MeiliSearch/crates/index-scheduler/src/utils.rs

938 lines
36 KiB
Rust

//! Utility functions on the DBs. Mainly getter and setters.
use std::collections::{BTreeSet, HashSet};
use std::ops::Bound;
use meilisearch_types::batches::{Batch, BatchId, BatchStats};
use meilisearch_types::heed::types::DecodeIgnore;
use meilisearch_types::heed::{Database, RoTxn, RwTxn};
use meilisearch_types::milli::CboRoaringBitmapCodec;
use meilisearch_types::task_view::DetailsView;
use meilisearch_types::tasks::{Details, IndexSwap, Kind, KindWithContent, Status};
use roaring::{MultiOps, RoaringBitmap};
use time::OffsetDateTime;
use crate::{Error, IndexScheduler, ProcessingTasks, Result, Task, TaskId, BEI128};
/// This structure contains all the information required to write a batch in the database without reading the tasks.
/// It'll stay in RAM so it must be small.
/// The usage is the following:
/// 1. Create the structure with its batch id.
/// 2. Call `processing` on all the task that we know are currently processing in the batch (it can change in the future)
/// 3. Call `finished` once the batch has been processed.
/// 4. Call `update` on all the tasks.
#[derive(Debug, Clone)]
pub(crate) struct ProcessingBatch {
pub uid: BatchId,
pub details: DetailsView,
pub stats: BatchStats,
pub statuses: HashSet<Status>,
pub kinds: HashSet<Kind>,
pub indexes: HashSet<String>,
pub canceled_by: HashSet<TaskId>,
pub oldest_enqueued_at: Option<OffsetDateTime>,
pub earliest_enqueued_at: Option<OffsetDateTime>,
pub started_at: OffsetDateTime,
pub finished_at: Option<OffsetDateTime>,
}
impl ProcessingBatch {
pub fn new(uid: BatchId) -> Self {
// At the beginning, all the tasks are processing
let mut statuses = HashSet::default();
statuses.insert(Status::Processing);
Self {
uid,
details: DetailsView::default(),
stats: BatchStats::default(),
statuses,
kinds: HashSet::default(),
indexes: HashSet::default(),
canceled_by: HashSet::default(),
oldest_enqueued_at: None,
earliest_enqueued_at: None,
started_at: OffsetDateTime::now_utc(),
finished_at: None,
}
}
/// Update itself with the content of the task and update the batch id in the task.
pub fn processing<'a>(&mut self, tasks: impl IntoIterator<Item = &'a mut Task>) {
for task in tasks.into_iter() {
self.stats.total_nb_tasks += 1;
task.batch_uid = Some(self.uid);
// We don't store the statuses in the map since they're all enqueued but we must
// still store them in the stats since that can be displayed.
*self.stats.status.entry(task.status).or_default() += 1;
self.kinds.insert(task.kind.as_kind());
*self.stats.types.entry(task.kind.as_kind()).or_default() += 1;
self.indexes.extend(task.indexes().iter().map(|s| s.to_string()));
if let Some(index_uid) = task.index_uid() {
*self.stats.index_uids.entry(index_uid.to_string()).or_default() += 1;
}
if let Some(ref details) = task.details {
self.details.accumulate(&DetailsView::from(details.clone()));
}
if let Some(canceled_by) = task.canceled_by {
self.canceled_by.insert(canceled_by);
}
self.oldest_enqueued_at =
Some(self.oldest_enqueued_at.map_or(task.enqueued_at, |oldest_enqueued_at| {
task.enqueued_at.min(oldest_enqueued_at)
}));
self.earliest_enqueued_at =
Some(self.earliest_enqueued_at.map_or(task.enqueued_at, |earliest_enqueued_at| {
task.enqueued_at.max(earliest_enqueued_at)
}));
}
}
/// Must be called once the batch has finished processing.
pub fn finished(&mut self) {
self.details = DetailsView::default();
self.stats = BatchStats::default();
self.finished_at = Some(OffsetDateTime::now_utc());
// Initially we inserted ourselves as a processing batch, that's not the case anymore.
self.statuses.clear();
// We're going to recount the number of tasks AFTER processing the batch because
// tasks may add themselves to a batch while its processing.
self.stats.total_nb_tasks = 0;
}
/// Update the timestamp of the tasks and the inner structure of this sturcture.
pub fn update(&mut self, task: &mut Task) {
// We must re-set this value in case we're dealing with a task that has been added between
// the `processing` and `finished` state
// We must re-set this value in case we're dealing with a task that has been added between
// the `processing` and `finished` state or that failed.
task.batch_uid = Some(self.uid);
// Same
task.started_at = Some(self.started_at);
task.finished_at = self.finished_at;
self.statuses.insert(task.status);
// Craft an aggregation of the details of all the tasks encountered in this batch.
if let Some(ref details) = task.details {
self.details.accumulate(&DetailsView::from(details.clone()));
}
self.stats.total_nb_tasks += 1;
*self.stats.status.entry(task.status).or_default() += 1;
*self.stats.types.entry(task.kind.as_kind()).or_default() += 1;
if let Some(index_uid) = task.index_uid() {
*self.stats.index_uids.entry(index_uid.to_string()).or_default() += 1;
}
}
pub fn to_batch(&self) -> Batch {
Batch {
uid: self.uid,
details: self.details.clone(),
stats: self.stats.clone(),
started_at: self.started_at,
finished_at: self.finished_at,
}
}
}
impl IndexScheduler {
pub(crate) fn all_task_ids(&self, rtxn: &RoTxn) -> Result<RoaringBitmap> {
enum_iterator::all().map(|s| self.get_status(rtxn, s)).union()
}
pub(crate) fn all_batch_ids(&self, rtxn: &RoTxn) -> Result<RoaringBitmap> {
enum_iterator::all().map(|s| self.get_batch_status(rtxn, s)).union()
}
pub(crate) fn last_task_id(&self, rtxn: &RoTxn) -> Result<Option<TaskId>> {
Ok(self.all_tasks.remap_data_type::<DecodeIgnore>().last(rtxn)?.map(|(k, _)| k + 1))
}
pub(crate) fn next_task_id(&self, rtxn: &RoTxn) -> Result<TaskId> {
Ok(self.last_task_id(rtxn)?.unwrap_or_default())
}
pub(crate) fn next_batch_id(&self, rtxn: &RoTxn) -> Result<BatchId> {
Ok(self
.all_batches
.remap_data_type::<DecodeIgnore>()
.last(rtxn)?
.map(|(k, _)| k + 1)
.unwrap_or_default())
}
pub(crate) fn get_task(&self, rtxn: &RoTxn, task_id: TaskId) -> Result<Option<Task>> {
Ok(self.all_tasks.get(rtxn, &task_id)?)
}
pub(crate) fn get_batch(&self, rtxn: &RoTxn, batch_id: BatchId) -> Result<Option<Batch>> {
Ok(self.all_batches.get(rtxn, &batch_id)?)
}
pub(crate) fn write_batch(
&self,
wtxn: &mut RwTxn,
batch: ProcessingBatch,
tasks: &RoaringBitmap,
) -> Result<()> {
self.all_batches.put(
wtxn,
&batch.uid,
&Batch {
uid: batch.uid,
details: batch.details,
stats: batch.stats,
started_at: batch.started_at,
finished_at: batch.finished_at,
},
)?;
self.batch_to_tasks_mapping.put(wtxn, &batch.uid, tasks)?;
for status in batch.statuses {
self.update_batch_status(wtxn, status, |bitmap| {
bitmap.insert(batch.uid);
})?;
}
for kind in batch.kinds {
self.update_batch_kind(wtxn, kind, |bitmap| {
bitmap.insert(batch.uid);
})?;
}
for index in batch.indexes {
self.update_batch_index(wtxn, &index, |bitmap| {
bitmap.insert(batch.uid);
})?;
}
if let Some(enqueued_at) = batch.oldest_enqueued_at {
insert_task_datetime(wtxn, self.batch_enqueued_at, enqueued_at, batch.uid)?;
}
if let Some(enqueued_at) = batch.earliest_enqueued_at {
insert_task_datetime(wtxn, self.batch_enqueued_at, enqueued_at, batch.uid)?;
}
insert_task_datetime(wtxn, self.batch_started_at, batch.started_at, batch.uid)?;
insert_task_datetime(wtxn, self.batch_finished_at, batch.finished_at.unwrap(), batch.uid)?;
Ok(())
}
/// Convert an iterator to a `Vec` of tasks and edit the `ProcessingBatch` to add the given tasks.
///
/// The tasks MUST exist, or a `CorruptedTaskQueue` error will be thrown.
pub(crate) fn get_existing_tasks_for_processing_batch(
&self,
rtxn: &RoTxn,
processing_batch: &mut ProcessingBatch,
tasks: impl IntoIterator<Item = TaskId>,
) -> Result<Vec<Task>> {
tasks
.into_iter()
.map(|task_id| {
let mut task = self
.get_task(rtxn, task_id)
.and_then(|task| task.ok_or(Error::CorruptedTaskQueue));
processing_batch.processing(&mut task);
task
})
.collect::<Result<_>>()
}
/// Convert an iterator to a `Vec` of tasks. The tasks MUST exist or a
/// `CorruptedTaskQueue` error will be thrown.
pub(crate) fn get_existing_tasks(
&self,
rtxn: &RoTxn,
tasks: impl IntoIterator<Item = TaskId>,
) -> Result<Vec<Task>> {
tasks
.into_iter()
.map(|task_id| {
self.get_task(rtxn, task_id).and_then(|task| task.ok_or(Error::CorruptedTaskQueue))
})
.collect::<Result<_>>()
}
/// Convert an iterator to a `Vec` of batches. The batches MUST exist or a
/// `CorruptedTaskQueue` error will be thrown.
pub(crate) fn get_existing_batches(
&self,
rtxn: &RoTxn,
processing: &ProcessingTasks,
tasks: impl IntoIterator<Item = BatchId>,
) -> Result<Vec<Batch>> {
tasks
.into_iter()
.map(|batch_id| {
if Some(batch_id) == processing.batch.as_ref().map(|batch| batch.uid) {
Ok(processing.batch.as_ref().unwrap().to_batch())
} else {
self.get_batch(rtxn, batch_id)
.and_then(|task| task.ok_or(Error::CorruptedTaskQueue))
}
})
.collect::<Result<_>>()
}
pub(crate) fn update_task(&self, wtxn: &mut RwTxn, task: &Task) -> Result<()> {
let old_task = self.get_task(wtxn, task.uid)?.ok_or(Error::CorruptedTaskQueue)?;
debug_assert!(old_task != *task);
debug_assert_eq!(old_task.uid, task.uid);
debug_assert!(old_task.batch_uid.is_none() && task.batch_uid.is_some());
if old_task.status != task.status {
self.update_status(wtxn, old_task.status, |bitmap| {
bitmap.remove(task.uid);
})?;
self.update_status(wtxn, task.status, |bitmap| {
bitmap.insert(task.uid);
})?;
}
if old_task.kind.as_kind() != task.kind.as_kind() {
self.update_kind(wtxn, old_task.kind.as_kind(), |bitmap| {
bitmap.remove(task.uid);
})?;
self.update_kind(wtxn, task.kind.as_kind(), |bitmap| {
bitmap.insert(task.uid);
})?;
}
assert_eq!(
old_task.enqueued_at, task.enqueued_at,
"Cannot update a task's enqueued_at time"
);
if old_task.started_at != task.started_at {
assert!(old_task.started_at.is_none(), "Cannot update a task's started_at time");
if let Some(started_at) = task.started_at {
insert_task_datetime(wtxn, self.started_at, started_at, task.uid)?;
}
}
if old_task.finished_at != task.finished_at {
assert!(old_task.finished_at.is_none(), "Cannot update a task's finished_at time");
if let Some(finished_at) = task.finished_at {
insert_task_datetime(wtxn, self.finished_at, finished_at, task.uid)?;
}
}
self.all_tasks.put(wtxn, &task.uid, task)?;
Ok(())
}
/// Returns the whole set of tasks that belongs to this batch.
pub(crate) fn tasks_in_batch(&self, rtxn: &RoTxn, batch_id: BatchId) -> Result<RoaringBitmap> {
Ok(self.batch_to_tasks_mapping.get(rtxn, &batch_id)?.unwrap_or_default())
}
/// Returns the whole set of tasks that belongs to this index.
pub(crate) fn index_tasks(&self, rtxn: &RoTxn, index: &str) -> Result<RoaringBitmap> {
Ok(self.index_tasks.get(rtxn, index)?.unwrap_or_default())
}
pub(crate) fn update_index(
&self,
wtxn: &mut RwTxn,
index: &str,
f: impl Fn(&mut RoaringBitmap),
) -> Result<()> {
let mut tasks = self.index_tasks(wtxn, index)?;
f(&mut tasks);
if tasks.is_empty() {
self.index_tasks.delete(wtxn, index)?;
} else {
self.index_tasks.put(wtxn, index, &tasks)?;
}
Ok(())
}
/// Returns the whole set of batches that belongs to this index.
pub(crate) fn index_batches(&self, rtxn: &RoTxn, index: &str) -> Result<RoaringBitmap> {
Ok(self.batch_index_tasks.get(rtxn, index)?.unwrap_or_default())
}
pub(crate) fn update_batch_index(
&self,
wtxn: &mut RwTxn,
index: &str,
f: impl Fn(&mut RoaringBitmap),
) -> Result<()> {
let mut batches = self.index_batches(wtxn, index)?;
f(&mut batches);
if batches.is_empty() {
self.batch_index_tasks.delete(wtxn, index)?;
} else {
self.batch_index_tasks.put(wtxn, index, &batches)?;
}
Ok(())
}
pub(crate) fn get_status(&self, rtxn: &RoTxn, status: Status) -> Result<RoaringBitmap> {
Ok(self.status.get(rtxn, &status)?.unwrap_or_default())
}
pub(crate) fn put_status(
&self,
wtxn: &mut RwTxn,
status: Status,
bitmap: &RoaringBitmap,
) -> Result<()> {
Ok(self.status.put(wtxn, &status, bitmap)?)
}
pub(crate) fn update_status(
&self,
wtxn: &mut RwTxn,
status: Status,
f: impl Fn(&mut RoaringBitmap),
) -> Result<()> {
let mut tasks = self.get_status(wtxn, status)?;
f(&mut tasks);
self.put_status(wtxn, status, &tasks)?;
Ok(())
}
pub(crate) fn get_batch_status(&self, rtxn: &RoTxn, status: Status) -> Result<RoaringBitmap> {
Ok(self.batch_status.get(rtxn, &status)?.unwrap_or_default())
}
pub(crate) fn put_batch_status(
&self,
wtxn: &mut RwTxn,
status: Status,
bitmap: &RoaringBitmap,
) -> Result<()> {
Ok(self.batch_status.put(wtxn, &status, bitmap)?)
}
pub(crate) fn update_batch_status(
&self,
wtxn: &mut RwTxn,
status: Status,
f: impl Fn(&mut RoaringBitmap),
) -> Result<()> {
let mut tasks = self.get_batch_status(wtxn, status)?;
f(&mut tasks);
self.put_batch_status(wtxn, status, &tasks)?;
Ok(())
}
pub(crate) fn get_kind(&self, rtxn: &RoTxn, kind: Kind) -> Result<RoaringBitmap> {
Ok(self.kind.get(rtxn, &kind)?.unwrap_or_default())
}
pub(crate) fn put_kind(
&self,
wtxn: &mut RwTxn,
kind: Kind,
bitmap: &RoaringBitmap,
) -> Result<()> {
Ok(self.kind.put(wtxn, &kind, bitmap)?)
}
pub(crate) fn update_kind(
&self,
wtxn: &mut RwTxn,
kind: Kind,
f: impl Fn(&mut RoaringBitmap),
) -> Result<()> {
let mut tasks = self.get_kind(wtxn, kind)?;
f(&mut tasks);
self.put_kind(wtxn, kind, &tasks)?;
Ok(())
}
pub(crate) fn get_batch_kind(&self, rtxn: &RoTxn, kind: Kind) -> Result<RoaringBitmap> {
Ok(self.batch_kind.get(rtxn, &kind)?.unwrap_or_default())
}
pub(crate) fn put_batch_kind(
&self,
wtxn: &mut RwTxn,
kind: Kind,
bitmap: &RoaringBitmap,
) -> Result<()> {
Ok(self.batch_kind.put(wtxn, &kind, bitmap)?)
}
pub(crate) fn update_batch_kind(
&self,
wtxn: &mut RwTxn,
kind: Kind,
f: impl Fn(&mut RoaringBitmap),
) -> Result<()> {
let mut tasks = self.get_batch_kind(wtxn, kind)?;
f(&mut tasks);
self.put_batch_kind(wtxn, kind, &tasks)?;
Ok(())
}
}
pub(crate) fn insert_task_datetime(
wtxn: &mut RwTxn,
database: Database<BEI128, CboRoaringBitmapCodec>,
time: OffsetDateTime,
task_id: TaskId,
) -> Result<()> {
let timestamp = time.unix_timestamp_nanos();
let mut task_ids = database.get(wtxn, &timestamp)?.unwrap_or_default();
task_ids.insert(task_id);
database.put(wtxn, &timestamp, &RoaringBitmap::from_iter(task_ids))?;
Ok(())
}
pub(crate) fn remove_task_datetime(
wtxn: &mut RwTxn,
database: Database<BEI128, CboRoaringBitmapCodec>,
time: OffsetDateTime,
task_id: TaskId,
) -> Result<()> {
let timestamp = time.unix_timestamp_nanos();
if let Some(mut existing) = database.get(wtxn, &timestamp)? {
existing.remove(task_id);
if existing.is_empty() {
database.delete(wtxn, &timestamp)?;
} else {
database.put(wtxn, &timestamp, &RoaringBitmap::from_iter(existing))?;
}
}
Ok(())
}
pub(crate) fn keep_ids_within_datetimes(
rtxn: &RoTxn,
ids: &mut RoaringBitmap,
database: Database<BEI128, CboRoaringBitmapCodec>,
after: Option<OffsetDateTime>,
before: Option<OffsetDateTime>,
) -> Result<()> {
let (start, end) = match (&after, &before) {
(None, None) => return Ok(()),
(None, Some(before)) => (Bound::Unbounded, Bound::Excluded(*before)),
(Some(after), None) => (Bound::Excluded(*after), Bound::Unbounded),
(Some(after), Some(before)) => (Bound::Excluded(*after), Bound::Excluded(*before)),
};
let mut collected_ids = RoaringBitmap::new();
let start = map_bound(start, |b| b.unix_timestamp_nanos());
let end = map_bound(end, |b| b.unix_timestamp_nanos());
let iter = database.range(rtxn, &(start, end))?;
for r in iter {
let (_timestamp, ids) = r?;
collected_ids |= ids;
}
*ids &= collected_ids;
Ok(())
}
// TODO: remove when Bound::map ( https://github.com/rust-lang/rust/issues/86026 ) is available on stable
pub(crate) fn map_bound<T, U>(bound: Bound<T>, map: impl FnOnce(T) -> U) -> Bound<U> {
match bound {
Bound::Included(x) => Bound::Included(map(x)),
Bound::Excluded(x) => Bound::Excluded(map(x)),
Bound::Unbounded => Bound::Unbounded,
}
}
pub fn swap_index_uid_in_task(task: &mut Task, swap: (&str, &str)) {
use KindWithContent as K;
let mut index_uids = vec![];
match &mut task.kind {
K::DocumentAdditionOrUpdate { index_uid, .. } => index_uids.push(index_uid),
K::DocumentEdition { index_uid, .. } => index_uids.push(index_uid),
K::DocumentDeletion { index_uid, .. } => index_uids.push(index_uid),
K::DocumentDeletionByFilter { index_uid, .. } => index_uids.push(index_uid),
K::DocumentClear { index_uid } => index_uids.push(index_uid),
K::SettingsUpdate { index_uid, .. } => index_uids.push(index_uid),
K::IndexDeletion { index_uid } => index_uids.push(index_uid),
K::IndexCreation { index_uid, .. } => index_uids.push(index_uid),
K::IndexUpdate { index_uid, .. } => index_uids.push(index_uid),
K::IndexSwap { swaps } => {
for IndexSwap { indexes: (lhs, rhs) } in swaps.iter_mut() {
if lhs == swap.0 || lhs == swap.1 {
index_uids.push(lhs);
}
if rhs == swap.0 || rhs == swap.1 {
index_uids.push(rhs);
}
}
}
K::TaskCancelation { .. }
| K::TaskDeletion { .. }
| K::DumpCreation { .. }
| K::SnapshotCreation => (),
};
if let Some(Details::IndexSwap { swaps }) = &mut task.details {
for IndexSwap { indexes: (lhs, rhs) } in swaps.iter_mut() {
if lhs == swap.0 || lhs == swap.1 {
index_uids.push(lhs);
}
if rhs == swap.0 || rhs == swap.1 {
index_uids.push(rhs);
}
}
}
for index_uid in index_uids {
if index_uid == swap.0 {
swap.1.clone_into(index_uid);
} else if index_uid == swap.1 {
swap.0.clone_into(index_uid);
}
}
}
/// Remove references to task ids that are greater than the id of the given task.
pub(crate) fn filter_out_references_to_newer_tasks(task: &mut Task) {
let new_nbr_of_matched_tasks = match &mut task.kind {
KindWithContent::TaskCancelation { tasks, .. }
| KindWithContent::TaskDeletion { tasks, .. } => {
tasks.remove_range(task.uid..);
tasks.len()
}
_ => return,
};
if let Some(
Details::TaskCancelation { matched_tasks, .. }
| Details::TaskDeletion { matched_tasks, .. },
) = &mut task.details
{
*matched_tasks = new_nbr_of_matched_tasks;
}
}
pub(crate) fn check_index_swap_validity(task: &Task) -> Result<()> {
let swaps =
if let KindWithContent::IndexSwap { swaps } = &task.kind { swaps } else { return Ok(()) };
let mut all_indexes = HashSet::new();
let mut duplicate_indexes = BTreeSet::new();
for IndexSwap { indexes: (lhs, rhs) } in swaps {
for name in [lhs, rhs] {
let is_new = all_indexes.insert(name);
if !is_new {
duplicate_indexes.insert(name);
}
}
}
if !duplicate_indexes.is_empty() {
if duplicate_indexes.len() == 1 {
return Err(Error::SwapDuplicateIndexFound(
duplicate_indexes.into_iter().next().unwrap().clone(),
));
} else {
return Err(Error::SwapDuplicateIndexesFound(
duplicate_indexes.into_iter().cloned().collect(),
));
}
}
Ok(())
}
/// Clamp the provided value to be a multiple of system page size.
pub fn clamp_to_page_size(size: usize) -> usize {
size / page_size::get() * page_size::get()
}
#[cfg(test)]
impl IndexScheduler {
/// Asserts that the index scheduler's content is internally consistent.
pub fn assert_internally_consistent(&self) {
let rtxn = self.env.read_txn().unwrap();
for task in self.all_tasks.iter(&rtxn).unwrap() {
let (task_id, task) = task.unwrap();
let task_index_uid = task.index_uid().map(ToOwned::to_owned);
let Task {
uid,
batch_uid,
enqueued_at,
started_at,
finished_at,
error: _,
canceled_by,
details,
status,
kind,
} = task;
assert_eq!(uid, task.uid);
if let Some(ref batch) = batch_uid {
assert!(self
.batch_to_tasks_mapping
.get(&rtxn, batch)
.unwrap()
.unwrap()
.contains(uid));
}
if let Some(task_index_uid) = &task_index_uid {
assert!(self
.index_tasks
.get(&rtxn, task_index_uid.as_str())
.unwrap()
.unwrap()
.contains(task.uid));
}
let db_enqueued_at =
self.enqueued_at.get(&rtxn, &enqueued_at.unix_timestamp_nanos()).unwrap().unwrap();
assert!(db_enqueued_at.contains(task_id));
if let Some(started_at) = started_at {
let db_started_at = self
.started_at
.get(&rtxn, &started_at.unix_timestamp_nanos())
.unwrap()
.unwrap();
assert!(db_started_at.contains(task_id));
}
if let Some(finished_at) = finished_at {
let db_finished_at = self
.finished_at
.get(&rtxn, &finished_at.unix_timestamp_nanos())
.unwrap()
.unwrap();
assert!(db_finished_at.contains(task_id));
}
if let Some(canceled_by) = canceled_by {
let db_canceled_tasks = self.get_status(&rtxn, Status::Canceled).unwrap();
assert!(db_canceled_tasks.contains(uid));
let db_canceling_task = self.get_task(&rtxn, canceled_by).unwrap().unwrap();
assert_eq!(db_canceling_task.status, Status::Succeeded);
match db_canceling_task.kind {
KindWithContent::TaskCancelation { query: _, tasks } => {
assert!(tasks.contains(uid));
}
_ => panic!(),
}
}
if let Some(details) = details {
match details {
Details::IndexSwap { swaps: sw1 } => {
if let KindWithContent::IndexSwap { swaps: sw2 } = &kind {
assert_eq!(&sw1, sw2);
}
}
Details::DocumentAdditionOrUpdate { received_documents, indexed_documents } => {
assert_eq!(kind.as_kind(), Kind::DocumentAdditionOrUpdate);
match indexed_documents {
Some(indexed_documents) => {
assert!(matches!(
status,
Status::Succeeded | Status::Failed | Status::Canceled
));
match status {
Status::Succeeded => assert!(indexed_documents <= received_documents),
Status::Failed | Status::Canceled => assert_eq!(indexed_documents, 0),
status => panic!("DocumentAddition can't have an indexed_documents set if it's {}", status),
}
}
None => {
assert!(matches!(status, Status::Enqueued | Status::Processing))
}
}
}
Details::DocumentEdition { edited_documents, .. } => {
assert_eq!(kind.as_kind(), Kind::DocumentEdition);
match edited_documents {
Some(edited_documents) => {
assert!(matches!(
status,
Status::Succeeded | Status::Failed | Status::Canceled
));
match status {
Status::Succeeded => (),
Status::Failed | Status::Canceled => assert_eq!(edited_documents, 0),
status => panic!("DocumentEdition can't have an edited_documents set if it's {}", status),
}
}
None => {
assert!(matches!(status, Status::Enqueued | Status::Processing))
}
}
}
Details::SettingsUpdate { settings: _ } => {
assert_eq!(kind.as_kind(), Kind::SettingsUpdate);
}
Details::IndexInfo { primary_key: pk1 } => match &kind {
KindWithContent::IndexCreation { index_uid, primary_key: pk2 }
| KindWithContent::IndexUpdate { index_uid, primary_key: pk2 } => {
self.index_tasks
.get(&rtxn, index_uid.as_str())
.unwrap()
.unwrap()
.contains(uid);
assert_eq!(&pk1, pk2);
}
_ => panic!(),
},
Details::DocumentDeletion {
provided_ids: received_document_ids,
deleted_documents,
} => {
assert_eq!(kind.as_kind(), Kind::DocumentDeletion);
let (index_uid, documents_ids) =
if let KindWithContent::DocumentDeletion {
ref index_uid,
ref documents_ids,
} = kind
{
(index_uid, documents_ids)
} else {
unreachable!()
};
assert_eq!(&task_index_uid.unwrap(), index_uid);
match status {
Status::Enqueued | Status::Processing => (),
Status::Succeeded => {
assert!(deleted_documents.unwrap() <= received_document_ids as u64);
assert!(documents_ids.len() == received_document_ids);
}
Status::Failed | Status::Canceled => {
assert!(deleted_documents == Some(0));
assert!(documents_ids.len() == received_document_ids);
}
}
}
Details::DocumentDeletionByFilter { deleted_documents, original_filter: _ } => {
assert_eq!(kind.as_kind(), Kind::DocumentDeletion);
let (index_uid, _) = if let KindWithContent::DocumentDeletionByFilter {
ref index_uid,
ref filter_expr,
} = kind
{
(index_uid, filter_expr)
} else {
unreachable!()
};
assert_eq!(&task_index_uid.unwrap(), index_uid);
match status {
Status::Enqueued | Status::Processing => (),
Status::Succeeded => {
assert!(deleted_documents.is_some());
}
Status::Failed | Status::Canceled => {
assert!(deleted_documents == Some(0));
}
}
}
Details::ClearAll { deleted_documents } => {
assert!(matches!(
kind.as_kind(),
Kind::DocumentDeletion | Kind::IndexDeletion
));
if deleted_documents.is_some() {
assert_eq!(status, Status::Succeeded);
} else {
assert_ne!(status, Status::Succeeded);
}
}
Details::TaskCancelation { matched_tasks, canceled_tasks, original_filter } => {
if let Some(canceled_tasks) = canceled_tasks {
assert_eq!(status, Status::Succeeded);
assert!(canceled_tasks <= matched_tasks);
match &kind {
KindWithContent::TaskCancelation { query, tasks } => {
assert_eq!(query, &original_filter);
assert_eq!(tasks.len(), matched_tasks);
}
_ => panic!(),
}
} else {
assert_ne!(status, Status::Succeeded);
}
}
Details::TaskDeletion { matched_tasks, deleted_tasks, original_filter } => {
if let Some(deleted_tasks) = deleted_tasks {
assert_eq!(status, Status::Succeeded);
assert!(deleted_tasks <= matched_tasks);
match &kind {
KindWithContent::TaskDeletion { query, tasks } => {
assert_eq!(query, &original_filter);
assert_eq!(tasks.len(), matched_tasks);
}
_ => panic!(),
}
} else {
assert_ne!(status, Status::Succeeded);
}
}
Details::Dump { dump_uid: _ } => {
assert_eq!(kind.as_kind(), Kind::DumpCreation);
}
}
}
assert!(self.get_status(&rtxn, status).unwrap().contains(uid));
assert!(self.get_kind(&rtxn, kind.as_kind()).unwrap().contains(uid));
if let KindWithContent::DocumentAdditionOrUpdate { content_file, .. } = kind {
match status {
Status::Enqueued | Status::Processing => {
assert!(self
.file_store
.all_uuids()
.unwrap()
.any(|uuid| uuid.as_ref().unwrap() == &content_file),
"Could not find uuid `{content_file}` in the file_store. Available uuids are {:?}.",
self.file_store.all_uuids().unwrap().collect::<std::result::Result<Vec<_>, file_store::Error>>().unwrap(),
);
}
Status::Succeeded | Status::Failed | Status::Canceled => {
assert!(self
.file_store
.all_uuids()
.unwrap()
.all(|uuid| uuid.as_ref().unwrap() != &content_file));
}
}
}
}
}
}
pub fn dichotomic_search(start_point: usize, mut is_good: impl FnMut(usize) -> bool) -> usize {
let mut biggest_good = None;
let mut smallest_bad = None;
let mut current = start_point;
loop {
let is_good = is_good(current);
(biggest_good, smallest_bad, current) = match (biggest_good, smallest_bad, is_good) {
(None, None, false) => (None, Some(current), current / 2),
(None, None, true) => (Some(current), None, current * 2),
(None, Some(smallest_bad), true) => {
(Some(current), Some(smallest_bad), (current + smallest_bad) / 2)
}
(None, Some(_), false) => (None, Some(current), current / 2),
(Some(_), None, true) => (Some(current), None, current * 2),
(Some(biggest_good), None, false) => {
(Some(biggest_good), Some(current), (biggest_good + current) / 2)
}
(Some(_), Some(smallest_bad), true) => {
(Some(current), Some(smallest_bad), (smallest_bad + current) / 2)
}
(Some(biggest_good), Some(_), false) => {
(Some(biggest_good), Some(current), (biggest_good + current) / 2)
}
};
if current == 0 {
return current;
}
if smallest_bad.is_some() && biggest_good.is_some() && biggest_good >= Some(current) {
return current;
}
}
}