let blocks_handle = big_thread().spawn_scoped(s, || -> Result<_> {
Ok(Box::new(blocks::Vecs::forced_import(
&computed_path,
VERSION,
indexer,
&indexes,
)?))
})?;
// Import mining module (separate database)
let mining_handle = big_thread().spawn_scoped(s, || -> Result<_> {
Ok(Box::new(mining::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?))
})?;
// Import transactions module
let transactions_handle = big_thread().spawn_scoped(s, || -> Result<_> {
Ok(Box::new(transactions::Vecs::forced_import(
&computed_path,
VERSION,
indexer,
&indexes,
)?))
})?;
let scripts_handle = big_thread().spawn_scoped(s, || -> Result<_> {
Ok(Box::new(scripts::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?))
})?;
let cointime = Box::new(cointime::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?);
let blocks = blocks_handle.join().unwrap()?;
let mining = mining_handle.join().unwrap()?;
let transactions = transactions_handle.join().unwrap()?;
let scripts = scripts_handle.join().unwrap()?;
let pools = Box::new(pools::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?);
Ok((blocks, mining, transactions, scripts, pools, cointime))
})?;
info!(
"Imported blocks/mining/transactions/scripts/pools/cointime in {:?}",
i.elapsed()
);
// Threads inside
let i = Instant::now();
let distribution = Box::new(distribution::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?);
info!("Imported distribution in {:?}", i.elapsed());
// Supply must be imported after distribution (references distribution's supply)
let i = Instant::now();
let supply = Box::new(supply::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
&distribution,
)?);
info!("Imported supply in {:?}", i.elapsed());
let i = Instant::now();
let market = Box::new(market::Vecs::forced_import(
&computed_path,
VERSION,
&indexes,
)?);
info!("Imported market in {:?}", i.elapsed());
info!("Total import time: {:?}", import_start.elapsed());
let this = Self {
blocks,
mining,
transactions,
scripts,
constants,
market,
distribution,
supply,
positions,
pools,
cointime,
indexes,
inputs,
prices,
outputs,
};
Self::retain_databases(&computed_path)?;
Ok(this)
}
/// Removes database folders that are no longer in use.
fn retain_databases(computed_path: &Path) -> Result<()> {
const EXPECTED_DBS: &[&str] = &[
blocks::DB_NAME,
mining::DB_NAME,
transactions::DB_NAME,
scripts::DB_NAME,
positions::DB_NAME,
cointime::DB_NAME,
indexes::DB_NAME,
market::DB_NAME,
pools::DB_NAME,
prices::DB_NAME,
distribution::DB_NAME,
supply::DB_NAME,
inputs::DB_NAME,
outputs::DB_NAME,
];
if !computed_path.exists() {
return Ok(());
}
for entry in fs::read_dir(computed_path)? {
let entry = entry?;
let file_type = entry.file_type()?;
if !file_type.is_dir() {
continue;
}
if let Some(name) = entry.file_name().to_str()
&& !EXPECTED_DBS.contains(&name)
{
info!("Removing obsolete database folder: {}", name);
fs::remove_dir_all(entry.path())?;
}
}
Ok(())
}
pub fn compute(
&mut self,
indexer: &Indexer,
starting_indexes: brk_indexer::Indexes,
reader: &Reader,
exit: &Exit,
) -> Result<()> {
let compute_start = Instant::now();
// 1. Indexes (absorbs blocks.time.compute — timestamp_monotonic)
info!("Computing indexes...");
let i = Instant::now();
let mut starting_indexes =
self.indexes
.compute(indexer, &mut self.blocks, starting_indexes, exit)?;
info!("Computed indexes in {:?}", i.elapsed());
// 2. Prices
info!("Computing prices...");
let i = Instant::now();
self.prices
.compute(indexer, &self.indexes, &starting_indexes, exit)?;
info!("Computed prices in {:?}", i.elapsed());
// 3. Main scope
thread::scope(|scope| -> Result<()> {
let positions = scope.spawn(|| -> Result<()> {
info!("Computing positions metadata...");
let i = Instant::now();
self.positions
.compute(indexer, &starting_indexes, reader, exit)?;
info!("Computed positions in {:?}", i.elapsed());
Ok(())
});
// Blocks first (needed for window starts used by scripts, transactions, etc.)
info!("Computing blocks...");
let i = Instant::now();
self.blocks
.compute(indexer, &self.indexes, &starting_indexes, exit)?;
info!("Computed blocks in {:?}", i.elapsed());
// Inputs → scripts → outputs (sequential)
info!("Computing inputs...");
let i = Instant::now();
self.inputs.compute(
indexer,
&self.indexes,
&self.blocks,
&starting_indexes,
exit,
)?;
info!("Computed inputs in {:?}", i.elapsed());
info!("Computing scripts...");
let i = Instant::now();
self.scripts.compute(
indexer,
&self.blocks,
&self.outputs,
&self.prices,
&starting_indexes,
exit,
)?;
info!("Computed scripts in {:?}", i.elapsed());
info!("Computing outputs...");
let i = Instant::now();
self.outputs.compute(
indexer,
&self.indexes,
&self.inputs,
&self.scripts,
&self.blocks,
&starting_indexes,
exit,
)?;
info!("Computed outputs in {:?}", i.elapsed());
// Transactions (needs blocks for count/interval, prices for USD conversion)
info!("Computing transactions...");
let i = Instant::now();
self.transactions.compute(
indexer,
&self.indexes,
&self.blocks,
&self.inputs,
&self.outputs,
&self.prices,
&starting_indexes,
exit,
)?;
info!("Computed transactions in {:?}", i.elapsed());
// Mining (needs blocks + transactions)
info!("Computing mining...");
let i = Instant::now();
self.mining.compute(
indexer,
&self.indexes,
&self.blocks,
&self.transactions,
&self.prices,
&starting_indexes,
exit,
)?;
info!("Computed mining in {:?}", i.elapsed());
positions.join().unwrap()?;
Ok(())
})?;
if true {
return Ok(());
}
// 4. Pools || distribution
let starting_indexes_clone = starting_indexes.clone();
thread::scope(|scope| -> Result<()> {
let pools = scope.spawn(|| -> Result<()> {
info!("Computing pools...");
let i = Instant::now();
self.pools.compute(
indexer,
&self.indexes,
&self.blocks,
&self.prices,
&self.mining,
&starting_indexes_clone,
exit,
)?;
info!("Computed pools in {:?}", i.elapsed());
Ok(())
});
info!("Computing distribution...");
let i = Instant::now();
self.distribution.compute(
indexer,
&self.indexes,
&self.inputs,
&self.outputs,
&self.transactions,
&self.blocks,
&self.prices,
&mut starting_indexes,
exit,
)?;
info!("Computed distribution in {:?}", i.elapsed());
pools.join().unwrap()?;
Ok(())
})?;
// 5. Market and supply are independent — both depend on distribution but not each other
thread::scope(|scope| -> Result<()> {
let market = scope.spawn(|| -> Result<()> {
info!("Computing market...");
let i = Instant::now();
self.market.compute(
&self.indexes,
&self.prices,
&self.blocks,
&self.mining,
&self.distribution,
&self.transactions,
&starting_indexes,
exit,
)?;
info!("Computed market in {:?}", i.elapsed());
Ok(())
});
info!("Computing supply...");
let i = Instant::now();
self.supply.compute(
&self.scripts,
&self.blocks,
&self.mining,
&self.transactions,
&self.prices,
&self.distribution,
&starting_indexes,
exit,
)?;
info!("Computed supply in {:?}", i.elapsed());
market.join().unwrap()?;
Ok(())
})?;
// 6. Cointime (depends on supply, distribution, mining)
info!("Computing cointime...");
let i = Instant::now();
self.cointime.compute(
&starting_indexes,
&self.prices,
&self.blocks,
&self.mining,
&self.supply,
&self.distribution,
exit,
)?;
info!("Computed cointime in {:?}", i.elapsed());
info!("Total compute time: {:?}", compute_start.elapsed());
Ok(())
}
}
impl Computer<Ro> {
/// Iterate over all exportable vecs with their database name.
pub fn iter_named_exportable(
&self,
) -> impl Iterator<Item = (&'static str, &dyn vecdb::AnyExportableVec)> {
use brk_traversable::Traversable;
std::iter::empty()
.chain(
self.blocks
.iter_any_exportable()
.map(|v| (blocks::DB_NAME, v)),
)
.chain(
self.mining
.iter_any_exportable()
.map(|v| (mining::DB_NAME, v)),
)
.chain(
self.transactions
.iter_any_exportable()
.map(|v| (transactions::DB_NAME, v)),
)
.chain(
self.scripts
.iter_any_exportable()
.map(|v| (scripts::DB_NAME, v)),
)
.chain(
self.positions
.iter_any_exportable()
.map(|v| (positions::DB_NAME, v)),
)
.chain(
self.cointime
.iter_any_exportable()
.map(|v| (cointime::DB_NAME, v)),
)
.chain(
self.constants
.iter_any_exportable()
.map(|v| (constants::DB_NAME, v)),
)
.chain(
self.indexes
.iter_any_exportable()
.map(|v| (indexes::DB_NAME, v)),
)
.chain(
self.market
.iter_any_exportable()
.map(|v| (market::DB_NAME, v)),
)
.chain(
self.pools
.iter_any_exportable()
.map(|v| (pools::DB_NAME, v)),
)
.chain(
self.prices
.iter_any_exportable()
.map(|v| (prices::DB_NAME, v)),
)
.chain(
self.distribution
.iter_any_exportable()
.map(|v| (distribution::DB_NAME, v)),
)
.chain(
self.supply
.iter_any_exportable()
.map(|v| (supply::DB_NAME, v)),
)
.chain(
self.inputs
.iter_any_exportable()
.map(|v| (inputs::DB_NAME, v)),
)
.chain(
self.outputs
.iter_any_exportable()
.map(|v| (outputs::DB_NAME, v)),
)
}
}