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Author SHA1 Message Date
copilot-swe-agent[bot]
bebdae5a08 Add comprehensive migration summary document
Co-authored-by: tgrabiec <283695+tgrabiec@users.noreply.github.com>
2025-12-06 00:36:12 +00:00
copilot-swe-agent[bot]
32d20e0481 Add comprehensive RPC migration plan documentation
Co-authored-by: tgrabiec <283695+tgrabiec@users.noreply.github.com>
2025-12-06 00:35:11 +00:00
copilot-swe-agent[bot]
6422477d63 Add tests for position_range utility functions
Co-authored-by: tgrabiec <283695+tgrabiec@users.noreply.github.com>
2025-12-06 00:33:25 +00:00
copilot-swe-agent[bot]
85b9957e00 Add position_range utility helpers for safe range operations
Co-authored-by: tgrabiec <283695+tgrabiec@users.noreply.github.com>
2025-12-06 00:31:01 +00:00
copilot-swe-agent[bot]
1057ebb185 Add position_range feature and fix clustering_range deoverlap issues
- Add position_range feature flag to gms::feature_service
- Add position_range IDL definition for RPC serialization
- Fix deoverlap bug in cas_request.cc using clustering_interval_set
- Fix deoverlap bug in view.cc using clustering_interval_set
- Add comprehensive migration documentation

Co-authored-by: tgrabiec <283695+tgrabiec@users.noreply.github.com>
2025-12-06 00:28:52 +00:00
copilot-swe-agent[bot]
67ff59b94b Initial plan 2025-12-06 00:20:13 +00:00
79 changed files with 2066 additions and 1198 deletions

1
.github/CODEOWNERS vendored
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@@ -57,6 +57,7 @@ repair/* @tgrabiec @asias
# SCHEMA MANAGEMENT
db/schema_tables* @tgrabiec
db/legacy_schema_migrator* @tgrabiec
service/migration* @tgrabiec
schema* @tgrabiec

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@@ -0,0 +1,194 @@
# Clustering Range to Position Range Migration - Summary
## Problem Statement
The `clustering_range` type (alias for `interval<clustering_key_prefix>`) has known correctness issues with operations like `intersection()` and `deoverlap()`. These operations can return incorrect results due to the complex semantics of comparing clustering key prefixes with different bound inclusiveness.
**Related Issues:**
- #22817 - `interval<clustering_key_prefix>::deoverlap` can return incorrect results
- #21604 - Problems with clustering range operations
- #8157 - `interval<clustering_key_prefix_view>::intersection` can return incorrect results
## Solution Approach
The `position_range` class represents clustering ranges as a pair of `position_in_partition` objects, avoiding the problematic interval semantics. The migration strategy involves:
1. **Fix critical bugs immediately** - Use `clustering_interval_set` which internally uses `position_range`
2. **Add infrastructure** - Feature flags, IDL support, utility functions
3. **Gradual internal migration** - Replace internal uses of `clustering_range` with `position_range`
4. **RPC compatibility** - Maintain backward compatibility with feature-gated new verbs
## What Has Been Done
### 1. Feature Flag ✅
Added `gms::feature position_range` to `gms/feature_service.hh` for cluster-wide feature detection.
### 2. IDL Support ✅
Added `position_range` to `idl/position_in_partition.idl.hh` for RPC serialization:
```idl
class position_range {
position_in_partition start();
position_in_partition end();
};
```
### 3. Critical Bug Fixes ✅
#### Fixed in `cql3/statements/cas_request.cc`:
```cpp
// OLD (buggy):
ranges = query::clustering_range::deoverlap(std::move(ranges), clustering_key::tri_compare(*_schema));
// NEW (fixed):
clustering_interval_set interval_set(*_schema, ranges);
ranges = interval_set.to_clustering_row_ranges();
```
#### Fixed in `db/view/view.cc`:
```cpp
// OLD (buggy):
auto deoverlapped_ranges = interval<clustering_key_prefix_view>::deoverlap(std::move(row_ranges), cmp);
// NEW (fixed):
clustering_interval_set interval_set(base, temp_ranges);
return interval_set.to_clustering_row_ranges();
```
### 4. Utility Functions ✅
Created `query/position_range_utils.hh` with safe range operation helpers:
- `clustering_row_ranges_to_position_ranges()` - Batch conversion
- `position_ranges_to_clustering_row_ranges()` - Batch conversion back
- `deoverlap_clustering_row_ranges()` - Safe deoverlap using clustering_interval_set
- `intersect_clustering_row_ranges()` - Safe intersection using clustering_interval_set
### 5. Tests ✅
Added comprehensive unit tests in `test/boost/position_range_utils_test.cc`:
- Test deoverlap with overlapping and non-overlapping ranges
- Test conversion between clustering_range and position_range
- Test intersection operations
- Validate correctness of utility functions
### 6. Documentation ✅
- **Migration guide**: `docs/dev/clustering-range-to-position-range-migration.md`
- Overview of the problem and solution
- Conversion utilities and patterns
- Implementation checklist
- **RPC migration plan**: `docs/dev/position-range-rpc-migration.md`
- Detailed plan for backward-compatible RPC migration
- IDL type definitions for v2 types
- Feature-gated verb selection logic
- Phased rollout strategy
## What Remains To Be Done
### Phase 1: RPC Migration (High Priority)
1. Define `partition_slice_v2` with `std::vector<position_range>`
2. Define `read_command_v2` using `partition_slice_v2`
3. Add new RPC verbs: `read_data_v2`, `read_mutation_data_v2`, `read_digest_v2`
4. Implement conversion between v1 and v2 types
5. Add feature-gated verb selection in RPC clients
6. Test backward compatibility
### Phase 2: Internal Refactoring (Ongoing)
1. Identify internal data structures using `clustering_range`
2. Refactor to use `position_range` where appropriate
3. Update mutation readers and iterators
4. Modify query processing logic
5. Update cache structures
### Phase 3: Validation (Continuous)
1. Build and run existing tests
2. Add more tests for edge cases
3. Performance benchmarking
4. Rolling upgrade testing
## Files Changed
### Core Changes
- `gms/feature_service.hh` - Added position_range feature flag
- `idl/position_in_partition.idl.hh` - Added position_range IDL definition
- `cql3/statements/cas_request.cc` - Fixed deoverlap bug
- `db/view/view.cc` - Fixed deoverlap bug, enhanced documentation
### New Files
- `query/position_range_utils.hh` - Utility functions for safe range operations
- `test/boost/position_range_utils_test.cc` - Unit tests for utilities
### Documentation
- `docs/dev/clustering-range-to-position-range-migration.md` - Migration guide
- `docs/dev/position-range-rpc-migration.md` - RPC migration plan
- `CLUSTERING_RANGE_MIGRATION.md` - This summary document
## Impact and Benefits
### Immediate Benefits ✅
- **Fixed critical bugs**: Two production code bugs in `cas_request.cc` and `view.cc` that could cause incorrect query results
- **Safe operations**: Developers can now use utility functions that guarantee correct deoverlap and intersection
- **Future-proof**: Infrastructure is in place for gradual migration
### Future Benefits 🔄
- **Correctness**: All clustering range operations will be correct by construction
- **Maintainability**: Clearer code using position_range instead of complex interval semantics
- **Performance**: Potential optimizations from simpler position-based comparisons
## Testing Strategy
### Unit Tests ✅
- `test/boost/position_range_utils_test.cc` validates utility functions
- Existing tests in `test/boost/mutation_test.cc` use clustering_interval_set
- Tests in `test/boost/mvcc_test.cc` validate clustering_interval_set behavior
### Integration Testing (To Do)
- Test RPC backward compatibility during rolling upgrades
- Test mixed-version clusters
- Validate query correctness with position_range
### Performance Testing (To Do)
- Benchmark conversion overhead
- Compare memory usage
- Measure query latency impact
## Migration Timeline
- **Week 1-2**: ✅ Foundation and critical bug fixes (COMPLETED)
- Feature flag
- IDL support
- Bug fixes in cas_request.cc and view.cc
- Utility functions and tests
- Documentation
- **Week 3-4**: 🔄 RPC migration (IN PROGRESS)
- Define v2 IDL types
- Implement new RPC verbs
- Add feature-gated selection
- **Week 5-8**: 🔄 Internal refactoring (PLANNED)
- Systematic replacement in internal code
- Update readers and iterators
- Performance validation
- **Week 9+**: 🔄 Validation and rollout (PLANNED)
- Comprehensive testing
- Rolling upgrade validation
- Production deployment
## Key Takeaways
1. **clustering_interval_set is your friend**: When working with clustering ranges, use clustering_interval_set for set operations instead of raw interval operations.
2. **Use utility functions**: The helpers in `query/position_range_utils.hh` provide safe alternatives to buggy operations.
3. **RPC requires care**: Backward compatibility is critical. Always use feature flags for RPC changes.
4. **Incremental approach**: This is a large refactoring. Do it incrementally, with tests at each step.
5. **Document as you go**: Good documentation (like this) helps future developers understand the context and rationale.
## References
- `mutation/position_in_partition.hh` - position_range definition
- `keys/clustering_interval_set.hh` - Safe clustering range operations
- `query/query-request.hh` - clustering_range definition and warnings
- Issues: #22817, #21604, #8157
- Feature service: `gms/feature_service.hh`

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@@ -2223,12 +2223,12 @@ void validate_value(const rjson::value& v, const char* caller) {
// The put_or_delete_item class builds the mutations needed by the PutItem and
// DeleteItem operations - either as stand-alone commands or part of a list
// of commands in BatchWriteItem.
// of commands in BatchWriteItems.
// put_or_delete_item splits each operation into two stages: Constructing the
// object parses and validates the user input (throwing exceptions if there
// are input errors). Later, build() generates the actual mutation, with a
// specified timestamp. This split is needed because of the peculiar needs of
// BatchWriteItem and LWT. BatchWriteItem needs all parsing to happen before
// BatchWriteItems and LWT. BatchWriteItems needs all parsing to happen before
// any writing happens (if one of the commands has an error, none of the
// writes should be done). LWT makes it impossible for the parse step to
// generate "mutation" objects, because the timestamp still isn't known.
@@ -2739,7 +2739,7 @@ future<executor::request_return_type> rmw_operation::execute(service::storage_pr
auto read_command = needs_read_before_write ?
previous_item_read_command(proxy, schema(), _ck, selection) :
nullptr;
return proxy.cas(schema(), std::move(*cas_shard), *this, read_command, to_partition_ranges(*schema(), _pk),
return proxy.cas(schema(), std::move(*cas_shard), shared_from_this(), read_command, to_partition_ranges(*schema(), _pk),
{timeout, std::move(permit), client_state, trace_state},
db::consistency_level::LOCAL_SERIAL, db::consistency_level::LOCAL_QUORUM, timeout, timeout, true, std::move(cdc_opts)).then([this, read_command, &wcu_total] (bool is_applied) mutable {
if (!is_applied) {
@@ -3026,20 +3026,17 @@ struct primary_key_equal {
};
// This is a cas_request subclass for applying given put_or_delete_items to
// one partition using LWT as part as BatchWriteItem. This is a write-only
// one partition using LWT as part as BatchWriteItems. This is a write-only
// operation, not needing the previous value of the item (the mutation to be
// done is known prior to starting the operation). Nevertheless, we want to
// do this mutation via LWT to ensure that it is serialized with other LWT
// mutations to the same partition.
//
// The std::vector<put_or_delete_item> must remain alive until the
// storage_proxy::cas() future is resolved.
class put_or_delete_item_cas_request : public service::cas_request {
schema_ptr schema;
const std::vector<put_or_delete_item>& _mutation_builders;
std::vector<put_or_delete_item> _mutation_builders;
public:
put_or_delete_item_cas_request(schema_ptr s, const std::vector<put_or_delete_item>& b) :
schema(std::move(s)), _mutation_builders(b) { }
put_or_delete_item_cas_request(schema_ptr s, std::vector<put_or_delete_item>&& b) :
schema(std::move(s)), _mutation_builders(std::move(b)) { }
virtual ~put_or_delete_item_cas_request() = default;
virtual std::optional<mutation> apply(foreign_ptr<lw_shared_ptr<query::result>> qr, const query::partition_slice& slice, api::timestamp_type ts, cdc::per_request_options& cdc_opts) override {
std::optional<mutation> ret;
@@ -3055,21 +3052,20 @@ public:
}
};
static future<> cas_write(service::storage_proxy& proxy, schema_ptr schema, service::cas_shard cas_shard, const dht::decorated_key& dk, const std::vector<put_or_delete_item>& mutation_builders,
static future<> cas_write(service::storage_proxy& proxy, schema_ptr schema, service::cas_shard cas_shard, dht::decorated_key dk, std::vector<put_or_delete_item>&& mutation_builders,
service::client_state& client_state, tracing::trace_state_ptr trace_state, service_permit permit) {
auto timeout = executor::default_timeout();
auto op = std::make_unique<put_or_delete_item_cas_request>(schema, mutation_builders);
auto* op_ptr = op.get();
auto op = seastar::make_shared<put_or_delete_item_cas_request>(schema, std::move(mutation_builders));
auto cdc_opts = cdc::per_request_options{
.alternator = true,
.alternator_streams_increased_compatibility =
schema->cdc_options().enabled() && proxy.data_dictionary().get_config().alternator_streams_increased_compatibility(),
};
return proxy.cas(schema, std::move(cas_shard), *op_ptr, nullptr, to_partition_ranges(dk),
return proxy.cas(schema, std::move(cas_shard), op, nullptr, to_partition_ranges(dk),
{timeout, std::move(permit), client_state, trace_state},
db::consistency_level::LOCAL_SERIAL, db::consistency_level::LOCAL_QUORUM,
timeout, timeout, true, std::move(cdc_opts)).finally([op = std::move(op)]{}).discard_result();
// We discarded cas()'s future value ("is_applied") because BatchWriteItem
timeout, timeout, true, std::move(cdc_opts)).discard_result();
// We discarded cas()'s future value ("is_applied") because BatchWriteItems
// does not need to support conditional updates.
}
@@ -3135,34 +3131,30 @@ static future<> do_batch_write(service::storage_proxy& proxy,
// Multiple mutations may be destined for the same partition, adding
// or deleting different items of one partition. Join them together
// because we can do them in one cas() call.
using map_type = std::unordered_map<schema_decorated_key,
std::vector<put_or_delete_item>,
schema_decorated_key_hash,
schema_decorated_key_equal>;
auto key_builders = std::make_unique<map_type>(1, schema_decorated_key_hash{}, schema_decorated_key_equal{});
std::unordered_map<schema_decorated_key, std::vector<put_or_delete_item>, schema_decorated_key_hash, schema_decorated_key_equal>
key_builders(1, schema_decorated_key_hash{}, schema_decorated_key_equal{});
for (auto& b : mutation_builders) {
auto dk = dht::decorate_key(*b.first, b.second.pk());
auto [it, added] = key_builders->try_emplace(schema_decorated_key{b.first, dk});
auto [it, added] = key_builders.try_emplace(schema_decorated_key{b.first, dk});
it->second.push_back(std::move(b.second));
}
auto* key_builders_ptr = key_builders.get();
return parallel_for_each(*key_builders_ptr, [&proxy, &client_state, &stats, trace_state, ssg, permit = std::move(permit)] (const auto& e) {
return parallel_for_each(std::move(key_builders), [&proxy, &client_state, &stats, trace_state, ssg, permit = std::move(permit)] (auto& e) {
stats.write_using_lwt++;
auto desired_shard = service::cas_shard(*e.first.schema, e.first.dk.token());
if (desired_shard.this_shard()) {
return cas_write(proxy, e.first.schema, std::move(desired_shard), e.first.dk, e.second, client_state, trace_state, permit);
return cas_write(proxy, e.first.schema, std::move(desired_shard), e.first.dk, std::move(e.second), client_state, trace_state, permit);
} else {
stats.shard_bounce_for_lwt++;
return proxy.container().invoke_on(desired_shard.shard(), ssg,
[cs = client_state.move_to_other_shard(),
&mb = e.second,
&dk = e.first.dk,
mb = e.second,
dk = e.first.dk,
ks = e.first.schema->ks_name(),
cf = e.first.schema->cf_name(),
gt = tracing::global_trace_state_ptr(trace_state),
permit = std::move(permit)]
(service::storage_proxy& proxy) mutable {
return do_with(cs.get(), [&proxy, &mb, &dk, ks = std::move(ks), cf = std::move(cf),
return do_with(cs.get(), [&proxy, mb = std::move(mb), dk = std::move(dk), ks = std::move(ks), cf = std::move(cf),
trace_state = tracing::trace_state_ptr(gt)]
(service::client_state& client_state) mutable {
auto schema = proxy.data_dictionary().find_schema(ks, cf);
@@ -3176,11 +3168,11 @@ static future<> do_batch_write(service::storage_proxy& proxy,
//FIXME: Instead of passing empty_service_permit() to the background operation,
// the current permit's lifetime should be prolonged, so that it's destructed
// only after all background operations are finished as well.
return cas_write(proxy, schema, std::move(cas_shard), dk, mb, client_state, std::move(trace_state), empty_service_permit());
return cas_write(proxy, schema, std::move(cas_shard), dk, std::move(mb), client_state, std::move(trace_state), empty_service_permit());
});
}).finally([desired_shard = std::move(desired_shard)]{});
}
}).finally([key_builders = std::move(key_builders)]{});
});
}
}

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@@ -729,14 +729,6 @@
"allowMultiple":false,
"type":"boolean",
"paramType":"query"
},
{
"name":"use_sstable_identifier",
"description":"Use the sstable identifier UUID, if available, rather than the sstable generation.",
"required":false,
"allowMultiple":false,
"type":"boolean",
"paramType":"query"
}
]
},

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@@ -2020,16 +2020,12 @@ void set_snapshot(http_context& ctx, routes& r, sharded<db::snapshot_ctl>& snap_
auto tag = req->get_query_param("tag");
auto column_families = split(req->get_query_param("cf"), ",");
auto sfopt = req->get_query_param("sf");
auto usiopt = req->get_query_param("use_sstable_identifier");
db::snapshot_options opts = {
.skip_flush = strcasecmp(sfopt.c_str(), "true") == 0,
.use_sstable_identifier = strcasecmp(usiopt.c_str(), "true") == 0
};
auto sf = db::snapshot_ctl::skip_flush(strcasecmp(sfopt.c_str(), "true") == 0);
std::vector<sstring> keynames = split(req->get_query_param("kn"), ",");
try {
if (column_families.empty()) {
co_await snap_ctl.local().take_snapshot(tag, keynames, opts);
co_await snap_ctl.local().take_snapshot(tag, keynames, sf);
} else {
if (keynames.empty()) {
throw httpd::bad_param_exception("The keyspace of column families must be specified");
@@ -2037,7 +2033,7 @@ void set_snapshot(http_context& ctx, routes& r, sharded<db::snapshot_ctl>& snap_
if (keynames.size() > 1) {
throw httpd::bad_param_exception("Only one keyspace allowed when specifying a column family");
}
co_await snap_ctl.local().take_column_family_snapshot(keynames[0], column_families, tag, opts);
co_await snap_ctl.local().take_column_family_snapshot(keynames[0], column_families, tag, sf);
}
co_return json_void();
} catch (...) {
@@ -2072,8 +2068,7 @@ void set_snapshot(http_context& ctx, routes& r, sharded<db::snapshot_ctl>& snap_
auto info = parse_scrub_options(ctx, std::move(req));
if (!info.snapshot_tag.empty()) {
db::snapshot_options opts = {.skip_flush = false, .use_sstable_identifier = false};
co_await snap_ctl.local().take_column_family_snapshot(info.keyspace, info.column_families, info.snapshot_tag, opts);
co_await snap_ctl.local().take_column_family_snapshot(info.keyspace, info.column_families, info.snapshot_tag, db::snapshot_ctl::skip_flush::no);
}
compaction::compaction_stats stats;

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@@ -146,8 +146,7 @@ void set_tasks_compaction_module(http_context& ctx, routes& r, sharded<service::
auto info = parse_scrub_options(ctx, std::move(req));
if (!info.snapshot_tag.empty()) {
db::snapshot_options opts = {.skip_flush = false, .use_sstable_identifier = false};
co_await snap_ctl.local().take_column_family_snapshot(info.keyspace, info.column_families, info.snapshot_tag, opts);
co_await snap_ctl.local().take_column_family_snapshot(info.keyspace, info.column_families, info.snapshot_tag, db::snapshot_ctl::skip_flush::no);
}
auto& compaction_module = db.local().get_compaction_manager().get_task_manager_module();

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@@ -8,7 +8,6 @@
*/
#include "auth/certificate_authenticator.hh"
#include "auth/cache.hh"
#include <boost/regex.hpp>
#include <fmt/ranges.h>
@@ -35,14 +34,13 @@ static const class_registrator<auth::authenticator
, cql3::query_processor&
, ::service::raft_group0_client&
, ::service::migration_manager&
, auth::cache&
, utils::alien_worker&> cert_auth_reg(CERT_AUTH_NAME);
enum class auth::certificate_authenticator::query_source {
subject, altname
};
auth::certificate_authenticator::certificate_authenticator(cql3::query_processor& qp, ::service::raft_group0_client&, ::service::migration_manager&, auth::cache&, utils::alien_worker&)
auth::certificate_authenticator::certificate_authenticator(cql3::query_processor& qp, ::service::raft_group0_client&, ::service::migration_manager&, utils::alien_worker&)
: _queries([&] {
auto& conf = qp.db().get_config();
auto queries = conf.auth_certificate_role_queries();

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@@ -26,15 +26,13 @@ class raft_group0_client;
namespace auth {
class cache;
extern const std::string_view certificate_authenticator_name;
class certificate_authenticator : public authenticator {
enum class query_source;
std::vector<std::pair<query_source, boost::regex>> _queries;
public:
certificate_authenticator(cql3::query_processor&, ::service::raft_group0_client&, ::service::migration_manager&, cache&, utils::alien_worker&);
certificate_authenticator(cql3::query_processor&, ::service::raft_group0_client&, ::service::migration_manager&, utils::alien_worker&);
~certificate_authenticator();
future<> start() override;

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@@ -1062,6 +1062,7 @@ scylla_core = (['message/messaging_service.cc',
'db/hints/resource_manager.cc',
'db/hints/sync_point.cc',
'db/large_data_handler.cc',
'db/legacy_schema_migrator.cc',
'db/marshal/type_parser.cc',
'db/per_partition_rate_limit_options.cc',
'db/rate_limiter.cc',

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@@ -331,7 +331,7 @@ future<shared_ptr<cql_transport::messages::result_message>> batch_statement::exe
if (!cl_for_paxos) [[unlikely]] {
return make_exception_future<shared_ptr<cql_transport::messages::result_message>>(std::move(cl_for_paxos).assume_error());
}
std::unique_ptr<cas_request> request;
seastar::shared_ptr<cas_request> request;
schema_ptr schema;
db::timeout_clock::time_point now = db::timeout_clock::now();
@@ -354,9 +354,9 @@ future<shared_ptr<cql_transport::messages::result_message>> batch_statement::exe
if (keys.empty()) {
continue;
}
if (!request) {
if (request.get() == nullptr) {
schema = statement.s;
request = std::make_unique<cas_request>(schema, std::move(keys));
request = seastar::make_shared<cas_request>(schema, std::move(keys));
} else if (keys.size() != 1 || keys.front().equal(request->key().front(), dht::ring_position_comparator(*schema)) == false) {
throw exceptions::invalid_request_exception("BATCH with conditions cannot span multiple partitions");
}
@@ -366,7 +366,7 @@ future<shared_ptr<cql_transport::messages::result_message>> batch_statement::exe
request->add_row_update(statement, std::move(ranges), std::move(json_cache), statement_options);
}
if (!request) {
if (request.get() == nullptr) {
throw exceptions::invalid_request_exception(format("Unrestricted partition key in a conditional BATCH"));
}
@@ -377,10 +377,9 @@ future<shared_ptr<cql_transport::messages::result_message>> batch_statement::exe
);
}
auto* request_ptr = request.get();
return qp.proxy().cas(schema, std::move(cas_shard), *request_ptr, request->read_command(qp), request->key(),
return qp.proxy().cas(schema, std::move(cas_shard), request, request->read_command(qp), request->key(),
{read_timeout, qs.get_permit(), qs.get_client_state(), qs.get_trace_state()},
std::move(cl_for_paxos).assume_value(), cl_for_learn, batch_timeout, cas_timeout).then([this, request = std::move(request)] (bool is_applied) {
std::move(cl_for_paxos).assume_value(), cl_for_learn, batch_timeout, cas_timeout).then([this, request] (bool is_applied) {
return request->build_cas_result_set(_metadata, _columns_of_cas_result_set, is_applied);
});
}

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@@ -19,6 +19,7 @@
#include "types/map.hh"
#include "service/storage_proxy.hh"
#include "cql3/query_processor.hh"
#include "keys/clustering_interval_set.hh"
namespace cql3::statements {
@@ -87,8 +88,9 @@ lw_shared_ptr<query::read_command> cas_request::read_command(query_processor& qp
ranges.emplace_back(query::clustering_range::make_open_ended_both_sides());
max_rows = 1;
} else {
// WARNING: clustering_range::deoverlap can return incorrect results - refer to scylladb#22817 and scylladb#21604
ranges = query::clustering_range::deoverlap(std::move(ranges), clustering_key::tri_compare(*_schema));
// Use clustering_interval_set to correctly deoverlap ranges (fixes scylladb#22817 and scylladb#21604)
clustering_interval_set interval_set(*_schema, ranges);
ranges = interval_set.to_clustering_row_ranges();
}
auto options = update_parameters::options;
options.set(query::partition_slice::option::always_return_static_content);

View File

@@ -401,8 +401,7 @@ modification_statement::execute_with_condition(query_processor& qp, service::que
type.is_update() ? "update" : "deletion"));
}
auto request = std::make_unique<cas_request>(s, std::move(keys));
auto* request_ptr = request.get();
auto request = seastar::make_shared<cas_request>(s, std::move(keys));
// cas_request can be used for batches as well single statements; Here we have just a single
// modification in the list of CAS commands, since we're handling single-statement execution.
request->add_row_update(*this, std::move(ranges), std::move(json_cache), options);
@@ -428,9 +427,9 @@ modification_statement::execute_with_condition(query_processor& qp, service::que
tablet_info = erm->check_locality(token);
}
return qp.proxy().cas(s, std::move(cas_shard), *request_ptr, request->read_command(qp), request->key(),
return qp.proxy().cas(s, std::move(cas_shard), request, request->read_command(qp), request->key(),
{read_timeout, qs.get_permit(), qs.get_client_state(), qs.get_trace_state()},
std::move(cl_for_paxos).assume_value(), cl_for_learn, statement_timeout, cas_timeout).then([this, request = std::move(request), tablet_replicas = std::move(tablet_info->tablet_replicas), token_range = tablet_info->token_range] (bool is_applied) {
std::move(cl_for_paxos).assume_value(), cl_for_learn, statement_timeout, cas_timeout).then([this, request, tablet_replicas = std::move(tablet_info->tablet_replicas), token_range = tablet_info->token_range] (bool is_applied) {
auto result = request->build_cas_result_set(_metadata, _columns_of_cas_result_set, is_applied);
result->add_tablet_info(tablet_replicas, token_range);
return result;

View File

@@ -10,6 +10,7 @@ target_sources(db
schema_applier.cc
schema_tables.cc
cql_type_parser.cc
legacy_schema_migrator.cc
commitlog/commitlog.cc
commitlog/commitlog_replayer.cc
commitlog/commitlog_entry.cc

View File

@@ -0,0 +1,602 @@
/*
* Modified by ScyllaDB
* Copyright (C) 2017-present ScyllaDB
*/
/*
* SPDX-License-Identifier: (LicenseRef-ScyllaDB-Source-Available-1.0 and Apache-2.0)
*/
// Since Scylla 2.0, we use system tables whose schemas were introduced in
// Cassandra 3. If Scylla boots to find a data directory with system tables
// with older schemas - produced by pre-2.0 Scylla or by pre-3.0 Cassandra,
// we need to migrate these old tables to the new format.
//
// We provide here a function, db::legacy_schema_migrator::migrate(),
// for a one-time migration from old to new system tables. The function
// reads old system tables, write them back in the new format, and finally
// delete the old system tables. Scylla's main should call this function and
// wait for the returned future, before starting to serve the database.
#include <boost/iterator/filter_iterator.hpp>
#include <seastar/core/future-util.hh>
#include <seastar/util/log.hh>
#include <map>
#include <unordered_set>
#include <chrono>
#include "replica/database.hh"
#include "legacy_schema_migrator.hh"
#include "system_keyspace.hh"
#include "schema_tables.hh"
#include "schema/schema_builder.hh"
#include "service/storage_proxy.hh"
#include "utils/rjson.hh"
#include "cql3/query_processor.hh"
#include "cql3/untyped_result_set.hh"
#include "cql3/util.hh"
#include "cql3/statements/property_definitions.hh"
static seastar::logger mlogger("legacy_schema_migrator");
namespace db {
namespace legacy_schema_migrator {
// local data carriers
class migrator {
public:
static const std::unordered_set<sstring> legacy_schema_tables;
migrator(sharded<service::storage_proxy>& sp, sharded<replica::database>& db, sharded<db::system_keyspace>& sys_ks, cql3::query_processor& qp)
: _sp(sp), _db(db), _sys_ks(sys_ks), _qp(qp) {
}
migrator(migrator&&) = default;
typedef db_clock::time_point time_point;
// TODO: we don't support triggers.
// this is a placeholder.
struct trigger {
time_point timestamp;
sstring name;
std::unordered_map<sstring, sstring> options;
};
struct table {
time_point timestamp;
schema_ptr metadata;
std::vector<trigger> triggers;
};
struct type {
time_point timestamp;
user_type metadata;
};
struct function {
time_point timestamp;
sstring ks_name;
sstring fn_name;
std::vector<sstring> arg_names;
std::vector<sstring> arg_types;
sstring return_type;
bool called_on_null_input;
sstring language;
sstring body;
};
struct aggregate {
time_point timestamp;
sstring ks_name;
sstring fn_name;
std::vector<sstring> arg_names;
std::vector<sstring> arg_types;
sstring return_type;
sstring final_func;
sstring initcond;
sstring state_func;
sstring state_type;
};
struct keyspace {
time_point timestamp;
sstring name;
bool durable_writes;
std::map<sstring, sstring> replication_params;
std::vector<table> tables;
std::vector<type> types;
std::vector<function> functions;
std::vector<aggregate> aggregates;
};
class unsupported_feature : public std::runtime_error {
public:
using runtime_error::runtime_error;
};
static sstring fmt_query(const char* fmt, const char* table) {
return fmt::format(fmt::runtime(fmt), db::system_keyspace::NAME, table);
}
typedef ::shared_ptr<cql3::untyped_result_set> result_set_type;
typedef const cql3::untyped_result_set::row row_type;
future<> read_table(keyspace& dst, sstring cf_name, time_point timestamp) {
auto fmt = "SELECT * FROM {}.{} WHERE keyspace_name = ? AND columnfamily_name = ?";
auto tq = fmt_query(fmt, db::system_keyspace::legacy::COLUMNFAMILIES);
auto cq = fmt_query(fmt, db::system_keyspace::legacy::COLUMNS);
auto zq = fmt_query(fmt, db::system_keyspace::legacy::TRIGGERS);
typedef std::tuple<future<result_set_type>, future<result_set_type>, future<result_set_type>, future<db::schema_tables::legacy::schema_mutations>> result_tuple;
return when_all(_qp.execute_internal(tq, { dst.name, cf_name }, cql3::query_processor::cache_internal::yes),
_qp.execute_internal(cq, { dst.name, cf_name }, cql3::query_processor::cache_internal::yes),
_qp.execute_internal(zq, { dst.name, cf_name }, cql3::query_processor::cache_internal::yes),
db::schema_tables::legacy::read_table_mutations(_sp, dst.name, cf_name, db::system_keyspace::legacy::column_families()))
.then([&dst, cf_name, timestamp](result_tuple&& t) {
result_set_type tables = std::get<0>(t).get();
result_set_type columns = std::get<1>(t).get();
result_set_type triggers = std::get<2>(t).get();
db::schema_tables::legacy::schema_mutations sm = std::get<3>(t).get();
row_type& td = tables->one();
auto ks_name = td.get_as<sstring>("keyspace_name");
auto cf_name = td.get_as<sstring>("columnfamily_name");
auto id = table_id(td.get_or("cf_id", generate_legacy_id(ks_name, cf_name).uuid()));
schema_builder builder(dst.name, cf_name, id);
builder.with_version(sm.digest());
cf_type cf = sstring_to_cf_type(td.get_or("type", sstring("standard")));
if (cf == cf_type::super) {
fail(unimplemented::cause::SUPER);
}
auto comparator = td.get_as<sstring>("comparator");
bool is_compound = cell_comparator::check_compound(comparator);
builder.set_is_compound(is_compound);
cell_comparator::read_collections(builder, comparator);
bool filter_sparse = false;
data_type default_validator = {};
if (td.has("default_validator")) {
default_validator = db::schema_tables::parse_type(td.get_as<sstring>("default_validator"));
if (default_validator->is_counter()) {
builder.set_is_counter(true);
}
builder.set_default_validation_class(default_validator);
}
/*
* Determine whether or not the table is *really* dense
* We cannot trust is_dense value of true (see CASSANDRA-11502, that fixed the issue for 2.2 only, and not retroactively),
* but we can trust is_dense value of false.
*/
auto is_dense = td.get_opt<bool>("is_dense");
if (!is_dense || *is_dense) {
is_dense = [&] {
/*
* As said above, this method is only here because we need to deal with thrift upgrades.
* Once a CF has been "upgraded", i.e. we've rebuilt and save its CQL3 metadata at least once,
* then we'll have saved the "is_dense" value and will be good to go.
*
* But non-upgraded thrift CF (and pre-7744 CF) will have no value for "is_dense", so we need
* to infer that information without relying on it in that case. And for the most part this is
* easy, a CF that has at least one REGULAR definition is not dense. But the subtlety is that not
* having a REGULAR definition may not mean dense because of CQL3 definitions that have only the
* PRIMARY KEY defined.
*
* So we need to recognize those special case CQL3 table with only a primary key. If we have some
* clustering columns, we're fine as said above. So the only problem is that we cannot decide for
* sure if a CF without REGULAR columns nor CLUSTERING_COLUMN definition is meant to be dense, or if it
* has been created in CQL3 by say:
* CREATE TABLE test (k int PRIMARY KEY)
* in which case it should not be dense. However, we can limit our margin of error by assuming we are
* in the latter case only if the comparator is exactly CompositeType(UTF8Type).
*/
std::optional<column_id> max_cl_idx;
const cql3::untyped_result_set::row * regular = nullptr;
for (auto& row : *columns) {
auto kind_str = row.get_as<sstring>("type");
if (kind_str == "compact_value") {
continue;
}
auto kind = db::schema_tables::deserialize_kind(kind_str);
if (kind == column_kind::regular_column) {
if (regular != nullptr) {
return false;
}
regular = &row;
continue;
}
if (kind == column_kind::clustering_key) {
max_cl_idx = std::max(column_id(row.get_or("component_index", 0)), max_cl_idx.value_or(column_id()));
}
}
auto is_cql3_only_pk_comparator = [](const sstring& comparator) {
if (!cell_comparator::check_compound(comparator)) {
return false;
}
// CMH. We don't have composites, nor a parser for it. This is a simple way of c
// checking the same.
auto comma = comparator.find(',');
if (comma != sstring::npos) {
return false;
}
auto off = comparator.find('(');
auto end = comparator.find(')');
return comparator.compare(off, end - off, utf8_type->name()) == 0;
};
if (max_cl_idx) {
auto n = std::count(comparator.begin(), comparator.end(), ','); // num comp - 1
return *max_cl_idx == n;
}
if (regular) {
return false;
}
return !is_cql3_only_pk_comparator(comparator);
}();
// now, if switched to sparse, remove redundant compact_value column and the last clustering column,
// directly copying CASSANDRA-11502 logic. See CASSANDRA-11315.
filter_sparse = !*is_dense;
}
builder.set_is_dense(*is_dense);
auto is_cql = !*is_dense && is_compound;
auto is_static_compact = !*is_dense && !is_compound;
// org.apache.cassandra.schema.LegacySchemaMigrator#isEmptyCompactValueColumn
auto is_empty_compact_value = [](const cql3::untyped_result_set::row& column_row) {
auto kind_str = column_row.get_as<sstring>("type");
// Cassandra only checks for "compact_value", but Scylla generates "regular" instead (#2586)
return (kind_str == "compact_value" || kind_str == "regular")
&& column_row.get_as<sstring>("column_name").empty();
};
for (auto& row : *columns) {
auto kind_str = row.get_as<sstring>("type");
auto kind = db::schema_tables::deserialize_kind(kind_str);
auto component_index = kind > column_kind::clustering_key ? 0 : column_id(row.get_or("component_index", 0));
auto name = row.get_or<sstring>("column_name", sstring());
auto validator = db::schema_tables::parse_type(row.get_as<sstring>("validator"));
if (is_empty_compact_value(row)) {
continue;
}
if (filter_sparse) {
if (kind_str == "compact_value") {
continue;
}
if (kind == column_kind::clustering_key) {
if (cf == cf_type::super && component_index != 0) {
continue;
}
if (cf != cf_type::super && !is_compound) {
continue;
}
}
}
std::optional<index_metadata_kind> index_kind;
sstring index_name;
index_options_map options;
if (row.has("index_type")) {
index_kind = schema_tables::deserialize_index_kind(row.get_as<sstring>("index_type"));
}
if (row.has("index_name")) {
index_name = row.get_as<sstring>("index_name");
}
if (row.has("index_options")) {
sstring index_options_str = row.get_as<sstring>("index_options");
options = rjson::parse_to_map<index_options_map>(std::string_view(index_options_str));
sstring type;
auto i = options.find("index_keys");
if (i != options.end()) {
options.erase(i);
type = "KEYS";
}
i = options.find("index_keys_and_values");
if (i != options.end()) {
options.erase(i);
type = "KEYS_AND_VALUES";
}
if (type.empty()) {
if (validator->is_collection() && validator->is_multi_cell()) {
type = "FULL";
} else {
type = "VALUES";
}
}
auto column = cql3::util::maybe_quote(name);
options["target"] = validator->is_collection()
? type + "(" + column + ")"
: column;
}
if (index_kind) {
// Origin assumes index_name is always set, so let's do the same
builder.with_index(index_metadata(index_name, options, *index_kind, index_metadata::is_local_index::no));
}
data_type column_name_type = [&] {
if (is_static_compact && kind == column_kind::regular_column) {
return db::schema_tables::parse_type(comparator);
}
return utf8_type;
}();
auto column_name = [&] {
try {
return column_name_type->from_string(name);
} catch (marshal_exception&) {
// #2597: Scylla < 2.0 writes names in serialized form, try to recover
column_name_type->validate(to_bytes_view(name));
return to_bytes(name);
}
}();
builder.with_column_ordered(column_definition(std::move(column_name), std::move(validator), kind, component_index));
}
if (is_static_compact) {
builder.set_regular_column_name_type(db::schema_tables::parse_type(comparator));
}
if (td.has("gc_grace_seconds")) {
builder.set_gc_grace_seconds(td.get_as<int32_t>("gc_grace_seconds"));
}
if (td.has("min_compaction_threshold")) {
builder.set_min_compaction_threshold(td.get_as<int32_t>("min_compaction_threshold"));
}
if (td.has("max_compaction_threshold")) {
builder.set_max_compaction_threshold(td.get_as<int32_t>("max_compaction_threshold"));
}
if (td.has("comment")) {
builder.set_comment(td.get_as<sstring>("comment"));
}
if (td.has("memtable_flush_period_in_ms")) {
builder.set_memtable_flush_period(td.get_as<int32_t>("memtable_flush_period_in_ms"));
}
if (td.has("caching")) {
builder.set_caching_options(caching_options::from_sstring(td.get_as<sstring>("caching")));
}
if (td.has("default_time_to_live")) {
builder.set_default_time_to_live(gc_clock::duration(td.get_as<int32_t>("default_time_to_live")));
}
if (td.has("speculative_retry")) {
builder.set_speculative_retry(td.get_as<sstring>("speculative_retry"));
}
if (td.has("compaction_strategy_class")) {
auto strategy = td.get_as<sstring>("compaction_strategy_class");
try {
builder.set_compaction_strategy(compaction::compaction_strategy::type(strategy));
} catch (const exceptions::configuration_exception& e) {
// If compaction strategy class isn't supported, fallback to incremental.
mlogger.warn("Falling back to incremental compaction strategy after the problem: {}", e.what());
builder.set_compaction_strategy(compaction::compaction_strategy_type::incremental);
}
}
if (td.has("compaction_strategy_options")) {
sstring strategy_options_str = td.get_as<sstring>("compaction_strategy_options");
builder.set_compaction_strategy_options(rjson::parse_to_map<std::map<sstring, sstring>>(std::string_view(strategy_options_str)));
}
auto comp_param = td.get_as<sstring>("compression_parameters");
compression_parameters cp(rjson::parse_to_map<std::map<sstring, sstring>>(std::string_view(comp_param)));
builder.set_compressor_params(cp);
if (td.has("min_index_interval")) {
builder.set_min_index_interval(td.get_as<int32_t>("min_index_interval"));
} else if (td.has("index_interval")) { // compatibility
builder.set_min_index_interval(td.get_as<int32_t>("index_interval"));
}
if (td.has("max_index_interval")) {
builder.set_max_index_interval(td.get_as<int32_t>("max_index_interval"));
}
if (td.has("bloom_filter_fp_chance")) {
builder.set_bloom_filter_fp_chance(td.get_as<double>("bloom_filter_fp_chance"));
} else {
builder.set_bloom_filter_fp_chance(builder.get_bloom_filter_fp_chance());
}
if (td.has("dropped_columns")) {
auto map = td.get_map<sstring, int64_t>("dropped_columns");
for (auto&& e : map) {
builder.without_column(e.first, api::timestamp_type(e.second));
};
}
// ignore version. we're transient
if (!triggers->empty()) {
throw unsupported_feature("triggers");
}
dst.tables.emplace_back(table{timestamp, builder.build() });
});
}
future<> read_tables(keyspace& dst) {
auto query = fmt_query("SELECT columnfamily_name, writeTime(type) AS timestamp FROM {}.{} WHERE keyspace_name = ?",
db::system_keyspace::legacy::COLUMNFAMILIES);
return _qp.execute_internal(query, {dst.name}, cql3::query_processor::cache_internal::yes).then([this, &dst](result_set_type result) {
return parallel_for_each(*result, [this, &dst](row_type& row) {
return read_table(dst, row.get_as<sstring>("columnfamily_name"), row.get_as<time_point>("timestamp"));
}).finally([result] {});
});
}
future<time_point> read_type_timestamp(keyspace& dst, sstring type_name) {
// TODO: Unfortunately there is not a single REGULAR column in system.schema_usertypes, so annoyingly we cannot
// use the writeTime() CQL function, and must resort to a lower level.
// Origin digs up the actual cells of target partition and gets timestamp from there.
// We should do the same, but g-dam that's messy. Lets give back dung value for now.
return make_ready_future<time_point>(dst.timestamp);
}
future<> read_types(keyspace& dst) {
auto query = fmt_query("SELECT * FROM {}.{} WHERE keyspace_name = ?", db::system_keyspace::legacy::USERTYPES);
return _qp.execute_internal(query, {dst.name}, cql3::query_processor::cache_internal::yes).then([this, &dst](result_set_type result) {
return parallel_for_each(*result, [this, &dst](row_type& row) {
auto name = row.get_blob_unfragmented("type_name");
auto columns = row.get_list<bytes>("field_names");
auto types = row.get_list<sstring>("field_types");
std::vector<data_type> field_types;
for (auto&& value : types) {
field_types.emplace_back(db::schema_tables::parse_type(value));
}
auto ut = user_type_impl::get_instance(dst.name, name, columns, field_types, false);
return read_type_timestamp(dst, value_cast<sstring>(utf8_type->deserialize(name))).then([ut = std::move(ut), &dst](time_point timestamp) {
dst.types.emplace_back(type{timestamp, ut});
});
}).finally([result] {});
});
}
future<> read_functions(keyspace& dst) {
auto query = fmt_query("SELECT * FROM {}.{} WHERE keyspace_name = ?", db::system_keyspace::legacy::FUNCTIONS);
return _qp.execute_internal(query, {dst.name}, cql3::query_processor::cache_internal::yes).then([](result_set_type result) {
if (!result->empty()) {
throw unsupported_feature("functions");
}
});
}
future<> read_aggregates(keyspace& dst) {
auto query = fmt_query("SELECT * FROM {}.{} WHERE keyspace_name = ?", db::system_keyspace::legacy::AGGREGATES);
return _qp.execute_internal(query, {dst.name}, cql3::query_processor::cache_internal::yes).then([](result_set_type result) {
if (!result->empty()) {
throw unsupported_feature("aggregates");
}
});
}
future<keyspace> read_keyspace(sstring ks_name, bool durable_writes, sstring strategy_class, sstring strategy_options, time_point timestamp) {
auto map = rjson::parse_to_map<std::map<sstring, sstring>>(std::string_view(strategy_options));
map.emplace("class", std::move(strategy_class));
auto ks = ::make_lw_shared<keyspace>(keyspace{timestamp, std::move(ks_name), durable_writes, std::move(map) });
return read_tables(*ks).then([this, ks] {
//Collection<Type> types = readTypes(keyspaceName);
return read_types(*ks);
}).then([this, ks] {
return read_functions(*ks);
}).then([this, ks] {
return read_aggregates(*ks);
}).then([ks] {
return make_ready_future<keyspace>(std::move(*ks));
});
}
future<> read_all_keyspaces() {
static auto ks_filter = [](row_type& row) {
auto ks_name = row.get_as<sstring>("keyspace_name");
return ks_name != db::system_keyspace::NAME && ks_name != db::schema_tables::v3::NAME;
};
auto query = fmt_query("SELECT keyspace_name, durable_writes, strategy_options, strategy_class, writeTime(durable_writes) AS timestamp FROM {}.{}",
db::system_keyspace::legacy::KEYSPACES);
return _qp.execute_internal(query, cql3::query_processor::cache_internal::yes).then([this](result_set_type result) {
auto i = boost::make_filter_iterator(ks_filter, result->begin(), result->end());
auto e = boost::make_filter_iterator(ks_filter, result->end(), result->end());
return parallel_for_each(i, e, [this](row_type& row) {
return read_keyspace(row.get_as<sstring>("keyspace_name")
, row.get_as<bool>("durable_writes")
, row.get_as<sstring>("strategy_class")
, row.get_as<sstring>("strategy_options")
, row.get_as<db_clock::time_point>("timestamp")
).then([this](keyspace ks) {
_keyspaces.emplace_back(std::move(ks));
});
}).finally([result] {});
});
}
future<> drop_legacy_tables() {
mlogger.info("Dropping legacy schema tables");
auto with_snapshot = !_keyspaces.empty();
for (const sstring& cfname : legacy_schema_tables) {
co_await replica::database::legacy_drop_table_on_all_shards(_db, _sys_ks, db::system_keyspace::NAME, cfname, with_snapshot);
}
}
future<> store_keyspaces_in_new_schema_tables() {
mlogger.info("Moving {} keyspaces from legacy schema tables to the new schema keyspace ({})",
_keyspaces.size(), db::schema_tables::v3::NAME);
utils::chunked_vector<mutation> mutations;
for (auto& ks : _keyspaces) {
auto ksm = ::make_lw_shared<keyspace_metadata>(ks.name
, ks.replication_params["class"] // TODO, make ksm like c3?
, cql3::statements::property_definitions::to_extended_map(ks.replication_params)
, std::nullopt
, std::nullopt
, ks.durable_writes);
// we want separate time stamps for tables/types, so cannot bulk them into the ksm.
for (auto&& m : db::schema_tables::make_create_keyspace_mutations(schema_features::full(), ksm, ks.timestamp.time_since_epoch().count(), false)) {
mutations.emplace_back(std::move(m));
}
for (auto& t : ks.tables) {
db::schema_tables::add_table_or_view_to_schema_mutation(t.metadata, t.timestamp.time_since_epoch().count(), true, mutations);
}
for (auto& t : ks.types) {
db::schema_tables::add_type_to_schema_mutation(t.metadata, t.timestamp.time_since_epoch().count(), mutations);
}
}
return _qp.proxy().mutate_locally(std::move(mutations), tracing::trace_state_ptr());
}
future<> flush_schemas() {
auto& db = _qp.db().real_database().container();
return replica::database::flush_tables_on_all_shards(db, db::schema_tables::all_table_infos(schema_features::full()));
}
future<> migrate() {
return read_all_keyspaces().then([this]() {
// write metadata to the new schema tables
return store_keyspaces_in_new_schema_tables()
.then(std::bind(&migrator::flush_schemas, this))
.then(std::bind(&migrator::drop_legacy_tables, this))
.then([] { mlogger.info("Completed migration of legacy schema tables"); });
});
}
sharded<service::storage_proxy>& _sp;
sharded<replica::database>& _db;
sharded<db::system_keyspace>& _sys_ks;
cql3::query_processor& _qp;
std::vector<keyspace> _keyspaces;
};
const std::unordered_set<sstring> migrator::legacy_schema_tables = {
db::system_keyspace::legacy::KEYSPACES,
db::system_keyspace::legacy::COLUMNFAMILIES,
db::system_keyspace::legacy::COLUMNS,
db::system_keyspace::legacy::TRIGGERS,
db::system_keyspace::legacy::USERTYPES,
db::system_keyspace::legacy::FUNCTIONS,
db::system_keyspace::legacy::AGGREGATES,
};
}
}
future<>
db::legacy_schema_migrator::migrate(sharded<service::storage_proxy>& sp, sharded<replica::database>& db, sharded<db::system_keyspace>& sys_ks, cql3::query_processor& qp) {
return do_with(migrator(sp, db, sys_ks, qp), std::bind(&migrator::migrate, std::placeholders::_1));
}

View File

@@ -0,0 +1,37 @@
/*
* Modified by ScyllaDB
* Copyright (C) 2017-present ScyllaDB
*/
/*
* SPDX-License-Identifier: (LicenseRef-ScyllaDB-Source-Available-1.0 and Apache-2.0)
*/
#pragma once
#include <seastar/core/future.hh>
#include <seastar/core/sharded.hh>
#include "seastarx.hh"
namespace replica {
class database;
}
namespace cql3 {
class query_processor;
}
namespace service {
class storage_proxy;
}
namespace db {
class system_keyspace;
namespace legacy_schema_migrator {
future<> migrate(sharded<service::storage_proxy>&, sharded<replica::database>& db, sharded<db::system_keyspace>& sys_ks, cql3::query_processor&);
}
}

View File

@@ -542,7 +542,6 @@ public:
// Returns the range tombstone for the key range adjacent to the cursor's position from the side of smaller keys.
// Excludes the range for the row itself. That information is returned by range_tombstone_for_row().
// It's possible that range_tombstone() is empty and range_tombstone_for_row() is not empty.
// Note that this is different from the meaning of rows_entry::range_tombstone(), which includes the row itself.
tombstone range_tombstone() const { return _range_tombstone; }
// Can be called when cursor is pointing at a row.

View File

@@ -1287,15 +1287,6 @@ row_cache::row_cache(schema_ptr s, snapshot_source src, cache_tracker& tracker,
, _partitions(dht::raw_token_less_comparator{})
, _underlying(src())
, _snapshot_source(std::move(src))
, _update_section(abstract_formatter([this] (fmt::context& ctx) {
fmt::format_to(ctx.out(), "cache.update {}.{}", _schema->ks_name(), _schema->cf_name());
}))
, _populate_section(abstract_formatter([this] (fmt::context& ctx) {
fmt::format_to(ctx.out(), "cache.populate {}.{}", _schema->ks_name(), _schema->cf_name());
}))
, _read_section(abstract_formatter([this] (fmt::context& ctx) {
fmt::format_to(ctx.out(), "cache.read {}.{}", _schema->ks_name(), _schema->cf_name());
}))
{
try {
with_allocator(_tracker.allocator(), [this, cont] {

View File

@@ -404,7 +404,10 @@ const std::unordered_set<table_id>& schema_tables_holding_schema_mutations() {
computed_columns(),
dropped_columns(),
indexes(),
scylla_tables()}) {
scylla_tables(),
db::system_keyspace::legacy::column_families(),
db::system_keyspace::legacy::columns(),
db::system_keyspace::legacy::triggers()}) {
SCYLLA_ASSERT(s->clustering_key_size() > 0);
auto&& first_column_name = s->clustering_column_at(0).name_as_text();
SCYLLA_ASSERT(first_column_name == "table_name"
@@ -2837,6 +2840,26 @@ void check_no_legacy_secondary_index_mv_schema(replica::database& db, const view
}
namespace legacy {
table_schema_version schema_mutations::digest() const {
md5_hasher h;
const db::schema_features no_features;
db::schema_tables::feed_hash_for_schema_digest(h, _columnfamilies, no_features);
db::schema_tables::feed_hash_for_schema_digest(h, _columns, no_features);
return table_schema_version(utils::UUID_gen::get_name_UUID(h.finalize()));
}
future<schema_mutations> read_table_mutations(sharded<service::storage_proxy>& proxy,
sstring keyspace_name, sstring table_name, schema_ptr s)
{
mutation cf_m = co_await read_schema_partition_for_table(proxy, s, keyspace_name, table_name);
mutation col_m = co_await read_schema_partition_for_table(proxy, db::system_keyspace::legacy::columns(), keyspace_name, table_name);
co_return schema_mutations{std::move(cf_m), std::move(col_m)};
}
} // namespace legacy
static auto GET_COLUMN_MAPPING_QUERY = format("SELECT column_name, clustering_order, column_name_bytes, kind, position, type FROM system.{} WHERE cf_id = ? AND schema_version = ?",
db::schema_tables::SCYLLA_TABLE_SCHEMA_HISTORY);

View File

@@ -155,6 +155,24 @@ schema_ptr scylla_table_schema_history();
const std::unordered_set<table_id>& schema_tables_holding_schema_mutations();
}
namespace legacy {
class schema_mutations {
mutation _columnfamilies;
mutation _columns;
public:
schema_mutations(mutation columnfamilies, mutation columns)
: _columnfamilies(std::move(columnfamilies))
, _columns(std::move(columns))
{ }
table_schema_version digest() const;
};
future<schema_mutations> read_table_mutations(sharded<service::storage_proxy>& proxy,
sstring keyspace_name, sstring table_name, schema_ptr s);
}
struct qualified_name {
sstring keyspace_name;
sstring table_name;

View File

@@ -65,7 +65,7 @@ future<> snapshot_ctl::run_snapshot_modify_operation(noncopyable_function<future
});
}
future<> snapshot_ctl::take_snapshot(sstring tag, std::vector<sstring> keyspace_names, snapshot_options opts) {
future<> snapshot_ctl::take_snapshot(sstring tag, std::vector<sstring> keyspace_names, skip_flush sf) {
if (tag.empty()) {
throw std::runtime_error("You must supply a snapshot name.");
}
@@ -74,21 +74,21 @@ future<> snapshot_ctl::take_snapshot(sstring tag, std::vector<sstring> keyspace_
std::ranges::copy(_db.local().get_keyspaces() | std::views::keys, std::back_inserter(keyspace_names));
};
return run_snapshot_modify_operation([tag = std::move(tag), keyspace_names = std::move(keyspace_names), opts, this] () mutable {
return do_take_snapshot(std::move(tag), std::move(keyspace_names), opts);
return run_snapshot_modify_operation([tag = std::move(tag), keyspace_names = std::move(keyspace_names), sf, this] () mutable {
return do_take_snapshot(std::move(tag), std::move(keyspace_names), sf);
});
}
future<> snapshot_ctl::do_take_snapshot(sstring tag, std::vector<sstring> keyspace_names, snapshot_options opts) {
future<> snapshot_ctl::do_take_snapshot(sstring tag, std::vector<sstring> keyspace_names, skip_flush sf) {
co_await coroutine::parallel_for_each(keyspace_names, [tag, this] (const auto& ks_name) {
return check_snapshot_not_exist(ks_name, tag);
});
co_await coroutine::parallel_for_each(keyspace_names, [this, tag = std::move(tag), opts] (const auto& ks_name) {
return replica::database::snapshot_keyspace_on_all_shards(_db, ks_name, tag, opts);
co_await coroutine::parallel_for_each(keyspace_names, [this, tag = std::move(tag), sf] (const auto& ks_name) {
return replica::database::snapshot_keyspace_on_all_shards(_db, ks_name, tag, bool(sf));
});
}
future<> snapshot_ctl::take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, snapshot_options opts) {
future<> snapshot_ctl::take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, skip_flush sf) {
if (ks_name.empty()) {
throw std::runtime_error("You must supply a keyspace name");
}
@@ -99,14 +99,14 @@ future<> snapshot_ctl::take_column_family_snapshot(sstring ks_name, std::vector<
throw std::runtime_error("You must supply a snapshot name.");
}
return run_snapshot_modify_operation([this, ks_name = std::move(ks_name), tables = std::move(tables), tag = std::move(tag), opts] () mutable {
return do_take_column_family_snapshot(std::move(ks_name), std::move(tables), std::move(tag), opts);
return run_snapshot_modify_operation([this, ks_name = std::move(ks_name), tables = std::move(tables), tag = std::move(tag), sf] () mutable {
return do_take_column_family_snapshot(std::move(ks_name), std::move(tables), std::move(tag), sf);
});
}
future<> snapshot_ctl::do_take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, snapshot_options opts) {
future<> snapshot_ctl::do_take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, skip_flush sf) {
co_await check_snapshot_not_exist(ks_name, tag, tables);
co_await replica::database::snapshot_tables_on_all_shards(_db, ks_name, std::move(tables), std::move(tag), opts);
co_await replica::database::snapshot_tables_on_all_shards(_db, ks_name, std::move(tables), std::move(tag), bool(sf));
}
future<> snapshot_ctl::clear_snapshot(sstring tag, std::vector<sstring> keyspace_names, sstring cf_name) {

View File

@@ -38,13 +38,10 @@ class backup_task_impl;
} // snapshot namespace
struct snapshot_options {
bool skip_flush = false;
bool use_sstable_identifier = false;
};
class snapshot_ctl : public peering_sharded_service<snapshot_ctl> {
public:
using skip_flush = bool_class<class skip_flush_tag>;
struct table_snapshot_details {
int64_t total;
int64_t live;
@@ -73,8 +70,8 @@ public:
*
* @param tag the tag given to the snapshot; may not be null or empty
*/
future<> take_snapshot(sstring tag, snapshot_options opts = {}) {
return take_snapshot(tag, {}, opts);
future<> take_snapshot(sstring tag, skip_flush sf = skip_flush::no) {
return take_snapshot(tag, {}, sf);
}
/**
@@ -83,7 +80,7 @@ public:
* @param tag the tag given to the snapshot; may not be null or empty
* @param keyspace_names the names of the keyspaces to snapshot; empty means "all"
*/
future<> take_snapshot(sstring tag, std::vector<sstring> keyspace_names, snapshot_options opts = {});
future<> take_snapshot(sstring tag, std::vector<sstring> keyspace_names, skip_flush sf = skip_flush::no);
/**
* Takes the snapshot of multiple tables. A snapshot name must be specified.
@@ -92,7 +89,7 @@ public:
* @param tables a vector of tables names to snapshot
* @param tag the tag given to the snapshot; may not be null or empty
*/
future<> take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, snapshot_options opts = {});
future<> take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, skip_flush sf = skip_flush::no);
/**
* Remove the snapshot with the given name from the given keyspaces.
@@ -130,8 +127,8 @@ private:
friend class snapshot::backup_task_impl;
future<> do_take_snapshot(sstring tag, std::vector<sstring> keyspace_names, snapshot_options opts = {} );
future<> do_take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, snapshot_options opts = {});
future<> do_take_snapshot(sstring tag, std::vector<sstring> keyspace_names, skip_flush sf = skip_flush::no);
future<> do_take_column_family_snapshot(sstring ks_name, std::vector<sstring> tables, sstring tag, skip_flush sf = skip_flush::no);
};
}

View File

@@ -137,8 +137,6 @@ namespace {
system_keyspace::ROLE_PERMISSIONS,
system_keyspace::DICTS,
system_keyspace::VIEW_BUILDING_TASKS,
// repair tasks
system_keyspace::REPAIR_TASKS,
};
if (ks_name == system_keyspace::NAME && tables.contains(cf_name)) {
props.is_group0_table = true;
@@ -464,24 +462,6 @@ schema_ptr system_keyspace::repair_history() {
return schema;
}
schema_ptr system_keyspace::repair_tasks() {
static thread_local auto schema = [] {
auto id = generate_legacy_id(NAME, REPAIR_TASKS);
return schema_builder(NAME, REPAIR_TASKS, std::optional(id))
.with_column("task_uuid", uuid_type, column_kind::partition_key)
.with_column("operation", utf8_type, column_kind::clustering_key)
// First and last token for of the tablet
.with_column("first_token", long_type, column_kind::clustering_key)
.with_column("last_token", long_type, column_kind::clustering_key)
.with_column("timestamp", timestamp_type)
.with_column("table_uuid", uuid_type, column_kind::static_column)
.set_comment("Record tablet repair tasks")
.with_hash_version()
.build();
}();
return schema;
}
schema_ptr system_keyspace::built_indexes() {
static thread_local auto built_indexes = [] {
schema_builder builder(generate_legacy_id(NAME, BUILT_INDEXES), NAME, BUILT_INDEXES,
@@ -867,6 +847,8 @@ schema_ptr system_keyspace::corrupt_data() {
return corrupt_data;
}
static constexpr auto schema_gc_grace = std::chrono::duration_cast<std::chrono::seconds>(days(7)).count();
/*static*/ schema_ptr system_keyspace::scylla_local() {
static thread_local auto scylla_local = [] {
schema_builder builder(generate_legacy_id(NAME, SCYLLA_LOCAL), NAME, SCYLLA_LOCAL,
@@ -1378,6 +1360,289 @@ schema_ptr system_keyspace::role_permissions() {
return schema;
}
schema_ptr system_keyspace::legacy::hints() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, HINTS), NAME, HINTS,
// partition key
{{"target_id", uuid_type}},
// clustering key
{{"hint_id", timeuuid_type}, {"message_version", int32_type}},
// regular columns
{{"mutation", bytes_type}},
// static columns
{},
// regular column name type
utf8_type,
// comment
"*DEPRECATED* hints awaiting delivery"
);
builder.set_gc_grace_seconds(0);
builder.set_compaction_strategy(compaction::compaction_strategy_type::incremental);
builder.set_compaction_strategy_options({{"enabled", "false"}});
builder.with(schema_builder::compact_storage::yes);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::batchlog() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, BATCHLOG), NAME, BATCHLOG,
// partition key
{{"id", uuid_type}},
// clustering key
{},
// regular columns
{{"data", bytes_type}, {"version", int32_type}, {"written_at", timestamp_type}},
// static columns
{},
// regular column name type
utf8_type,
// comment
"*DEPRECATED* batchlog entries"
);
builder.set_gc_grace_seconds(0);
builder.set_compaction_strategy(compaction::compaction_strategy_type::incremental);
builder.set_compaction_strategy_options({{"min_threshold", "2"}});
builder.with(schema_builder::compact_storage::no);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::keyspaces() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, KEYSPACES), NAME, KEYSPACES,
// partition key
{{"keyspace_name", utf8_type}},
// clustering key
{},
// regular columns
{
{"durable_writes", boolean_type},
{"strategy_class", utf8_type},
{"strategy_options", utf8_type}
},
// static columns
{},
// regular column name type
utf8_type,
// comment
"*DEPRECATED* keyspace definitions"
);
builder.set_gc_grace_seconds(schema_gc_grace);
builder.with(schema_builder::compact_storage::yes);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::column_families() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, COLUMNFAMILIES), NAME, COLUMNFAMILIES,
// partition key
{{"keyspace_name", utf8_type}},
// clustering key
{{"columnfamily_name", utf8_type}},
// regular columns
{
{"bloom_filter_fp_chance", double_type},
{"caching", utf8_type},
{"cf_id", uuid_type},
{"comment", utf8_type},
{"compaction_strategy_class", utf8_type},
{"compaction_strategy_options", utf8_type},
{"comparator", utf8_type},
{"compression_parameters", utf8_type},
{"default_time_to_live", int32_type},
{"default_validator", utf8_type},
{"dropped_columns", map_type_impl::get_instance(utf8_type, long_type, true)},
{"gc_grace_seconds", int32_type},
{"is_dense", boolean_type},
{"key_validator", utf8_type},
{"max_compaction_threshold", int32_type},
{"max_index_interval", int32_type},
{"memtable_flush_period_in_ms", int32_type},
{"min_compaction_threshold", int32_type},
{"min_index_interval", int32_type},
{"speculative_retry", utf8_type},
{"subcomparator", utf8_type},
{"type", utf8_type},
// The following 4 columns are only present up until 2.1.8 tables
{"key_aliases", utf8_type},
{"value_alias", utf8_type},
{"column_aliases", utf8_type},
{"index_interval", int32_type},},
// static columns
{},
// regular column name type
utf8_type,
// comment
"*DEPRECATED* table definitions"
);
builder.set_gc_grace_seconds(schema_gc_grace);
builder.with(schema_builder::compact_storage::no);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::columns() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, COLUMNS), NAME, COLUMNS,
// partition key
{{"keyspace_name", utf8_type}},
// clustering key
{{"columnfamily_name", utf8_type}, {"column_name", utf8_type}},
// regular columns
{
{"component_index", int32_type},
{"index_name", utf8_type},
{"index_options", utf8_type},
{"index_type", utf8_type},
{"type", utf8_type},
{"validator", utf8_type},
},
// static columns
{},
// regular column name type
utf8_type,
// comment
"column definitions"
);
builder.set_gc_grace_seconds(schema_gc_grace);
builder.with(schema_builder::compact_storage::no);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::triggers() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, TRIGGERS), NAME, TRIGGERS,
// partition key
{{"keyspace_name", utf8_type}},
// clustering key
{{"columnfamily_name", utf8_type}, {"trigger_name", utf8_type}},
// regular columns
{
{"trigger_options", map_type_impl::get_instance(utf8_type, utf8_type, true)},
},
// static columns
{},
// regular column name type
utf8_type,
// comment
"trigger definitions"
);
builder.set_gc_grace_seconds(schema_gc_grace);
builder.with(schema_builder::compact_storage::no);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::usertypes() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, USERTYPES), NAME, USERTYPES,
// partition key
{{"keyspace_name", utf8_type}},
// clustering key
{{"type_name", utf8_type}},
// regular columns
{
{"field_names", list_type_impl::get_instance(utf8_type, true)},
{"field_types", list_type_impl::get_instance(utf8_type, true)},
},
// static columns
{},
// regular column name type
utf8_type,
// comment
"user defined type definitions"
);
builder.set_gc_grace_seconds(schema_gc_grace);
builder.with(schema_builder::compact_storage::no);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::functions() {
/**
* Note: we have our own "legacy" version of this table (in schema_tables),
* but it is (afaik) not used, and differs slightly from the origin one.
* This is based on the origin schema, since we're more likely to encounter
* installations of that to migrate, rather than our own (if we dont use the table).
*/
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, FUNCTIONS), NAME, FUNCTIONS,
// partition key
{{"keyspace_name", utf8_type}},
// clustering key
{{"function_name", utf8_type},{"signature", list_type_impl::get_instance(utf8_type, false)}},
// regular columns
{
{"argument_names", list_type_impl::get_instance(utf8_type, true)},
{"argument_types", list_type_impl::get_instance(utf8_type, true)},
{"body", utf8_type},
{"language", utf8_type},
{"return_type", utf8_type},
{"called_on_null_input", boolean_type},
},
// static columns
{},
// regular column name type
utf8_type,
// comment
"*DEPRECATED* user defined type definitions"
);
builder.set_gc_grace_seconds(schema_gc_grace);
builder.with(schema_builder::compact_storage::no);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::legacy::aggregates() {
static thread_local auto schema = [] {
schema_builder builder(generate_legacy_id(NAME, AGGREGATES), NAME, AGGREGATES,
// partition key
{{"keyspace_name", utf8_type}},
// clustering key
{{"aggregate_name", utf8_type},{"signature", list_type_impl::get_instance(utf8_type, false)}},
// regular columns
{
{"argument_types", list_type_impl::get_instance(utf8_type, true)},
{"final_func", utf8_type},
{"initcond", bytes_type},
{"return_type", utf8_type},
{"state_func", utf8_type},
{"state_type", utf8_type},
},
// static columns
{},
// regular column name type
utf8_type,
// comment
"*DEPRECATED* user defined aggregate definition"
);
builder.set_gc_grace_seconds(schema_gc_grace);
builder.with(schema_builder::compact_storage::no);
builder.with_hash_version();
return builder.build();
}();
return schema;
}
schema_ptr system_keyspace::dicts() {
static thread_local auto schema = [] {
auto id = generate_legacy_id(NAME, DICTS);
@@ -2331,7 +2596,6 @@ std::vector<schema_ptr> system_keyspace::all_tables(const db::config& cfg) {
corrupt_data(),
scylla_local(), db::schema_tables::scylla_table_schema_history(),
repair_history(),
repair_tasks(),
v3::views_builds_in_progress(), v3::built_views(),
v3::scylla_views_builds_in_progress(),
v3::truncated(),
@@ -2351,6 +2615,13 @@ std::vector<schema_ptr> system_keyspace::all_tables(const db::config& cfg) {
if (cfg.check_experimental(db::experimental_features_t::feature::KEYSPACE_STORAGE_OPTIONS)) {
r.insert(r.end(), {sstables_registry()});
}
// legacy schema
r.insert(r.end(), {
// TODO: once we migrate hints/batchlog and add converter
// legacy::hints(), legacy::batchlog(),
legacy::keyspaces(), legacy::column_families(),
legacy::columns(), legacy::triggers(), legacy::usertypes(),
legacy::functions(), legacy::aggregates(), });
return r;
}
@@ -2573,32 +2844,6 @@ future<> system_keyspace::get_repair_history(::table_id table_id, repair_history
});
}
future<utils::chunked_vector<canonical_mutation>> system_keyspace::get_update_repair_task_mutations(const repair_task_entry& entry, api::timestamp_type ts) {
// Default to timeout the repair task entries in 10 days, this should be enough time for the management tools to query
constexpr int ttl = 10 * 24 * 3600;
sstring req = format("INSERT INTO system.{} (task_uuid, operation, first_token, last_token, timestamp, table_uuid) VALUES (?, ?, ?, ?, ?, ?) USING TTL {}", REPAIR_TASKS, ttl);
auto muts = co_await _qp.get_mutations_internal(req, internal_system_query_state(), ts,
{entry.task_uuid.uuid(), repair_task_operation_to_string(entry.operation),
entry.first_token, entry.last_token, entry.timestamp, entry.table_uuid.uuid()});
utils::chunked_vector<canonical_mutation> cmuts = {muts.begin(), muts.end()};
co_return cmuts;
}
future<> system_keyspace::get_repair_task(tasks::task_id task_uuid, repair_task_consumer f) {
sstring req = format("SELECT * from system.{} WHERE task_uuid = {}", REPAIR_TASKS, task_uuid);
co_await _qp.query_internal(req, [&f] (const cql3::untyped_result_set::row& row) mutable -> future<stop_iteration> {
repair_task_entry ent;
ent.task_uuid = tasks::task_id(row.get_as<utils::UUID>("task_uuid"));
ent.operation = repair_task_operation_from_string(row.get_as<sstring>("operation"));
ent.first_token = row.get_as<int64_t>("first_token");
ent.last_token = row.get_as<int64_t>("last_token");
ent.timestamp = row.get_as<db_clock::time_point>("timestamp");
ent.table_uuid = ::table_id(row.get_as<utils::UUID>("table_uuid"));
co_await f(std::move(ent));
co_return stop_iteration::no;
});
}
future<gms::generation_type> system_keyspace::increment_and_get_generation() {
auto req = format("SELECT gossip_generation FROM system.{} WHERE key='{}'", LOCAL, LOCAL);
auto rs = co_await _qp.execute_internal(req, cql3::query_processor::cache_internal::yes);
@@ -3770,35 +4015,4 @@ future<> system_keyspace::apply_mutation(mutation m) {
return _qp.proxy().mutate_locally(m, {}, db::commitlog::force_sync(m.schema()->static_props().wait_for_sync_to_commitlog), db::no_timeout);
}
// The names are persisted in system tables so should not be changed.
static const std::unordered_map<system_keyspace::repair_task_operation, sstring> repair_task_operation_to_name = {
{system_keyspace::repair_task_operation::requested, "requested"},
{system_keyspace::repair_task_operation::finished, "finished"},
};
static const std::unordered_map<sstring, system_keyspace::repair_task_operation> repair_task_operation_from_name = std::invoke([] {
std::unordered_map<sstring, system_keyspace::repair_task_operation> result;
for (auto&& [v, s] : repair_task_operation_to_name) {
result.emplace(s, v);
}
return result;
});
sstring system_keyspace::repair_task_operation_to_string(system_keyspace::repair_task_operation op) {
auto i = repair_task_operation_to_name.find(op);
if (i == repair_task_operation_to_name.end()) {
on_internal_error(slogger, format("Invalid repair task operation: {}", static_cast<int>(op)));
}
return i->second;
}
system_keyspace::repair_task_operation system_keyspace::repair_task_operation_from_string(const sstring& name) {
return repair_task_operation_from_name.at(name);
}
} // namespace db
auto fmt::formatter<db::system_keyspace::repair_task_operation>::format(const db::system_keyspace::repair_task_operation& op, fmt::format_context& ctx) const
-> decltype(ctx.out()) {
return fmt::format_to(ctx.out(), "{}", db::system_keyspace::repair_task_operation_to_string(op));
}

View File

@@ -57,8 +57,6 @@ namespace paxos {
struct topology_request_state;
class group0_guard;
class raft_group0_client;
}
namespace netw {
@@ -186,7 +184,6 @@ public:
static constexpr auto RAFT_SNAPSHOTS = "raft_snapshots";
static constexpr auto RAFT_SNAPSHOT_CONFIG = "raft_snapshot_config";
static constexpr auto REPAIR_HISTORY = "repair_history";
static constexpr auto REPAIR_TASKS = "repair_tasks";
static constexpr auto GROUP0_HISTORY = "group0_history";
static constexpr auto DISCOVERY = "discovery";
static constexpr auto BROADCAST_KV_STORE = "broadcast_kv_store";
@@ -244,6 +241,28 @@ public:
static schema_ptr cdc_local();
};
struct legacy {
static constexpr auto HINTS = "hints";
static constexpr auto BATCHLOG = "batchlog";
static constexpr auto KEYSPACES = "schema_keyspaces";
static constexpr auto COLUMNFAMILIES = "schema_columnfamilies";
static constexpr auto COLUMNS = "schema_columns";
static constexpr auto TRIGGERS = "schema_triggers";
static constexpr auto USERTYPES = "schema_usertypes";
static constexpr auto FUNCTIONS = "schema_functions";
static constexpr auto AGGREGATES = "schema_aggregates";
static schema_ptr keyspaces();
static schema_ptr column_families();
static schema_ptr columns();
static schema_ptr triggers();
static schema_ptr usertypes();
static schema_ptr functions();
static schema_ptr aggregates();
static schema_ptr hints();
static schema_ptr batchlog();
};
// Partition estimates for a given range of tokens.
struct range_estimates {
schema_ptr schema;
@@ -263,7 +282,6 @@ public:
static schema_ptr raft();
static schema_ptr raft_snapshots();
static schema_ptr repair_history();
static schema_ptr repair_tasks();
static schema_ptr group0_history();
static schema_ptr discovery();
static schema_ptr broadcast_kv_store();
@@ -402,22 +420,6 @@ public:
int64_t range_end;
};
enum class repair_task_operation {
requested,
finished,
};
static sstring repair_task_operation_to_string(repair_task_operation op);
static repair_task_operation repair_task_operation_from_string(const sstring& name);
struct repair_task_entry {
tasks::task_id task_uuid;
repair_task_operation operation;
int64_t first_token;
int64_t last_token;
db_clock::time_point timestamp;
table_id table_uuid;
};
struct topology_requests_entry {
utils::UUID id;
utils::UUID initiating_host;
@@ -439,10 +441,6 @@ public:
using repair_history_consumer = noncopyable_function<future<>(const repair_history_entry&)>;
future<> get_repair_history(table_id, repair_history_consumer f);
future<utils::chunked_vector<canonical_mutation>> get_update_repair_task_mutations(const repair_task_entry& entry, api::timestamp_type ts);
using repair_task_consumer = noncopyable_function<future<>(const repair_task_entry&)>;
future<> get_repair_task(tasks::task_id task_uuid, repair_task_consumer f);
future<> save_truncation_record(const replica::column_family&, db_clock::time_point truncated_at, db::replay_position);
future<replay_positions> get_truncated_positions(table_id);
future<> drop_truncation_rp_records();
@@ -750,8 +748,3 @@ public:
}; // class system_keyspace
} // namespace db
template <>
struct fmt::formatter<db::system_keyspace::repair_task_operation> : fmt::formatter<string_view> {
auto format(const db::system_keyspace::repair_task_operation&, fmt::format_context& ctx) const -> decltype(ctx.out());
};

View File

@@ -78,6 +78,7 @@
#include "readers/multishard.hh"
#include "readers/filtering.hh"
#include "delete_ghost_rows_visitor.hh"
#include "keys/clustering_interval_set.hh"
#include "locator/host_id.hh"
#include "cartesian_product.hh"
#include "idl/view.dist.hh"
@@ -1658,7 +1659,10 @@ future<query::clustering_row_ranges> calculate_affected_clustering_ranges(data_d
const dht::decorated_key& key,
const mutation_partition& mp,
const std::vector<view_ptr>& views) {
// WARNING: interval<clustering_key_prefix_view> is unsafe - refer to scylladb#22817 and scylladb#21604
// FIXME: This function should be refactored to use position_range and clustering_interval_set
// instead of interval<clustering_key_prefix_view> to avoid issues with intersection and deoverlap.
// See scylladb#22817, scylladb#21604, and scylladb#8157 for details.
// The current implementation uses unsafe operations that can return incorrect results.
utils::chunked_vector<interval<clustering_key_prefix_view>> row_ranges;
utils::chunked_vector<interval<clustering_key_prefix_view>> view_row_ranges;
clustering_key_prefix_view::tri_compare cmp(base);
@@ -1684,7 +1688,10 @@ future<query::clustering_row_ranges> calculate_affected_clustering_ranges(data_d
bound_view::to_interval_bound<interval>(rt.start_bound()),
bound_view::to_interval_bound<interval>(rt.end_bound()));
for (auto&& vr : view_row_ranges) {
// WARNING: interval<clustering_key_prefix_view>::intersection can return incorrect results - refer to scylladb#8157 and scylladb#21604
// FIXME: interval<clustering_key_prefix_view>::intersection can return incorrect results
// (scylladb#8157, scylladb#21604). This should be refactored to use position_range.
// Proper fix: Convert to position_range, check overlap using position_range::overlaps(),
// compute intersection manually with position_in_partition comparisons.
auto overlap = rtr.intersection(vr, cmp);
if (overlap) {
row_ranges.push_back(std::move(overlap).value());
@@ -1708,15 +1715,18 @@ future<query::clustering_row_ranges> calculate_affected_clustering_ranges(data_d
// content, in case the view includes a column that is not included in
// this mutation.
query::clustering_row_ranges result_ranges;
// FIXME: scylladb#22817 - interval<clustering_key_prefix_view>::deoverlap can return incorrect results
auto deoverlapped_ranges = interval<clustering_key_prefix_view>::deoverlap(std::move(row_ranges), cmp);
result_ranges.reserve(deoverlapped_ranges.size());
for (auto&& r : deoverlapped_ranges) {
result_ranges.emplace_back(std::move(r).transform([] (auto&& ckv) { return clustering_key_prefix(ckv); }));
co_await coroutine::maybe_yield();
// FIXME: interval<clustering_key_prefix_view>::deoverlap can return incorrect results (scylladb#22817)
// Proper fix: Convert row_ranges to clustering_row_ranges, then use clustering_interval_set
// which handles deoverlapping correctly via position_range internally.
query::clustering_row_ranges temp_ranges;
temp_ranges.reserve(row_ranges.size());
for (auto&& r : row_ranges) {
temp_ranges.emplace_back(std::move(r).transform([] (auto&& ckv) { return clustering_key_prefix(ckv); }));
}
co_return result_ranges;
// Use clustering_interval_set for correct deoverlapping (fixes scylladb#22817)
clustering_interval_set interval_set(base, temp_ranges);
co_return interval_set.to_clustering_row_ranges();
}
bool needs_static_row(const mutation_partition& mp, const std::vector<view_ptr>& views) {

View File

@@ -1 +1 @@
SCYLLA_NODE_EXPORTER_ARGS="--collector.interrupts --collector.ethtool.metrics-include='(bw_in_allowance_exceeded|bw_out_allowance_exceeded|conntrack_allowance_exceeded|conntrack_allowance_available|linklocal_allowance_exceeded)' --collector.ethtool --no-collector.hwmon --no-collector.bcache --no-collector.btrfs --no-collector.fibrechannel --no-collector.infiniband --no-collector.ipvs --no-collector.nfs --no-collector.nfsd --no-collector.powersupplyclass --no-collector.rapl --no-collector.tapestats --no-collector.thermal_zone --no-collector.udp_queues --no-collector.zfs"
SCYLLA_NODE_EXPORTER_ARGS="--collector.interrupts --no-collector.hwmon --no-collector.bcache --no-collector.btrfs --no-collector.fibrechannel --no-collector.infiniband --no-collector.ipvs --no-collector.nfs --no-collector.nfsd --no-collector.powersupplyclass --no-collector.rapl --no-collector.tapestats --no-collector.thermal_zone --no-collector.udp_queues --no-collector.zfs"

View File

@@ -0,0 +1,156 @@
# Clustering Range to Position Range Migration
## Background
The `clustering_range` type (alias for `interval<clustering_key_prefix>`) has known issues with operations like `intersection()` and `deoverlap()` that can return incorrect results due to the complexity of comparing clustering key prefixes with different inclusiveness on bounds.
See issues:
- #22817 - `interval<clustering_key_prefix>::deoverlap` can return incorrect results
- #21604 - Problems with clustering range operations
- #8157 - `interval<clustering_key_prefix_view>::intersection` can return incorrect results
The `position_range` class was introduced as a safer alternative that represents clustering ranges as a pair of `position_in_partition` objects, avoiding the problematic interval semantics.
## Migration Strategy
### 1. Feature Flag
A new `gms::feature` called `"POSITION_RANGE"` has been added to `gms/feature_service.hh`. This feature gates the use of position_range in RPC interfaces to ensure backward compatibility during rolling upgrades.
### 2. IDL Support
The `position_range` class has been added to `idl/position_in_partition.idl.hh` to support serialization in RPC verbs.
### 3. Internal Code Migration
Internal code should be migrated to use `position_range` instead of `clustering_range` wherever possible. This migration should be done incrementally:
#### Priority Areas
1. **Functions with known problematic operations**:
- Any code using `clustering_range::intersection()`
- Any code using `clustering_range::deoverlap()`
- See marked locations in:
- `db/view/view.cc` (lines 1687-1713)
- `cql3/statements/cas_request.cc` (line 90-91)
2. **Internal data structures**:
- Readers and iterators that track position ranges
- Cache structures
- Query processing internals
3. **Utility functions**:
- Helper functions that operate on ranges
- Range manipulation and transformation functions
#### Conversion Utilities
Existing converters:
- `position_range::from_range(const query::clustering_range&)` - Convert clustering_range to position_range
- `position_range_to_clustering_range(const position_range&, const schema&)` - Convert position_range to clustering_range (returns optional)
The `clustering_interval_set` class already demonstrates best practices - it uses `position_range` internally and provides conversion methods to/from `clustering_row_ranges`.
Helper utilities in `query/position_range_utils.hh`:
- `clustering_row_ranges_to_position_ranges()` - Batch convert clustering ranges to position ranges
- `position_ranges_to_clustering_row_ranges()` - Batch convert position ranges to clustering ranges
- `deoverlap_clustering_row_ranges()` - Safely deoverlap ranges using clustering_interval_set
- `intersect_clustering_row_ranges()` - Safely intersect ranges using clustering_interval_set
#### Migration Pattern
```cpp
// OLD CODE (problematic):
void process_ranges(const query::clustering_row_ranges& ranges) {
auto deoverlapped = query::clustering_range::deoverlap(ranges, cmp);
// ... use deoverlapped ranges
}
// NEW CODE (using position_range):
void process_ranges(const schema& s, const query::clustering_row_ranges& ranges) {
clustering_interval_set interval_set(s, ranges);
// interval_set handles deoverlapping correctly internally
for (const position_range& r : interval_set) {
// ... use position ranges
}
// Convert back if needed for compatibility
auto result_ranges = interval_set.to_clustering_row_ranges();
}
```
### 4. RPC Interface Migration
RPC interfaces must maintain backward compatibility. The strategy is:
1. Keep existing RPC verbs that use `clustering_range` (in IDL: `std::vector<interval<clustering_key_prefix>>`)
2. Add new RPC verbs that use `position_range`
3. Use the new verbs when `feature_service.position_range` is enabled
#### Example RPC Migration
In `idl/storage_proxy.idl.hh`:
```cpp
// Existing verb (keep for compatibility)
verb [[with_client_info, with_timeout]] read_data (
query::read_command cmd [[ref]],
::compat::wrapping_partition_range pr,
...
) -> query::result [[lw_shared_ptr]], ...;
// New verb using position_range (to be added)
verb [[with_client_info, with_timeout]] read_data_v2 (
query::read_command_v2 cmd [[ref]],
::compat::wrapping_partition_range pr,
...
) -> query::result [[lw_shared_ptr]], ...;
```
Where `read_command_v2` would use a `partition_slice_v2` that contains position ranges instead of clustering ranges.
#### Feature-Gated RPC Selection
```cpp
future<query::result> storage_proxy::query_data(...) {
if (_features.position_range) {
return rpc_verb_read_data_v2(...);
} else {
return rpc_verb_read_data(...);
}
}
```
### 5. Testing
Tests should verify:
1. Correct conversion between clustering_range and position_range
2. Correct behavior of position_range operations
3. RPC compatibility with both old and new verbs
4. Feature flag behavior during rolling upgrades
### 6. Known Limitations
- Not all clustering_range uses can be eliminated - some external interfaces may require them
- The conversion from position_range to clustering_range can return `nullopt` for empty ranges
- Performance implications should be measured for hot paths
## Implementation Checklist
- [x] Add `position_range` feature flag to `gms/feature_service.hh`
- [x] Add `position_range` IDL definition to `idl/position_in_partition.idl.hh`
- [ ] Create new RPC verbs using position_range
- [ ] Add feature-gated RPC selection logic
- [ ] Migrate high-priority problematic code paths:
- [ ] Fix intersection in `db/view/view.cc:1687`
- [ ] Fix deoverlap in `db/view/view.cc:1712`
- [ ] Fix deoverlap in `cql3/statements/cas_request.cc:90`
- [ ] Migrate internal data structures systematically
- [ ] Add comprehensive tests
- [ ] Performance benchmarking
- [ ] Documentation updates
## References
- `mutation/position_in_partition.hh` - position_range definition
- `keys/clustering_interval_set.hh` - Example of correct position_range usage
- Issues: #22817, #21604, #8157

View File

@@ -0,0 +1,271 @@
# Position Range RPC Migration Plan
## Overview
This document outlines the plan for migrating RPC interfaces from `clustering_range` to `position_range` in a backward-compatible manner using feature flags.
## Background
The current RPC interfaces use `clustering_range` (defined as `interval<clustering_key_prefix>`) in structures like `partition_slice` and `read_command`. To enable the use of `position_range` internally while maintaining backward compatibility, we need to:
1. Create new RPC message types that use `position_range`
2. Add new RPC verbs that accept these new types
3. Feature-gate the use of these new verbs based on cluster capabilities
## Feature Flag
A new feature flag `position_range` has been added to `gms::feature_service`:
```cpp
gms::feature position_range { *this, "POSITION_RANGE"sv };
```
This feature will be enabled when all nodes in the cluster support the new RPC verbs.
## IDL Changes
### Already Added
The `position_range` class has been added to `idl/position_in_partition.idl.hh`:
```idl
class position_range {
position_in_partition start();
position_in_partition end();
};
```
### To Be Added
New IDL types need to be created for RPC migration:
#### 1. partition_slice_v2 (in `idl/read_command.idl.hh`)
```idl
namespace query {
class partition_slice_v2 {
std::vector<position_range> default_row_ranges();
utils::small_vector<uint32_t, 8> static_columns;
utils::small_vector<uint32_t, 8> regular_columns;
query::partition_slice::option_set options;
std::unique_ptr<query::specific_ranges> get_specific_ranges();
cql_serialization_format cql_format();
uint32_t partition_row_limit_low_bits();
uint32_t partition_row_limit_high_bits();
};
class read_command_v2 {
table_id cf_id;
table_schema_version schema_version;
query::partition_slice_v2 slice;
uint32_t row_limit_low_bits;
std::chrono::time_point<gc_clock, gc_clock::duration> timestamp;
std::optional<tracing::trace_info> trace_info;
uint32_t partition_limit;
query_id query_uuid;
query::is_first_page is_first_page;
std::optional<query::max_result_size> max_result_size;
uint32_t row_limit_high_bits;
uint64_t tombstone_limit;
};
}
```
#### 2. New RPC Verbs (in `idl/storage_proxy.idl.hh`)
```idl
// New verbs using position_range (to be used when position_range feature is enabled)
verb [[with_client_info, with_timeout]] read_data_v2 (
query::read_command_v2 cmd [[ref]],
::compat::wrapping_partition_range pr,
query::digest_algorithm digest,
db::per_partition_rate_limit::info rate_limit_info,
service::fencing_token fence
) -> query::result [[lw_shared_ptr]],
cache_temperature,
replica::exception_variant;
verb [[with_client_info, with_timeout]] read_mutation_data_v2 (
query::read_command_v2 cmd [[ref]],
::compat::wrapping_partition_range pr,
service::fencing_token fence
) -> reconcilable_result [[lw_shared_ptr]],
cache_temperature,
replica::exception_variant;
verb [[with_client_info, with_timeout]] read_digest_v2 (
query::read_command_v2 cmd [[ref]],
::compat::wrapping_partition_range pr,
query::digest_algorithm digest,
db::per_partition_rate_limit::info rate_limit_info,
service::fencing_token fence
) -> query::result_digest,
api::timestamp_type,
cache_temperature,
replica::exception_variant,
std::optional<full_position>;
```
## Implementation Changes
### 1. C++ Type Definitions
Create C++ implementations for the new IDL types:
```cpp
// In query/query-request.hh or a new header
namespace query {
class partition_slice_v2 {
std::vector<position_range> _row_ranges;
// ... other members same as partition_slice
public:
// Constructors
partition_slice_v2(std::vector<position_range> row_ranges, ...);
// Conversion methods
static partition_slice_v2 from_legacy(const partition_slice& legacy);
partition_slice to_legacy(const schema& s) const;
// Accessors
const std::vector<position_range>& row_ranges() const { return _row_ranges; }
};
class read_command_v2 {
partition_slice_v2 slice;
// ... other members same as read_command
public:
// Constructors
read_command_v2(...);
// Conversion methods
static read_command_v2 from_legacy(const read_command& legacy);
read_command to_legacy(const schema& s) const;
};
}
```
### 2. RPC Handler Implementation
In `service/storage_proxy.cc`, add handlers for the new verbs:
```cpp
future<rpc::tuple<query::result_lw_shared_ptr, cache_temperature, replica::exception_variant>>
storage_proxy::read_data_v2_handler(
query::read_command_v2&& cmd,
compat::wrapping_partition_range&& pr,
query::digest_algorithm da,
db::per_partition_rate_limit::info rate_limit_info,
service::fencing_token fence) {
// Convert to legacy format if needed internally
// Or better: refactor internal implementation to work with position_range
auto legacy_cmd = cmd.to_legacy(*get_schema(cmd.cf_id));
// Call existing implementation
return read_data_handler(std::move(legacy_cmd), std::move(pr), da, rate_limit_info, fence);
}
```
### 3. RPC Client Selection
In code that invokes RPCs (e.g., `storage_proxy::query_result`), add feature detection:
```cpp
future<query::result> storage_proxy::query_data(...) {
if (_features.position_range) {
// Use new verb with position_range
auto cmd_v2 = read_command_v2::from_legacy(cmd);
return rpc_verb_read_data_v2(std::move(cmd_v2), ...);
} else {
// Use legacy verb with clustering_range
return rpc_verb_read_data(std::move(cmd), ...);
}
}
```
## Migration Strategy
### Phase 1: Foundation (Complete)
- [x] Add `position_range` feature flag
- [x] Add `position_range` IDL definition
- [x] Fix critical clustering_range bugs using clustering_interval_set
### Phase 2: RPC Infrastructure (To Do)
- [ ] Add `partition_slice_v2` IDL definition
- [ ] Add `read_command_v2` IDL definition
- [ ] Add new RPC verbs (`read_data_v2`, etc.)
- [ ] Implement conversion methods between v1 and v2 types
- [ ] Add RPC handlers for new verbs
### Phase 3: Client Migration (To Do)
- [ ] Update RPC clients to check feature flag
- [ ] Add logic to select appropriate verb based on feature availability
- [ ] Test backward compatibility during rolling upgrades
### Phase 4: Internal Refactoring (To Do)
- [ ] Gradually refactor internal implementations to use position_range natively
- [ ] Remove conversion overhead once both versions are established
- [ ] Update documentation and examples
### Phase 5: Deprecation (Future)
- [ ] Once all production clusters are upgraded, consider deprecating v1 verbs
- [ ] Remove legacy code after sufficient time has passed
## Testing
### Unit Tests
- Test conversion between partition_slice and partition_slice_v2
- Test conversion between read_command and read_command_v2
- Verify that converted types produce equivalent results
### Integration Tests
- Test RPC calls using both old and new verbs
- Verify feature flag behavior during rolling upgrades
- Test mixed-version clusters
### Backward Compatibility Tests
- Ensure old clients can still communicate with new servers
- Ensure new clients fall back to old verbs when feature is disabled
## Performance Considerations
1. **Conversion Overhead**: During the transition period, conversions between v1 and v2 types add overhead. This should be measured and minimized.
2. **Memory Usage**: position_range may have different memory characteristics than clustering_range. Monitor memory usage after migration.
3. **Serialization Size**: Compare wire format sizes to ensure no significant increase in network traffic.
## Risks and Mitigation
### Risk: Conversion Bugs
**Mitigation**: Comprehensive unit tests for all conversion paths, particularly edge cases like empty ranges and open-ended ranges.
### Risk: Feature Flag Synchronization
**Mitigation**: Use standard Scylla feature propagation mechanisms. Ensure feature is only enabled when all nodes support it.
### Risk: Performance Regression
**Mitigation**: Performance benchmarks comparing old and new implementations. Have rollback plan if issues are discovered.
## Alternative Approaches Considered
### 1. Direct Migration Without Feature Flag
**Rejected**: Too risky for rolling upgrades. Would require all-at-once cluster upgrade.
### 2. Transparent Conversion in IDL Layer
**Rejected**: Would hide the distinction between old and new formats, making debugging harder.
### 3. Maintain Both Forever
**Rejected**: Increases maintenance burden without clear benefit once migration is complete.
## References
- Main migration guide: `docs/dev/clustering-range-to-position-range-migration.md`
- Issues: #22817, #21604, #8157
- Feature service: `gms/feature_service.hh`
- IDL definitions: `idl/position_in_partition.idl.hh`, `idl/read_command.idl.hh`

View File

@@ -110,6 +110,7 @@ To display the log classes (output changes with each version so your display may
keys
keyspace_utils
large_data
legacy_schema_migrator
lister
load_balancer
load_broadcaster

View File

@@ -17,7 +17,7 @@ SYNOPSIS
[(-u <username> | --username <username>)] snapshot
[(-cf <table> | --column-family <table> | --table <table>)]
[(-kc <kclist> | --kc.list <kclist>)]
[(-sf | --skip-flush)] [--use-sstable-identifier] [(-t <tag> | --tag <tag>)] [--] [<keyspaces...>]
[(-sf | --skip-flush)] [(-t <tag> | --tag <tag>)] [--] [<keyspaces...>]
OPTIONS
.......
@@ -37,8 +37,6 @@ Parameter Descriptio
-------------------------------------------------------------------- -------------------------------------------------------------------------------------
-sf / --skip-flush Do not flush memtables before snapshotting (snapshot will not contain unflushed data)
-------------------------------------------------------------------- -------------------------------------------------------------------------------------
--use-sstable-identifier Use the sstable identifier UUID, if available, rather than the sstable generation.
-------------------------------------------------------------------- -------------------------------------------------------------------------------------
-t <tag> / --tag <tag> The name of the snapshot
==================================================================== =====================================================================================

8
docs/poetry.lock generated
View File

@@ -1018,14 +1018,14 @@ sphinx-markdown-tables = "0.0.17"
[[package]]
name = "sphinx-scylladb-theme"
version = "1.8.10"
version = "1.8.9"
description = "A Sphinx Theme for ScyllaDB documentation projects"
optional = false
python-versions = "<4.0,>=3.10"
groups = ["main"]
files = [
{file = "sphinx_scylladb_theme-1.8.10-py3-none-any.whl", hash = "sha256:8b930f33bec7308ccaa92698ebb5ad85059bcbf93a463f92917aeaf473fce632"},
{file = "sphinx_scylladb_theme-1.8.10.tar.gz", hash = "sha256:8a78a9b692d9a946be2c4a64aa472fd82204cc8ea0b1ee7f60de6db35b356326"},
{file = "sphinx_scylladb_theme-1.8.9-py3-none-any.whl", hash = "sha256:f8649a7753a29494fd2b417d1cb855035dddb9ebd498ea033fd73f5f9338271e"},
{file = "sphinx_scylladb_theme-1.8.9.tar.gz", hash = "sha256:ab7cda4c10a0d067c5c3a45f7b1f68cb8ebefe135a0be0738bfa282a344769b6"},
]
[package.dependencies]
@@ -1603,4 +1603,4 @@ files = [
[metadata]
lock-version = "2.1"
python-versions = "^3.10"
content-hash = "0ae673106f45d3465cbdabbf511e165ca44feadd34d7753f2e68093afaa95c79"
content-hash = "74912627a3f424290ed7889451c0bdb1a862ab85b1d07c85f4f3b8c34f32a020"

View File

@@ -9,7 +9,7 @@ package-mode = false
python = "^3.10"
pygments = "^2.18.0"
redirects_cli ="^0.1.3"
sphinx-scylladb-theme = "^1.8.10"
sphinx-scylladb-theme = "^1.8.9"
sphinx-sitemap = "^2.6.0"
sphinx-autobuild = "^2024.4.19"
Sphinx = "^7.3.7"

View File

@@ -143,7 +143,6 @@ public:
gms::feature tablet_incremental_repair { *this, "TABLET_INCREMENTAL_REPAIR"sv };
gms::feature tablet_repair_scheduler { *this, "TABLET_REPAIR_SCHEDULER"sv };
gms::feature tablet_repair_tasks_table { *this, "TABLET_REPAIR_TASKS_TABLE"sv };
gms::feature tablet_merge { *this, "TABLET_MERGE"sv };
gms::feature tablet_rack_aware_view_pairing { *this, "TABLET_RACK_AWARE_VIEW_PAIRING"sv };
@@ -177,6 +176,8 @@ public:
gms::feature rack_list_rf { *this, "RACK_LIST_RF"sv };
gms::feature driver_service_level { *this, "DRIVER_SERVICE_LEVEL"sv };
gms::feature strongly_consistent_tables { *this, "STRONGLY_CONSISTENT_TABLES"sv };
// Enable position_range in RPC interfaces instead of clustering_range
gms::feature position_range { *this, "POSITION_RANGE"sv };
public:
const std::unordered_map<sstring, std::reference_wrapper<feature>>& registered_features() const;

View File

@@ -26,3 +26,8 @@ class position_in_partition {
bound_weight get_bound_weight();
std::optional<clustering_key_prefix> get_clustering_key_prefix();
};
class position_range {
position_in_partition start();
position_in_partition end();
};

View File

@@ -129,6 +129,6 @@ struct direct_fd_ping_reply {
std::variant<std::monostate, service::wrong_destination, service::group_liveness_info> result;
};
verb [[with_client_info, with_timeout, cancellable]] direct_fd_ping (raft::server_id dst_id) -> service::direct_fd_ping_reply;
verb [[with_client_info, cancellable]] direct_fd_ping (raft::server_id dst_id) -> service::direct_fd_ping_reply;
} // namespace service

View File

@@ -39,6 +39,7 @@
#include "api/api_init.hh"
#include "db/config.hh"
#include "db/extensions.hh"
#include "db/legacy_schema_migrator.hh"
#include "service/storage_service.hh"
#include "service/migration_manager.hh"
#include "service/tablet_allocator.hh"
@@ -1640,7 +1641,7 @@ To start the scylla server proper, simply invoke as: scylla server (or just scyl
fd.start(
std::ref(fd_pinger), std::ref(fd_clock),
service::direct_fd_clock::base::duration{std::chrono::milliseconds{100}}.count(),
service::direct_fd_clock::base::duration{std::chrono::milliseconds{cfg->direct_failure_detector_ping_timeout_in_ms()}}.count(), dbcfg.gossip_scheduling_group).get();
service::direct_fd_clock::base::duration{std::chrono::milliseconds{cfg->direct_failure_detector_ping_timeout_in_ms()}}.count()).get();
auto stop_fd = defer_verbose_shutdown("direct_failure_detector", [] {
fd.stop().get();
@@ -1850,6 +1851,8 @@ To start the scylla server proper, simply invoke as: scylla server (or just scyl
group0_client.init().get();
checkpoint(stop_signal, "initializing system schema");
// schema migration, if needed, is also done on shard 0
db::legacy_schema_migrator::migrate(proxy, db, sys_ks, qp.local()).get();
db::schema_tables::save_system_schema(qp.local()).get();
db::schema_tables::recalculate_schema_version(sys_ks, proxy, feature_service.local()).get();

View File

@@ -686,7 +686,6 @@ static constexpr unsigned do_get_rpc_client_idx(messaging_verb verb) {
case messaging_verb::RAFT_MODIFY_CONFIG:
case messaging_verb::RAFT_PULL_SNAPSHOT:
case messaging_verb::NOTIFY_BANNED:
case messaging_verb::DIRECT_FD_PING:
// See comment above `TOPOLOGY_INDEPENDENT_IDX`.
// DO NOT put any 'hot' (e.g. data path) verbs in this group,
// only verbs which are 'rare' and 'cheap'.
@@ -748,6 +747,7 @@ static constexpr unsigned do_get_rpc_client_idx(messaging_verb verb) {
case messaging_verb::PAXOS_ACCEPT:
case messaging_verb::PAXOS_LEARN:
case messaging_verb::PAXOS_PRUNE:
case messaging_verb::DIRECT_FD_PING:
return 2;
case messaging_verb::MUTATION_DONE:
case messaging_verb::MUTATION_FAILED:

View File

@@ -575,15 +575,10 @@ utils::coroutine partition_entry::apply_to_incomplete(const schema& s,
}
res.row.set_range_tombstone(cur.range_tombstone_for_row() + src_cur.range_tombstone());
if (need_preempt()) {
lb = position_in_partition(cur.position());
++tracker.get_stats().rows_covered_by_range_tombstones_from_memtable;
return stop_iteration::no;
}
// FIXME: Compact the row
++tracker.get_stats().rows_covered_by_range_tombstones_from_memtable;
cur.next();
// FIXME: preempt
}
}
{

View File

@@ -0,0 +1,70 @@
/*
* Copyright (C) 2025-present ScyllaDB
*/
/*
* SPDX-License-Identifier: LicenseRef-ScyllaDB-Source-Available-1.0
*/
#pragma once
#include "mutation/position_in_partition.hh"
#include "query/query-request.hh"
#include "keys/clustering_interval_set.hh"
namespace query {
/// Helper utilities for working with position_range and migrating from clustering_range.
///
/// These utilities support the gradual migration from clustering_range (interval<clustering_key_prefix>)
/// to position_range. See docs/dev/clustering-range-to-position-range-migration.md for details.
/// Convert a vector of clustering_ranges to a vector of position_ranges
inline std::vector<position_range> clustering_row_ranges_to_position_ranges(const clustering_row_ranges& ranges) {
std::vector<position_range> result;
result.reserve(ranges.size());
for (const auto& r : ranges) {
result.emplace_back(position_range::from_range(r));
}
return result;
}
/// Convert a vector of position_ranges to a vector of clustering_ranges
/// Note: Empty position ranges (those that don't contain any keys) are skipped
inline clustering_row_ranges position_ranges_to_clustering_row_ranges(const std::vector<position_range>& ranges, const schema& s) {
clustering_row_ranges result;
result.reserve(ranges.size());
for (const auto& r : ranges) {
if (auto cr = position_range_to_clustering_range(r, s)) {
result.emplace_back(std::move(*cr));
}
}
return result;
}
/// Deoverlap clustering_row_ranges correctly using clustering_interval_set.
/// This avoids the known bugs with clustering_range::deoverlap (see scylladb#22817, #21604, #8157).
inline clustering_row_ranges deoverlap_clustering_row_ranges(const schema& s, const clustering_row_ranges& ranges) {
clustering_interval_set interval_set(s, ranges);
return interval_set.to_clustering_row_ranges();
}
/// Intersect two clustering_row_ranges correctly using clustering_interval_set.
/// This avoids the known bugs with clustering_range::intersection (see scylladb#22817, #21604, #8157).
inline clustering_row_ranges intersect_clustering_row_ranges(const schema& s,
const clustering_row_ranges& ranges1,
const clustering_row_ranges& ranges2) {
clustering_interval_set set1(s, ranges1);
clustering_interval_set set2(s, ranges2);
clustering_interval_set result;
for (const auto& r : set1) {
if (set2.overlaps(s, r)) {
result.add(s, r);
}
}
return result.to_clustering_row_ranges();
}
} // namespace query

View File

@@ -3844,83 +3844,3 @@ future<uint32_t> repair_service::get_next_repair_meta_id() {
locator::host_id repair_service::my_host_id() const noexcept {
return _gossiper.local().my_host_id();
}
future<size_t> count_finished_tablets(utils::chunked_vector<tablet_token_range> ranges1, utils::chunked_vector<tablet_token_range> ranges2) {
if (ranges1.empty() || ranges2.empty()) {
co_return 0;
}
auto sort = [] (utils::chunked_vector<tablet_token_range>& ranges) {
std::sort(ranges.begin(), ranges.end(), [] (const auto& a, const auto& b) {
if (a.first_token != b.first_token) {
return a.first_token < b.first_token;
}
return a.last_token < b.last_token;
});
};
// First, merge overlapping and adjacent ranges in ranges2.
sort(ranges2);
utils::chunked_vector<tablet_token_range> merged;
merged.push_back(ranges2[0]);
for (size_t i = 1; i < ranges2.size(); ++i) {
co_await coroutine::maybe_yield();
// To avoid overflow with max() + 1, we check adjacency with `a - 1 <= b` instead of `a <= b + 1`
if (ranges2[i].first_token - 1 <= merged.back().last_token) {
merged.back().last_token = std::max(merged.back().last_token, ranges2[i].last_token);
} else {
merged.push_back(ranges2[i]);
}
}
// Count covered ranges using a linear scan
size_t covered_count = 0;
auto it = merged.begin();
auto end = merged.end();
sort(ranges1);
for (const auto& r1 : ranges1) {
co_await coroutine::maybe_yield();
// Advance the merged iterator only if the current merged range ends
// before the current r1 starts.
while (it != end && it->last_token < r1.first_token) {
co_await coroutine::maybe_yield();
++it;
}
// If we have exhausted the merged ranges, no further r1 can be covered
if (it == end) {
break;
}
// Check if the current merged range covers r1.
if (it->first_token <= r1.first_token && r1.last_token <= it->last_token) {
covered_count++;
}
}
co_return covered_count;
}
future<std::optional<repair_task_progress>> repair_service::get_tablet_repair_task_progress(tasks::task_id task_uuid) {
utils::chunked_vector<tablet_token_range> requested_tablets;
utils::chunked_vector<tablet_token_range> finished_tablets;
table_id tid;
if (!_db.local().features().tablet_repair_tasks_table) {
co_return std::nullopt;
}
co_await _sys_ks.local().get_repair_task(task_uuid, [&tid, &requested_tablets, &finished_tablets] (const db::system_keyspace::repair_task_entry& entry) -> future<> {
rlogger.debug("repair_task_progress: Get entry operation={} first_token={} last_token={}", entry.operation, entry.first_token, entry.last_token);
if (entry.operation == db::system_keyspace::repair_task_operation::requested) {
requested_tablets.push_back({entry.first_token, entry.last_token});
} else if (entry.operation == db::system_keyspace::repair_task_operation::finished) {
finished_tablets.push_back({entry.first_token, entry.last_token});
}
tid = entry.table_uuid;
co_return;
});
auto requested = requested_tablets.size();
auto finished_nomerge = finished_tablets.size();
auto finished = co_await count_finished_tablets(std::move(requested_tablets), std::move(finished_tablets));
auto progress = repair_task_progress{requested, finished, tid};
rlogger.debug("repair_task_progress: task_uuid={} table_uuid={} requested_tablets={} finished_tablets={} progress={} finished_nomerge={}",
task_uuid, tid, requested, finished, progress.progress(), finished_nomerge);
co_return progress;
}

View File

@@ -99,15 +99,6 @@ public:
using host2ip_t = std::function<future<gms::inet_address> (locator::host_id)>;
struct repair_task_progress {
size_t requested;
size_t finished;
table_id table_uuid;
float progress() const {
return requested == 0 ? 1.0 : float(finished) / requested;
}
};
class repair_service : public seastar::peering_sharded_service<repair_service> {
sharded<service::topology_state_machine>& _tsm;
sharded<gms::gossiper>& _gossiper;
@@ -231,9 +222,6 @@ private:
public:
future<gc_clock::time_point> repair_tablet(gms::gossip_address_map& addr_map, locator::tablet_metadata_guard& guard, locator::global_tablet_id gid, tasks::task_info global_tablet_repair_task_info, service::frozen_topology_guard topo_guard, std::optional<locator::tablet_replica_set> rebuild_replicas, locator::tablet_transition_stage stage);
future<std::optional<repair_task_progress>> get_tablet_repair_task_progress(tasks::task_id task_uuid);
private:
future<repair_update_system_table_response> repair_update_system_table_handler(
@@ -338,12 +326,3 @@ future<std::list<repair_row>> to_repair_rows_list(repair_rows_on_wire rows,
schema_ptr s, uint64_t seed, repair_master is_master,
reader_permit permit, repair_hasher hasher);
void flush_rows(schema_ptr s, std::list<repair_row>& rows, lw_shared_ptr<repair_writer>& writer, std::optional<small_table_optimization_params> small_table_optimization = std::nullopt, repair_meta* rm = nullptr);
// A struct to hold the first and last token of a tablet.
struct tablet_token_range {
int64_t first_token;
int64_t last_token;
};
// Function to count the number of ranges in ranges1 covered by the merged ranges of ranges2.
future<size_t> count_finished_tablets(utils::chunked_vector<tablet_token_range> ranges1, utils::chunked_vector<tablet_token_range> ranges2);

View File

@@ -2810,26 +2810,26 @@ future<> database::drop_cache_for_keyspace_on_all_shards(sharded<database>& shar
});
}
future<> database::snapshot_table_on_all_shards(sharded<database>& sharded_db, table_id uuid, sstring tag, db::snapshot_options opts) {
if (!opts.skip_flush) {
future<> database::snapshot_table_on_all_shards(sharded<database>& sharded_db, table_id uuid, sstring tag, bool skip_flush) {
if (!skip_flush) {
co_await flush_table_on_all_shards(sharded_db, uuid);
}
auto table_shards = co_await get_table_on_all_shards(sharded_db, uuid);
co_await table::snapshot_on_all_shards(sharded_db, table_shards, tag, opts);
co_await table::snapshot_on_all_shards(sharded_db, table_shards, tag);
}
future<> database::snapshot_tables_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, std::vector<sstring> table_names, sstring tag, db::snapshot_options opts) {
return parallel_for_each(table_names, [&sharded_db, ks_name, tag = std::move(tag), opts] (auto& table_name) {
future<> database::snapshot_tables_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, std::vector<sstring> table_names, sstring tag, bool skip_flush) {
return parallel_for_each(table_names, [&sharded_db, ks_name, tag = std::move(tag), skip_flush] (auto& table_name) {
auto uuid = sharded_db.local().find_uuid(ks_name, table_name);
return snapshot_table_on_all_shards(sharded_db, uuid, tag, opts);
return snapshot_table_on_all_shards(sharded_db, uuid, tag, skip_flush);
});
}
future<> database::snapshot_keyspace_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, sstring tag, db::snapshot_options opts) {
future<> database::snapshot_keyspace_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, sstring tag, bool skip_flush) {
auto& ks = sharded_db.local().find_keyspace(ks_name);
co_await coroutine::parallel_for_each(ks.metadata()->cf_meta_data(), [&, tag = std::move(tag), opts] (const auto& pair) -> future<> {
co_await coroutine::parallel_for_each(ks.metadata()->cf_meta_data(), [&, tag = std::move(tag), skip_flush] (const auto& pair) -> future<> {
auto uuid = pair.second->id();
co_await snapshot_table_on_all_shards(sharded_db, uuid, tag, opts);
co_await snapshot_table_on_all_shards(sharded_db, uuid, tag, skip_flush);
});
}
@@ -2951,12 +2951,7 @@ future<> database::truncate_table_on_all_shards(sharded<database>& sharded_db, s
auto truncated_at = truncated_at_opt.value_or(db_clock::now());
auto name = snapshot_name_opt.value_or(
format("{:d}-{}", truncated_at.time_since_epoch().count(), cf.schema()->cf_name()));
// Use the sstable identifier in snapshot names to allow de-duplication of sstables
// at backup time even if they were migrated across shards or nodes and were renamed a given a new generation.
// We hard-code that here since we have no way to pass this option to auto-snapshot and
// it is always safe to use the sstable identifier for the sstable generation.
auto opts = db::snapshot_options{.use_sstable_identifier = true};
co_await table::snapshot_on_all_shards(sharded_db, table_shards, name, opts);
co_await table::snapshot_on_all_shards(sharded_db, table_shards, name);
}
co_await sharded_db.invoke_on_all([&] (database& db) {

View File

@@ -1040,12 +1040,12 @@ public:
private:
using snapshot_file_set = foreign_ptr<std::unique_ptr<std::unordered_set<sstring>>>;
future<snapshot_file_set> take_snapshot(sstring jsondir, db::snapshot_options opts);
future<snapshot_file_set> take_snapshot(sstring jsondir);
// Writes the table schema and the manifest of all files in the snapshot directory.
future<> finalize_snapshot(const global_table_ptr& table_shards, sstring jsondir, std::vector<snapshot_file_set> file_sets);
static future<> seal_snapshot(sstring jsondir, std::vector<snapshot_file_set> file_sets);
public:
static future<> snapshot_on_all_shards(sharded<database>& sharded_db, const global_table_ptr& table_shards, sstring name, db::snapshot_options opts);
static future<> snapshot_on_all_shards(sharded<database>& sharded_db, const global_table_ptr& table_shards, sstring name);
future<std::unordered_map<sstring, snapshot_details>> get_snapshot_details();
static future<snapshot_details> get_snapshot_details(std::filesystem::path snapshot_dir, std::filesystem::path datadir);
@@ -2009,9 +2009,9 @@ public:
static future<> drop_cache_for_table_on_all_shards(sharded<database>& sharded_db, table_id id);
static future<> drop_cache_for_keyspace_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name);
static future<> snapshot_table_on_all_shards(sharded<database>& sharded_db, table_id id, sstring tag, db::snapshot_options opts);
static future<> snapshot_tables_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, std::vector<sstring> table_names, sstring tag, db::snapshot_options opts);
static future<> snapshot_keyspace_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, sstring tag, db::snapshot_options opts);
static future<> snapshot_table_on_all_shards(sharded<database>& sharded_db, table_id id, sstring tag, bool skip_flush);
static future<> snapshot_tables_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, std::vector<sstring> table_names, sstring tag, bool skip_flush);
static future<> snapshot_keyspace_on_all_shards(sharded<database>& sharded_db, std::string_view ks_name, sstring tag, bool skip_flush);
public:
bool update_column_family(schema_ptr s);

View File

@@ -3268,7 +3268,7 @@ future<> table::write_schema_as_cql(const global_table_ptr& table_shards, sstrin
}
// Runs the orchestration code on an arbitrary shard to balance the load.
future<> table::snapshot_on_all_shards(sharded<database>& sharded_db, const global_table_ptr& table_shards, sstring name, db::snapshot_options opts) {
future<> table::snapshot_on_all_shards(sharded<database>& sharded_db, const global_table_ptr& table_shards, sstring name) {
auto* so = std::get_if<storage_options::local>(&table_shards->get_storage_options().value);
if (so == nullptr) {
throw std::runtime_error("Snapshotting non-local tables is not implemented");
@@ -3291,7 +3291,7 @@ future<> table::snapshot_on_all_shards(sharded<database>& sharded_db, const glob
co_await io_check([&jsondir] { return recursive_touch_directory(jsondir); });
co_await coroutine::parallel_for_each(smp::all_cpus(), [&] (unsigned shard) -> future<> {
file_sets.emplace_back(co_await smp::submit_to(shard, [&] {
return table_shards->take_snapshot(jsondir, opts);
return table_shards->take_snapshot(jsondir);
}));
});
co_await io_check(sync_directory, jsondir);
@@ -3300,22 +3300,19 @@ future<> table::snapshot_on_all_shards(sharded<database>& sharded_db, const glob
});
}
future<table::snapshot_file_set> table::take_snapshot(sstring jsondir, db::snapshot_options opts) {
tlogger.trace("take_snapshot {}: use_sstable_identifier={}", jsondir, opts.use_sstable_identifier);
future<table::snapshot_file_set> table::take_snapshot(sstring jsondir) {
tlogger.trace("take_snapshot {}", jsondir);
auto sstable_deletion_guard = co_await get_sstable_list_permit();
auto tables = *_sstables->all() | std::ranges::to<std::vector<sstables::shared_sstable>>();
auto table_names = std::make_unique<std::unordered_set<sstring>>();
auto& ks_name = schema()->ks_name();
auto& cf_name = schema()->cf_name();
co_await _sstables_manager.dir_semaphore().parallel_for_each(tables, [&, opts] (sstables::shared_sstable sstable) -> future<> {
auto gen = co_await io_check([sstable, &dir = jsondir, opts] {
return sstable->snapshot(dir, opts.use_sstable_identifier);
co_await _sstables_manager.dir_semaphore().parallel_for_each(tables, [&jsondir, &table_names] (sstables::shared_sstable sstable) {
table_names->insert(sstable->component_basename(sstables::component_type::Data));
return io_check([sstable, &dir = jsondir] {
return sstable->snapshot(dir);
});
auto fname = sstable->component_basename(ks_name, cf_name, sstable->get_version(), gen, sstable->get_format(), sstables::component_type::Data);
table_names->insert(fname);
});
co_return make_foreign(std::move(table_names));
}

View File

@@ -267,246 +267,16 @@ class intrusive_set:
class compact_radix_tree:
"""Wrapper around compact_radix_tree::tree for GDB debugging.
Provides iteration and indexing by key (typically column_id) similar to std_map.
The tree stores key-value pairs where keys are unsigned integers.
Example usage:
tree = compact_radix_tree(row['_cells'])
# Iterate over elements
for key, value in tree:
print(f"Column {key}: {value}")
# Access by key
cell = tree[column_id]
# Check if key exists
cell = tree.get(column_id, default=None)
# Get all keys
column_ids = tree.keys()
Note: Due to GDB limitations and compiler optimizations, full tree traversal
is challenging. The implementation provides the std_map-like API but may not
be able to extract all elements in optimized builds. In such cases, consider:
- Using debug builds (-g -O0) for better introspection
- Examining the tree structure directly with GDB commands
- Using the C++ tree printer (compact_radix_tree::printer) in test code
"""
def __init__(self, ref):
"""Initialize from a gdb.Value representing a compact_radix_tree::tree instance."""
self.ref = ref
self.root = ref['_root']['_v']
# Get template arguments to determine key and value types
tree_type = ref.type.strip_typedefs()
self.value_type = tree_type.template_argument(0)
# Index type defaults to unsigned int if not specified
try:
self.key_type = tree_type.template_argument(1)
except RuntimeError:
self.key_type = gdb.lookup_type('unsigned int')
# Cache for elements collected during traversal
self._elements = None
# Constants from compact-radix-tree.hh
# enum class layout : uint8_t { nil, indirect_tiny, indirect_small, ...}
self.LAYOUT_NIL = 0
self.RADIX_BITS = 7
self.RADIX_MASK = (1 << self.RADIX_BITS) - 1
def is_empty(self):
"""Check if the tree is empty."""
try:
layout = int(self.root['_base_layout'])
return layout == self.LAYOUT_NIL
except (gdb.error, gdb.MemoryError):
return True
def _collect_elements(self):
"""Collect all elements from the tree by traversing its structure.
Returns a list of (key, value) tuples sorted by key.
This is cached after first call.
"""
if self._elements is not None:
return self._elements
self._elements = []
if self.is_empty():
return self._elements
try:
# Traverse the tree structure
# The tree is a radix tree with nodes that can be inner or leaf nodes
# We'll do a depth-first traversal
self._visit_node(self.root, 0, 0)
# Sort by key to ensure correct ordering
self._elements.sort(key=lambda x: x[0])
except (gdb.error, gdb.MemoryError) as e:
# If traversal fails, we have at least collected what we could
gdb.write(f"Warning: Failed to fully traverse compact_radix_tree: {e}\n")
return self._elements
def _visit_node(self, node, depth, prefix):
"""Recursively visit a node and collect elements.
Args:
node: The node_head to visit
depth: Current depth in the tree
prefix: Key prefix accumulated from parent nodes
"""
try:
# Get node properties
node_prefix = int(node['_prefix'])
node_size = int(node['_size'])
layout = int(node['_base_layout'])
if node_size == 0 or layout == self.LAYOUT_NIL:
return
# Calculate the key size in bits
# For uint32_t (column_id), this would be 32 bits
key_bits = self.key_type.sizeof * 8
# Calculate leaf depth: the tree uses RADIX_BITS (7) bits per level
# leaf_depth = ceil(key_bits / RADIX_BITS) - 1
# The -1 accounts for the root level not being counted in depth
leaf_depth = (key_bits + self.RADIX_BITS - 1) // self.RADIX_BITS - 1
# Extract prefix information from node_prefix
# Prefix encoding: lower RADIX_BITS contain the prefix length,
# upper bits contain the actual prefix value
prefix_len = node_prefix & self.RADIX_MASK # Extract lower 7 bits for length
prefix_value = node_prefix & ~self.RADIX_MASK # Extract upper bits for value
# Update prefix with node's contribution
current_prefix = prefix | prefix_value
# Check if this is a leaf node (at maximum depth)
if depth + prefix_len >= leaf_depth:
# This is a leaf node - try to extract values
self._collect_leaf_elements(node, current_prefix)
else:
# This is an inner node - recurse into children
# Inner nodes contain pointers to other nodes
# The structure is complex and varies by layout type
# For now, we'll use a best-effort approach
pass
except (gdb.error, gdb.MemoryError, ValueError) as e:
# Skip nodes that can't be accessed
pass
def _collect_leaf_elements(self, leaf_node, prefix):
"""Collect elements from a leaf node.
Args:
leaf_node: The leaf node_head
prefix: Key prefix for elements in this leaf
"""
try:
# Leaf nodes store the actual values
# The exact structure depends on the layout type
# Since the compiler may optimize away structure details,
# we use a heuristic approach
# For now, we acknowledge that without full tree traversal support,
# we can't reliably extract all elements
# This would require implementing the full tree traversal logic
# which is complex given GDB's limitations
pass
except (gdb.error, gdb.MemoryError):
pass
def __len__(self):
"""Return the number of elements in the tree."""
elements = self._collect_elements()
return len(elements)
def __iter__(self):
"""Iterate over (key, value) pairs in the tree in ascending key order.
Yields:
Tuples of (key, value) where key is the integer index and value is the stored element.
"""
elements = self._collect_elements()
for key, value in elements:
yield (key, value)
def __getitem__(self, key):
"""Get value at given key (column_id).
Args:
key: Integer key (column_id) to look up
Returns:
The value at the given key
Raises:
KeyError: If key not found in tree
"""
elements = self._collect_elements()
for k, v in elements:
if k == key:
return v
raise KeyError(f"Key {key} not found in compact_radix_tree")
def get(self, key, default=None):
"""Get value at given key, or default if not found.
Args:
key: Integer key to look up
default: Value to return if key not found
Returns:
The value at the given key, or default if not found
"""
try:
return self[key]
except KeyError:
return default
def keys(self):
"""Return a list of all keys in the tree."""
elements = self._collect_elements()
return [k for k, v in elements]
def values(self):
"""Return a list of all values in the tree."""
elements = self._collect_elements()
return [v for k, v in elements]
def items(self):
"""Return a list of (key, value) tuples."""
return list(self._collect_elements())
def to_string(self):
"""Return a string representation for printing."""
if self.is_empty():
if self.root['_base_layout'] == 0:
return '<empty>'
# Try to provide more useful information
try:
elements = self._collect_elements()
if elements:
keys = [k for k, v in elements]
return f'compact_radix_tree with {len(elements)} element(s), keys: {keys}'
else:
# We know it's not empty but couldn't collect elements
# This happens when compiler optimizations prevent tree traversal
try:
size = int(self.root['_size'])
layout = int(self.root['_base_layout'])
return f'compact_radix_tree with size={size}, layout={layout} @ {hex(int(self.root.address))} (elements not accessible, use debug build for full introspection)'
except (gdb.error, gdb.MemoryError, ValueError, AttributeError):
return f'compact_radix_tree @ {hex(int(self.root.address))} (structure not fully accessible)'
except (gdb.error, gdb.MemoryError, ValueError, AttributeError) as e:
# Fallback to simple representation
return f'compact_radix_tree @ {hex(int(self.root.address))} (error: {e})'
# Compiler optimizes-away lots of critical stuff, so
# for now just show where the tree is
return 'compact radix tree @ 0x%x' % self.root
class intrusive_btree:

View File

@@ -6,7 +6,6 @@
* SPDX-License-Identifier: LicenseRef-ScyllaDB-Source-Available-1.0
*/
#include "seastar/core/scheduling.hh"
#include "utils/assert.hh"
#include <unordered_set>
@@ -18,7 +17,6 @@
#include <seastar/core/condition-variable.hh>
#include <seastar/coroutine/parallel_for_each.hh>
#include <seastar/util/defer.hh>
#include <seastar/coroutine/switch_to.hh>
#include "utils/log.hh"
@@ -120,7 +118,7 @@ struct failure_detector::impl {
// Fetches endpoint updates from _endpoint_queue and performs the add/remove operation.
// Runs on shard 0 only.
future<> update_endpoint_fiber(seastar::scheduling_group sg);
future<> update_endpoint_fiber();
future<> _update_endpoint_fiber = make_ready_future<>();
// Workers running on this shard.
@@ -142,7 +140,7 @@ struct failure_detector::impl {
// The unregistering process requires cross-shard operations which we perform on this fiber.
future<> _destroy_subscriptions = make_ready_future<>();
impl(failure_detector& parent, pinger&, clock&, clock::interval_t ping_period, clock::interval_t ping_timeout, seastar::scheduling_group sg);
impl(failure_detector& parent, pinger&, clock&, clock::interval_t ping_period, clock::interval_t ping_timeout);
~impl();
// Inform update_endpoint_fiber() about an added/removed endpoint.
@@ -179,19 +177,19 @@ struct failure_detector::impl {
};
failure_detector::failure_detector(
pinger& pinger, clock& clock, clock::interval_t ping_period, clock::interval_t ping_timeout, seastar::scheduling_group sg)
: _impl(std::make_unique<impl>(*this, pinger, clock, ping_period, ping_timeout, sg))
pinger& pinger, clock& clock, clock::interval_t ping_period, clock::interval_t ping_timeout)
: _impl(std::make_unique<impl>(*this, pinger, clock, ping_period, ping_timeout))
{}
failure_detector::impl::impl(
failure_detector& parent, pinger& pinger, clock& clock, clock::interval_t ping_period, clock::interval_t ping_timeout, seastar::scheduling_group sg)
failure_detector& parent, pinger& pinger, clock& clock, clock::interval_t ping_period, clock::interval_t ping_timeout)
: _parent(parent), _pinger(pinger), _clock(clock), _ping_period(ping_period), _ping_timeout(ping_timeout) {
if (this_shard_id() != 0) {
return;
}
_num_workers.resize(smp::count, 0);
_update_endpoint_fiber = update_endpoint_fiber(sg);
_update_endpoint_fiber = update_endpoint_fiber();
}
void failure_detector::impl::send_update_endpoint(pinger::endpoint_id ep, endpoint_update update) {
@@ -207,9 +205,9 @@ void failure_detector::impl::send_update_endpoint(pinger::endpoint_id ep, endpoi
_endpoint_changed.signal();
}
future<> failure_detector::impl::update_endpoint_fiber(seastar::scheduling_group sg) {
future<> failure_detector::impl::update_endpoint_fiber() {
SCYLLA_ASSERT(this_shard_id() == 0);
co_await coroutine::switch_to(sg);
while (true) {
co_await _endpoint_changed.wait([this] { return !_endpoint_updates.empty(); });
@@ -482,7 +480,7 @@ static future<bool> ping_with_timeout(pinger::endpoint_id id, clock::timepoint_t
}
});
auto f = pinger.ping(id, timeout, timeout_as, c);
auto f = pinger.ping(id, timeout_as);
auto sleep_and_abort = [] (clock::timepoint_t timeout, abort_source& timeout_as, clock& c) -> future<> {
co_await c.sleep_until(timeout, timeout_as).then_wrapped([&timeout_as] (auto&& f) {
// Avoid throwing if sleep was aborted.

View File

@@ -19,6 +19,26 @@ class abort_source;
namespace direct_failure_detector {
class pinger {
public:
// Opaque endpoint ID.
// A specific implementation of `pinger` maps those IDs to 'real' addresses.
using endpoint_id = utils::UUID;
// Send a message to `ep` and wait until it responds.
// The wait can be aborted using `as`.
// Abort should be signalized with `abort_requested_exception`.
//
// If the ping fails in an expected way (e.g. the endpoint is down and refuses to connect),
// returns `false`. If it succeeds, returns `true`.
virtual future<bool> ping(endpoint_id ep, abort_source& as) = 0;
protected:
// The `pinger` object must not be destroyed through the `pinger` interface.
// `failure_detector` does not take ownership of `pinger`, only a non-owning reference.
~pinger() = default;
};
// A clock that uses abstract units to measure time.
// The implementation is responsible for periodically advancing the clock.
//
@@ -40,33 +60,12 @@ public:
// Aborts should be signalized using `seastar::sleep_aborted`.
virtual future<> sleep_until(timepoint_t tp, abort_source& as) = 0;
virtual std::chrono::milliseconds to_milliseconds(timepoint_t tp) const = 0;
protected:
// The `clock` object must not be destroyed through the `clock` interface.
// `failure_detector` does not take ownership of `clock`, only a non-owning reference.
~clock() = default;
};
class pinger {
public:
// Opaque endpoint ID.
// A specific implementation of `pinger` maps those IDs to 'real' addresses.
using endpoint_id = utils::UUID;
// Send a message to `ep` and wait until it responds.
// The wait can be aborted using `as`.
// Abort should be signalized with `abort_requested_exception`.
//
// If the ping fails in an expected way (e.g. the endpoint is down and refuses to connect),
// returns `false`. If it succeeds, returns `true`.
virtual future<bool> ping(endpoint_id ep, clock::timepoint_t timeout, abort_source& as, clock& c) = 0;
protected:
// The `pinger` object must not be destroyed through the `pinger` interface.
// `failure_detector` does not take ownership of `pinger`, only a non-owning reference.
~pinger() = default;
};
class listener {
public:
// Called when an endpoint in the detected set (added by `failure_detector::add_endpoint`) responds to a ping
@@ -128,10 +127,7 @@ public:
// Duration after which a ping is aborted, so that next ping can be started
// (pings are sent sequentially).
clock::interval_t ping_timeout,
// Scheduling group used for fibers inside the failure detector.
seastar::scheduling_group sg
clock::interval_t ping_timeout
);
~failure_detector();

View File

@@ -18,7 +18,6 @@
#include "utils/error_injection.hh"
#include "seastar/core/shared_future.hh"
#include <chrono>
#include <seastar/core/coroutine.hh>
#include <seastar/core/when_all.hh>
#include <seastar/core/sleep.hh>
@@ -203,11 +202,8 @@ void raft_group_registry::init_rpc_verbs() {
});
ser::raft_rpc_verbs::register_direct_fd_ping(&_ms,
[this] (const rpc::client_info&, rpc::opt_time_point timeout, raft::server_id dst) -> future<direct_fd_ping_reply> {
if (timeout && *timeout <= netw::messaging_service::clock_type::now()) {
throw timed_out_error{};
}
[this] (const rpc::client_info&, raft::server_id dst) -> future<direct_fd_ping_reply> {
// XXX: update address map here as well?
if (_my_id != dst) {
return make_ready_future<direct_fd_ping_reply>(direct_fd_ping_reply {
@@ -217,10 +213,19 @@ void raft_group_registry::init_rpc_verbs() {
});
}
return make_ready_future<direct_fd_ping_reply>(direct_fd_ping_reply {
.result = service::group_liveness_info{
.group0_alive = _group0_is_alive,
return container().invoke_on(0, [] (raft_group_registry& me) -> future<direct_fd_ping_reply> {
bool group0_alive = false;
if (me._group0_id) {
auto* group0_server = me.find_server(*me._group0_id);
if (group0_server && group0_server->is_alive()) {
group0_alive = true;
}
}
co_return direct_fd_ping_reply {
.result = service::group_liveness_info{
.group0_alive = group0_alive,
}
};
});
});
}
@@ -375,12 +380,6 @@ future<> raft_group_registry::start_server_for_group(raft_server_for_group new_g
co_await server.abort();
std::rethrow_exception(ex);
}
if (gid == _group0_id) {
co_await container().invoke_on_all([] (raft_group_registry& rg) {
rg._group0_is_alive = true;
});
}
}
future<> raft_group_registry::abort_server(raft::group_id gid, sstring reason) {
@@ -390,18 +389,14 @@ future<> raft_group_registry::abort_server(raft::group_id gid, sstring reason) {
if (const auto it = _servers.find(gid); it != _servers.end()) {
auto& [gid, s] = *it;
if (!s.aborted) {
if (gid == _group0_id) {
co_await container().invoke_on_all([] (raft_group_registry& rg) {
rg._group0_is_alive = false;
});
}
s.aborted = s.server->abort(std::move(reason))
.handle_exception([gid] (std::exception_ptr ex) {
rslog.warn("Failed to abort raft group server {}: {}", gid, ex);
});
}
co_await s.aborted->get_future();
return s.aborted->get_future();
}
return make_ready_future<>();
}
unsigned raft_group_registry::shard_for_group(const raft::group_id& gid) const {
@@ -522,13 +517,11 @@ future<> raft_server_with_timeouts::read_barrier(seastar::abort_source* as, std:
}, "read_barrier", as, timeout);
}
future<bool> direct_fd_pinger::ping(direct_failure_detector::pinger::endpoint_id id, direct_failure_detector::clock::timepoint_t timeout, abort_source& as, direct_failure_detector::clock& c) {
future<bool> direct_fd_pinger::ping(direct_failure_detector::pinger::endpoint_id id, abort_source& as) {
auto dst_id = raft::server_id{id};
try {
std::chrono::milliseconds timeout_ms = c.to_milliseconds(timeout);
netw::messaging_service::clock_type::time_point deadline = netw::messaging_service::clock_type::now() + timeout_ms;
auto reply = co_await ser::raft_rpc_verbs::send_direct_fd_ping(&_ms, locator::host_id{id}, deadline, as, dst_id);
auto reply = co_await ser::raft_rpc_verbs::send_direct_fd_ping(&_ms, locator::host_id{id}, as, dst_id);
if (auto* wrong_dst = std::get_if<wrong_destination>(&reply.result)) {
// FIXME: after moving to host_id based verbs we will not get `wrong_destination`
// any more since the connection will fail
@@ -561,11 +554,4 @@ future<> direct_fd_clock::sleep_until(direct_failure_detector::clock::timepoint_
return sleep_abortable(t - n, as);
}
std::chrono::milliseconds direct_fd_clock::to_milliseconds(direct_failure_detector::clock::timepoint_t tp) const {
auto t = base::time_point{base::duration{tp}};
auto n = base::now();
return std::chrono::duration_cast<std::chrono::milliseconds>(t - n);
}
} // end of namespace service

View File

@@ -127,7 +127,6 @@ private:
// My Raft ID. Shared between different Raft groups.
raft::server_id _my_id;
bool _group0_is_alive = false;
public:
raft_group_registry(raft::server_id my_id, netw::messaging_service& ms,
direct_failure_detector::failure_detector& fd);
@@ -182,9 +181,6 @@ public:
unsigned shard_for_group(const raft::group_id& gid) const;
shared_ptr<raft::failure_detector> failure_detector();
direct_failure_detector::failure_detector& direct_fd() { return _direct_fd; }
bool is_group0_alive() const {
return _group0_is_alive;
}
};
// Implementation of `direct_failure_detector::pinger` which uses DIRECT_FD_PING verb for pinging.
@@ -202,7 +198,7 @@ public:
direct_fd_pinger(const direct_fd_pinger&) = delete;
direct_fd_pinger(direct_fd_pinger&&) = delete;
future<bool> ping(direct_failure_detector::pinger::endpoint_id id, direct_failure_detector::clock::timepoint_t timeout, abort_source& as, direct_failure_detector::clock& c) override;
future<bool> ping(direct_failure_detector::pinger::endpoint_id id, abort_source& as) override;
};
// XXX: find a better place to put this?
@@ -211,7 +207,6 @@ struct direct_fd_clock : public direct_failure_detector::clock {
direct_failure_detector::clock::timepoint_t now() noexcept override;
future<> sleep_until(direct_failure_detector::clock::timepoint_t tp, abort_source& as) override;
std::chrono::milliseconds to_milliseconds(direct_failure_detector::clock::timepoint_t tp) const override;
};
} // end of namespace service

View File

@@ -6688,11 +6688,10 @@ storage_proxy::do_query_with_paxos(schema_ptr s,
}
};
auto request = std::make_unique<read_cas_request>();
auto* request_ptr = request.get();
auto request = seastar::make_shared<read_cas_request>();
return cas(std::move(s), std::move(cas_shard), *request_ptr, cmd, std::move(partition_ranges), std::move(query_options),
cl, db::consistency_level::ANY, timeout, cas_timeout, false).then([request = std::move(request)] (bool is_applied) mutable {
return cas(std::move(s), std::move(cas_shard), request, cmd, std::move(partition_ranges), std::move(query_options),
cl, db::consistency_level::ANY, timeout, cas_timeout, false).then([request] (bool is_applied) mutable {
return make_ready_future<coordinator_query_result>(std::move(request->res));
});
}
@@ -6755,13 +6754,11 @@ static mutation_write_failure_exception read_failure_to_write(read_failure_excep
* NOTE: `cmd` argument can be nullptr, in which case it's guaranteed that this function would not perform
* any reads of committed values (in case user of the function is not interested in them).
*
* NOTE: The `request` object must be guaranteed to be alive until the returned future is resolved.
*
* WARNING: the function must be called on a shard that owns the key cas() operates on.
* The cas_shard must be created *before* selecting the shard, to protect against
* concurrent tablet migrations.
*/
future<bool> storage_proxy::cas(schema_ptr schema, cas_shard cas_shard, cas_request& request, lw_shared_ptr<query::read_command> cmd,
future<bool> storage_proxy::cas(schema_ptr schema, cas_shard cas_shard, shared_ptr<cas_request> request, lw_shared_ptr<query::read_command> cmd,
dht::partition_range_vector partition_ranges, storage_proxy::coordinator_query_options query_options,
db::consistency_level cl_for_paxos, db::consistency_level cl_for_learn,
clock_type::time_point write_timeout, clock_type::time_point cas_timeout, bool write, cdc::per_request_options cdc_opts) {
@@ -6862,7 +6859,7 @@ future<bool> storage_proxy::cas(schema_ptr schema, cas_shard cas_shard, cas_requ
qr = std::move(cqr.query_result);
}
auto mutation = request.apply(std::move(qr), cmd->slice, utils::UUID_gen::micros_timestamp(ballot), cdc_opts);
auto mutation = request->apply(std::move(qr), cmd->slice, utils::UUID_gen::micros_timestamp(ballot), cdc_opts);
condition_met = true;
if (!mutation) {
if (write) {

View File

@@ -829,7 +829,7 @@ public:
clock_type::time_point timeout,
tracing::trace_state_ptr trace_state = nullptr);
future<bool> cas(schema_ptr schema, cas_shard cas_shard, cas_request& request, lw_shared_ptr<query::read_command> cmd,
future<bool> cas(schema_ptr schema, cas_shard cas_shard, shared_ptr<cas_request> request, lw_shared_ptr<query::read_command> cmd,
dht::partition_range_vector partition_ranges, coordinator_query_options query_options,
db::consistency_level cl_for_paxos, db::consistency_level cl_for_learn,
clock_type::time_point write_timeout, clock_type::time_point cas_timeout, bool write = true, cdc::per_request_options cdc_opts = {});

View File

@@ -6822,7 +6822,6 @@ future<std::unordered_map<sstring, sstring>> storage_service::add_repair_tablet_
});
}
auto ts = db_clock::now();
for (const auto& token : tokens) {
auto tid = tmap.get_tablet_id(token);
auto& tinfo = tmap.get_tablet_info(tid);
@@ -6836,20 +6835,6 @@ future<std::unordered_map<sstring, sstring>> storage_service::add_repair_tablet_
tablet_mutation_builder_for_base_table(guard.write_timestamp(), table)
.set_repair_task_info(last_token, repair_task_info, _feature_service)
.build());
db::system_keyspace::repair_task_entry entry{
.task_uuid = tasks::task_id(repair_task_info.tablet_task_id.uuid()),
.operation = db::system_keyspace::repair_task_operation::requested,
.first_token = dht::token::to_int64(tmap.get_first_token(tid)),
.last_token = dht::token::to_int64(tmap.get_last_token(tid)),
.timestamp = ts,
.table_uuid = table,
};
if (_feature_service.tablet_repair_tasks_table) {
auto cmuts = co_await _sys_ks.local().get_update_repair_task_mutations(entry, guard.write_timestamp());
for (auto& m : cmuts) {
updates.push_back(std::move(m));
}
}
}
sstring reason = format("Repair tablet by API request tokens={} tablet_task_id={}", tokens, repair_task_info.tablet_task_id);

View File

@@ -136,17 +136,6 @@ db::tablet_options combine_tablet_options(R&& opts) {
return combined_opts;
}
static std::unordered_set<locator::tablet_id> split_string_to_tablet_id(std::string_view s, char delimiter) {
auto tokens_view = s | std::views::split(delimiter)
| std::views::transform([](auto&& range) {
return std::string_view(&*range.begin(), std::ranges::distance(range));
})
| std::views::transform([](std::string_view sv) {
return locator::tablet_id(std::stoul(std::string(sv)));
});
return std::unordered_set<locator::tablet_id>{tokens_view.begin(), tokens_view.end()};
}
// Used to compare different migration choices in regard to impact on load imbalance.
// There is a total order on migration_badness such that better migrations are ordered before worse ones.
struct migration_badness {
@@ -904,8 +893,6 @@ public:
co_await coroutine::maybe_yield();
auto& config = tmap.repair_scheduler_config();
auto now = db_clock::now();
auto skip = utils::get_local_injector().inject_parameter<std::string_view>("tablet_repair_skip_sched");
auto skip_tablets = skip ? split_string_to_tablet_id(*skip, ',') : std::unordered_set<locator::tablet_id>();
co_await tmap.for_each_tablet([&] (locator::tablet_id id, const locator::tablet_info& info) -> future<> {
auto gid = locator::global_tablet_id{table, id};
// Skip tablet that is in transitions.
@@ -926,11 +913,6 @@ public:
co_return;
}
if (skip_tablets.contains(id)) {
lblogger.debug("Skipped tablet repair for tablet={} by error injector", gid);
co_return;
}
// Avoid rescheduling a failed tablet repair in a loop
// TODO: Allow user to config
const auto min_reschedule_time = std::chrono::seconds(5);

View File

@@ -10,7 +10,6 @@
#include "replica/database.hh"
#include "service/migration_manager.hh"
#include "service/storage_service.hh"
#include "repair/row_level.hh"
#include "service/task_manager_module.hh"
#include "tasks/task_handler.hh"
#include "tasks/virtual_task_hint.hh"
@@ -110,16 +109,6 @@ future<std::optional<tasks::virtual_task_hint>> tablet_virtual_task::contains(ta
tid = tmap.next_tablet(*tid);
}
}
// Check if the task id is present in the repair task table
auto progress = co_await _ss._repair.local().get_tablet_repair_task_progress(task_id);
if (progress && progress->requested > 0) {
co_return tasks::virtual_task_hint{
.table_id = progress->table_uuid,
.task_type = locator::tablet_task_type::user_repair,
.tablet_id = std::nullopt,
};
}
co_return std::nullopt;
}
@@ -254,20 +243,7 @@ future<std::optional<status_helper>> tablet_virtual_task::get_status_helper(task
size_t sched_nr = 0;
auto tmptr = _ss.get_token_metadata_ptr();
auto& tmap = tmptr->tablets().get_tablet_map(table);
bool repair_task_finished = false;
bool repair_task_pending = false;
if (is_repair_task(task_type)) {
auto progress = co_await _ss._repair.local().get_tablet_repair_task_progress(id);
if (progress) {
res.status.progress.completed = progress->finished;
res.status.progress.total = progress->requested;
res.status.progress_units = "tablets";
if (progress->requested > 0 && progress->requested == progress->finished) {
repair_task_finished = true;
} if (progress->requested > 0 && progress->requested > progress->finished) {
repair_task_pending = true;
}
}
co_await tmap.for_each_tablet([&] (locator::tablet_id tid, const locator::tablet_info& info) {
auto& task_info = info.repair_task_info;
if (task_info.tablet_task_id.uuid() == id.uuid()) {
@@ -299,17 +275,7 @@ future<std::optional<status_helper>> tablet_virtual_task::get_status_helper(task
res.status.state = sched_nr == 0 ? tasks::task_manager::task_state::created : tasks::task_manager::task_state::running;
co_return res;
}
if (repair_task_pending) {
// When repair_task_pending is true, the res.tablets will be empty iff the request is aborted by user.
res.status.state = res.tablets.empty() ? tasks::task_manager::task_state::failed : tasks::task_manager::task_state::running;
co_return res;
}
if (repair_task_finished) {
res.status.state = tasks::task_manager::task_state::done;
co_return res;
}
// FIXME: Show finished tasks.
co_return std::nullopt;
}

View File

@@ -1205,8 +1205,6 @@ class topology_coordinator : public endpoint_lifecycle_subscriber {
std::unordered_map<locator::tablet_transition_stage, background_action_holder> barriers;
// Record the repair_time returned by the repair_tablet rpc call
db_clock::time_point repair_time;
// Record the repair task update muations
utils::chunked_vector<canonical_mutation> repair_task_updates;
service::session_id session_id;
};
@@ -1739,14 +1737,6 @@ class topology_coordinator : public endpoint_lifecycle_subscriber {
}
dst = dst_opt.value().host;
}
// Update repair task
db::system_keyspace::repair_task_entry entry{
.task_uuid = tasks::task_id(tinfo.repair_task_info.tablet_task_id.uuid()),
.operation = db::system_keyspace::repair_task_operation::finished,
.first_token = dht::token::to_int64(tmap.get_first_token(gid.tablet)),
.last_token = dht::token::to_int64(tmap.get_last_token(gid.tablet)),
.table_uuid = gid.table,
};
rtlogger.info("Initiating tablet repair host={} tablet={}", dst, gid);
auto session_id = utils::get_local_injector().enter("handle_tablet_migration_repair_random_session") ?
service::session_id::create_random_id() : trinfo->session_id;
@@ -1755,10 +1745,6 @@ class topology_coordinator : public endpoint_lifecycle_subscriber {
auto duration = std::chrono::duration<float>(db_clock::now() - sched_time);
auto& tablet_state = _tablets[tablet];
tablet_state.repair_time = db_clock::from_time_t(gc_clock::to_time_t(res.repair_time));
if (_feature_service.tablet_repair_tasks_table) {
entry.timestamp = db_clock::now();
tablet_state.repair_task_updates = co_await _sys_ks.get_update_repair_task_mutations(entry, api::new_timestamp());
}
rtlogger.info("Finished tablet repair host={} tablet={} duration={} repair_time={}",
dst, tablet, duration, res.repair_time);
})) {
@@ -1777,9 +1763,6 @@ class topology_coordinator : public endpoint_lifecycle_subscriber {
.set_stage(last_token, locator::tablet_transition_stage::end_repair)
.del_repair_task_info(last_token, _feature_service)
.del_session(last_token);
for (auto& m : tablet_state.repair_task_updates) {
updates.push_back(std::move(m));
}
// Skip update repair time in case hosts filter or dcs filter is set.
if (valid && is_filter_off) {
auto sched_time = tinfo.repair_task_info.sched_time;

View File

@@ -57,10 +57,7 @@ public:
index_list indexes;
index_consumer(logalloc::region& r, schema_ptr s)
: _s(s)
, _alloc_section(abstract_formatter([s] (fmt::format_context& ctx) {
fmt::format_to(ctx.out(), "index_consumer {}.{}", s->ks_name(), s->cf_name());
}))
: _s(std::move(s))
, _region(r)
{ }
@@ -788,9 +785,6 @@ public:
_sstable->manager().get_cache_tracker().region(),
_sstable->manager().get_cache_tracker().get_partition_index_cache_stats()))
, _index_cache(caching ? *_sstable->_index_cache : *_local_index_cache)
, _alloc_section(abstract_formatter([sst = _sstable] (fmt::format_context& ctx) {
fmt::format_to(ctx.out(), "index_reader {}", sst->get_filename());
}))
, _region(_sstable->manager().get_cache_tracker().region())
, _use_caching(caching)
, _single_page_read(single_partition_read) // all entries for a given partition are within a single page

View File

@@ -284,9 +284,6 @@ public:
, _clustering_parser(s, permit, _ctr.clustering_column_value_fix_legths(), true)
, _block_parser(s, permit, _ctr.clustering_column_value_fix_legths())
, _permit(std::move(permit))
, _as(abstract_formatter([s] (fmt::format_context& ctx) {
fmt::format_to(ctx.out(), "cached_promoted_index {}.{}", s.ks_name(), s.cf_name());
}))
{ }
~cached_promoted_index() {

View File

@@ -2117,14 +2117,11 @@ sstable::write_scylla_metadata(shard_id shard, struct run_identifier identifier,
}
sstable_id sid;
// Force a random sstable_id for testing purposes
bool random_sstable_identifier = utils::get_local_injector().is_enabled("random_sstable_identifier");
if (!random_sstable_identifier && generation().is_uuid_based()) {
if (generation().is_uuid_based()) {
sid = sstable_id(generation().as_uuid());
} else {
sid = sstable_id(utils::UUID_gen::get_time_UUID());
auto msg = random_sstable_identifier ? "forced random sstable_id" : "has numerical generation";
sstlog.info("SSTable {} {}. SSTable identifier in scylla_metadata set to {}", get_filename(), msg, sid);
sstlog.info("SSTable {} has numerical generation. SSTable identifier in scylla_metadata set to {}", get_filename(), sid);
}
_components->scylla_metadata->data.set<scylla_metadata_type::SSTableIdentifier>(scylla_metadata::sstable_identifier{sid});
@@ -2543,11 +2540,8 @@ std::vector<std::pair<component_type, sstring>> sstable::all_components() const
return all;
}
future<generation_type> sstable::snapshot(const sstring& dir, bool use_sstable_identifier) const {
// Use the sstable identifier UUID if available to enable global de-duplication of sstables in backup.
generation_type gen = (use_sstable_identifier && _sstable_identifier) ? generation_type(_sstable_identifier->uuid()) : _generation;
co_await _storage->snapshot(*this, dir, storage::absolute_path::yes, gen);
co_return gen;
future<> sstable::snapshot(const sstring& dir) const {
return _storage->snapshot(*this, dir, storage::absolute_path::yes);
}
future<> sstable::change_state(sstable_state to, delayed_commit_changes* delay_commit) {

View File

@@ -397,10 +397,6 @@ public:
return _version;
}
format_types get_format() const {
return _format;
}
// Returns the total bytes of all components.
uint64_t bytes_on_disk() const;
file_size_stats get_file_size_stats() const;
@@ -442,10 +438,7 @@ public:
std::vector<std::pair<component_type, sstring>> all_components() const;
// When use_sstable_identifier is true and the sstable identifier is available,
// use it to name the sstable in the snapshot, rather than the sstable generation.
// Returns the generation used for snapshot.
future<generation_type> snapshot(const sstring& dir, bool use_sstable_identifier = false) const;
future<> snapshot(const sstring& dir) const;
// Delete the sstable by unlinking all sstable files
// Ignores all errors.

View File

@@ -205,7 +205,7 @@ def test_batch_write_invalid_operation(test_table_s):
# In test_item.py we have a bunch of test_empty_* tests on different ways to
# create an empty item (which in Scylla requires the special CQL row marker
# to be supported correctly). BatchWriteItem provides yet another way of
# to be supported correctly). BatchWriteItems provides yet another way of
# creating items, so check the empty case here too:
def test_empty_batch_write(test_table):
p = random_string()
@@ -214,7 +214,7 @@ def test_empty_batch_write(test_table):
batch.put_item({'p': p, 'c': c})
assert test_table.get_item(Key={'p': p, 'c': c}, ConsistentRead=True)['Item'] == {'p': p, 'c': c}
# Test that BatchWriteItem allows writing to multiple tables in one operation
# Test that BatchWriteItems allows writing to multiple tables in one operation
def test_batch_write_multiple_tables(test_table_s, test_table):
p1 = random_string()
c1 = random_string()

View File

@@ -31,7 +31,6 @@
#include "replica/database.hh"
#include "utils/assert.hh"
#include "utils/lister.hh"
#include "utils/rjson.hh"
#include "partition_slice_builder.hh"
#include "mutation/frozen_mutation.hh"
#include "test/lib/mutation_source_test.hh"
@@ -39,7 +38,6 @@
#include "service/migration_manager.hh"
#include "sstables/sstables.hh"
#include "sstables/generation_type.hh"
#include "sstables/sstable_version.hh"
#include "db/config.hh"
#include "db/commitlog/commitlog_replayer.hh"
#include "db/commitlog/commitlog.hh"
@@ -53,7 +51,6 @@
#include "db/system_keyspace.hh"
#include "db/view/view_builder.hh"
#include "replica/mutation_dump.hh"
#include "utils/error_injection.hh"
using namespace std::chrono_literals;
using namespace sstables;
@@ -615,13 +612,13 @@ future<> do_with_some_data(std::vector<sstring> cf_names, std::function<future<>
});
}
future<> take_snapshot(cql_test_env& e, sstring ks_name = "ks", sstring cf_name = "cf", sstring snapshot_name = "test", db::snapshot_options opts = {}) {
future<> take_snapshot(cql_test_env& e, sstring ks_name = "ks", sstring cf_name = "cf", sstring snapshot_name = "test", bool skip_flush = false) {
try {
auto uuid = e.db().local().find_uuid(ks_name, cf_name);
co_await replica::database::snapshot_table_on_all_shards(e.db(), uuid, snapshot_name, opts);
co_await replica::database::snapshot_table_on_all_shards(e.db(), uuid, snapshot_name, skip_flush);
} catch (...) {
testlog.error("Could not take snapshot for {}.{} snapshot_name={} skip_flush={} use_sstable_identifier={}: {}",
ks_name, cf_name, snapshot_name, opts.skip_flush, opts.use_sstable_identifier, std::current_exception());
testlog.error("Could not take snapshot for {}.{} snapshot_name={} skip_flush={}: {}",
ks_name, cf_name, snapshot_name, skip_flush, std::current_exception());
throw;
}
}
@@ -635,37 +632,6 @@ future<std::set<sstring>> collect_files(fs::path path) {
co_return ret;
}
static bool is_component(const sstring& fname, const sstring& suffix) {
return fname.ends_with(suffix);
}
static std::set<sstring> collect_sstables(const std::set<sstring>& all_files, const sstring& suffix) {
// Verify manifest against the files in the snapshots dir
auto pred = [&suffix] (const sstring& fname) {
return is_component(fname, suffix);
};
return std::ranges::filter_view(all_files, pred) | std::ranges::to<std::set<sstring>>();
}
// Validate that the manifest.json lists exactly the SSTables present in the snapshot directory
static future<> validate_manifest(const fs::path& snapshot_dir, const std::set<sstring>& in_snapshot_dir) {
sstring suffix = "-Data.db";
auto sstables_in_snapshot = collect_sstables(in_snapshot_dir, suffix);
std::set<sstring> sstables_in_manifest;
auto manifest_str = co_await util::read_entire_file_contiguous(snapshot_dir / "manifest.json");
auto manifest_json = rjson::parse(manifest_str);
auto& manifest_files = manifest_json["files"];
BOOST_REQUIRE(manifest_files.IsArray());
for (auto& f : manifest_files.GetArray()) {
if (is_component(f.GetString(), suffix)) {
sstables_in_manifest.insert(f.GetString());
}
}
testlog.debug("SSTables in manifest.json: {}", fmt::join(sstables_in_manifest, ", "));
BOOST_REQUIRE_EQUAL(sstables_in_snapshot, sstables_in_manifest);
}
static future<> snapshot_works(const std::string& table_name) {
return do_with_some_data({"cf"}, [table_name] (cql_test_env& e) {
take_snapshot(e, "ks", table_name).get();
@@ -685,8 +651,6 @@ static future<> snapshot_works(const std::string& table_name) {
// all files were copied and manifest was generated
BOOST_REQUIRE_EQUAL(in_table_dir, in_snapshot_dir);
validate_manifest(snapshot_dir, in_snapshot_dir).get();
return make_ready_future<>();
}, true);
}
@@ -705,8 +669,7 @@ SEASTAR_TEST_CASE(index_snapshot_works) {
SEASTAR_TEST_CASE(snapshot_skip_flush_works) {
return do_with_some_data({"cf"}, [] (cql_test_env& e) {
db::snapshot_options opts = {.skip_flush = true};
take_snapshot(e, "ks", "cf", "test", opts).get();
take_snapshot(e, "ks", "cf", "test", true /* skip_flush */).get();
auto& cf = e.local_db().find_column_family("ks", "cf");
@@ -719,41 +682,6 @@ SEASTAR_TEST_CASE(snapshot_skip_flush_works) {
});
}
SEASTAR_TEST_CASE(snapshot_use_sstable_identifier_works) {
#ifndef SCYLLA_ENABLE_ERROR_INJECTION
fmt::print("Skipping test as it depends on error injection. Please run in mode where it's enabled (debug,dev).\n");
return make_ready_future<>();
#endif
sstring table_name = "cf";
// Force random sstable identifiers, otherwise the initial sstable_id is equal
// to the sstable generation and the test can't distinguish between them.
utils::get_local_injector().enable("random_sstable_identifier", false);
return do_with_some_data({table_name}, [table_name] (cql_test_env& e) -> future<> {
sstring tag = "test";
db::snapshot_options opts = {.use_sstable_identifier = true};
co_await take_snapshot(e, "ks", table_name, tag, opts);
auto& cf = e.local_db().find_column_family("ks", table_name);
auto table_directory = table_dir(cf);
auto snapshot_dir = table_directory / sstables::snapshots_dir / tag;
auto in_table_dir = co_await collect_files(table_directory);
// snapshot triggered a flush and wrote the data down.
BOOST_REQUIRE_GE(in_table_dir.size(), 9);
testlog.info("Files in table dir: {}", fmt::join(in_table_dir, ", "));
auto in_snapshot_dir = co_await collect_files(snapshot_dir);
testlog.info("Files in snapshot dir: {}", fmt::join(in_snapshot_dir, ", "));
in_table_dir.insert("manifest.json");
in_table_dir.insert("schema.cql");
// all files were copied and manifest was generated
BOOST_REQUIRE_EQUAL(in_table_dir.size(), in_snapshot_dir.size());
BOOST_REQUIRE_NE(in_table_dir, in_snapshot_dir);
co_await validate_manifest(snapshot_dir, in_snapshot_dir);
}, true);
}
SEASTAR_TEST_CASE(snapshot_list_okay) {
return do_with_some_data({"cf"}, [] (cql_test_env& e) {
auto& cf = e.local_db().find_column_family("ks", "cf");
@@ -1528,7 +1456,7 @@ SEASTAR_TEST_CASE(snapshot_with_quarantine_works) {
}
BOOST_REQUIRE(found);
co_await take_snapshot(e, "ks", "cf", "test", db::snapshot_options{.skip_flush = true});
co_await take_snapshot(e, "ks", "cf", "test", true /* skip_flush */);
testlog.debug("Expected: {}", expected);

View File

@@ -0,0 +1,126 @@
/*
* Copyright (C) 2025-present ScyllaDB
*/
/*
* SPDX-License-Identifier: LicenseRef-ScyllaDB-Source-Available-1.0
*/
#include <seastar/testing/thread_test_case.hh>
#include "test/lib/scylla_test_case.hh"
#include "test/lib/simple_schema.hh"
#include "query/position_range_utils.hh"
#include "keys/clustering_interval_set.hh"
#include "schema/schema_builder.hh"
using namespace query;
SEASTAR_THREAD_TEST_CASE(test_deoverlap_clustering_row_ranges) {
simple_schema s;
// Create overlapping ranges
auto ck1 = s.make_ckey(1);
auto ck2 = s.make_ckey(2);
auto ck3 = s.make_ckey(3);
auto ck4 = s.make_ckey(4);
clustering_row_ranges ranges;
ranges.push_back(clustering_range::make({ck1, true}, {ck3, true})); // [1, 3]
ranges.push_back(clustering_range::make({ck2, true}, {ck4, true})); // [2, 4]
// Deoverlap should merge these into a single range [1, 4]
auto deoverlapped = deoverlap_clustering_row_ranges(*s.schema(), ranges);
BOOST_REQUIRE_EQUAL(deoverlapped.size(), 1);
BOOST_REQUIRE(deoverlapped[0].start());
BOOST_REQUIRE(deoverlapped[0].end());
BOOST_REQUIRE(deoverlapped[0].start()->value().equal(*s.schema(), ck1));
BOOST_REQUIRE(deoverlapped[0].end()->value().equal(*s.schema(), ck4));
}
SEASTAR_THREAD_TEST_CASE(test_deoverlap_with_non_overlapping_ranges) {
simple_schema s;
auto ck1 = s.make_ckey(1);
auto ck2 = s.make_ckey(2);
auto ck3 = s.make_ckey(3);
auto ck4 = s.make_ckey(4);
clustering_row_ranges ranges;
ranges.push_back(clustering_range::make({ck1, true}, {ck2, true})); // [1, 2]
ranges.push_back(clustering_range::make({ck3, true}, {ck4, true})); // [3, 4]
// These don't overlap, should remain as two separate ranges
auto deoverlapped = deoverlap_clustering_row_ranges(*s.schema(), ranges);
BOOST_REQUIRE_EQUAL(deoverlapped.size(), 2);
}
SEASTAR_THREAD_TEST_CASE(test_clustering_row_ranges_conversion) {
simple_schema s;
auto ck1 = s.make_ckey(1);
auto ck2 = s.make_ckey(2);
clustering_row_ranges ranges;
ranges.push_back(clustering_range::make({ck1, true}, {ck2, false})); // [1, 2)
// Convert to position_ranges and back
auto pos_ranges = clustering_row_ranges_to_position_ranges(ranges);
BOOST_REQUIRE_EQUAL(pos_ranges.size(), 1);
auto converted_back = position_ranges_to_clustering_row_ranges(pos_ranges, *s.schema());
BOOST_REQUIRE_EQUAL(converted_back.size(), 1);
// Check that the conversion is correct
BOOST_REQUIRE(converted_back[0].start());
BOOST_REQUIRE(converted_back[0].end());
BOOST_REQUIRE(converted_back[0].start()->value().equal(*s.schema(), ck1));
BOOST_REQUIRE(converted_back[0].start()->is_inclusive());
BOOST_REQUIRE(converted_back[0].end()->value().equal(*s.schema(), ck2));
BOOST_REQUIRE(!converted_back[0].end()->is_inclusive());
}
SEASTAR_THREAD_TEST_CASE(test_intersect_clustering_row_ranges) {
simple_schema s;
auto ck1 = s.make_ckey(1);
auto ck2 = s.make_ckey(2);
auto ck3 = s.make_ckey(3);
auto ck4 = s.make_ckey(4);
clustering_row_ranges ranges1;
ranges1.push_back(clustering_range::make({ck1, true}, {ck3, true})); // [1, 3]
clustering_row_ranges ranges2;
ranges2.push_back(clustering_range::make({ck2, true}, {ck4, true})); // [2, 4]
// Intersection should be [2, 3]
auto intersected = intersect_clustering_row_ranges(*s.schema(), ranges1, ranges2);
BOOST_REQUIRE_EQUAL(intersected.size(), 1);
BOOST_REQUIRE(intersected[0].start());
BOOST_REQUIRE(intersected[0].end());
BOOST_REQUIRE(intersected[0].start()->value().equal(*s.schema(), ck2));
BOOST_REQUIRE(intersected[0].end()->value().equal(*s.schema(), ck3));
}
SEASTAR_THREAD_TEST_CASE(test_intersect_non_overlapping_ranges) {
simple_schema s;
auto ck1 = s.make_ckey(1);
auto ck2 = s.make_ckey(2);
auto ck3 = s.make_ckey(3);
auto ck4 = s.make_ckey(4);
clustering_row_ranges ranges1;
ranges1.push_back(clustering_range::make({ck1, true}, {ck2, true})); // [1, 2]
clustering_row_ranges ranges2;
ranges2.push_back(clustering_range::make({ck3, true}, {ck4, true})); // [3, 4]
// No overlap, should return empty
auto intersected = intersect_clustering_row_ranges(*s.schema(), ranges1, ranges2);
BOOST_REQUIRE_EQUAL(intersected.size(), 0);
}

View File

@@ -346,60 +346,4 @@ SEASTAR_TEST_CASE(repair_rows_size_considers_external_memory) {
});
}
SEASTAR_TEST_CASE(test_tablet_token_range_count) {
{
// Simple case: one large range covers a smaller one
utils::chunked_vector<tablet_token_range> r1 = {{10, 20}};
utils::chunked_vector<tablet_token_range> r2 = {{0, 100}};
BOOST_REQUIRE(co_await count_finished_tablets(r1, r2) == 1);
}
{
// r2 ranges overlap and should merge to cover r1
// r2: [0, 50] + [40, 100] -> merges to [0, 100]
// r1: [10, 90] should be covered
utils::chunked_vector<tablet_token_range> r1 = {{10, 90}};
utils::chunked_vector<tablet_token_range> r2 = {{0, 50}, {40, 100}};
BOOST_REQUIRE(co_await count_finished_tablets(r1, r2) == 1);
}
{
// r2 ranges are adjacent (contiguous) and should merge
// r2: [0, 10] + [11, 20] -> merges to [0, 20]
// r1: [5, 15] should be covered
utils::chunked_vector<tablet_token_range> r1 = {{5, 15}};
utils::chunked_vector<tablet_token_range> r2 = {{0, 10}, {11, 20}};
BOOST_REQUIRE(co_await count_finished_tablets(r1, r2) == 1);
}
{
// r1 overlaps r2 but is not FULLY contained
// r2: [0, 10]
// r1: [5, 15] (Ends too late), [ -5, 5 ] (Starts too early)
utils::chunked_vector<tablet_token_range> r1 = {{5, 15}, {-5, 5}};
utils::chunked_vector<tablet_token_range> r2 = {{0, 10}};
BOOST_REQUIRE(co_await count_finished_tablets(r1, r2) == 0);
}
{
// A single merged range in r2 covers multiple distinct ranges in r1
utils::chunked_vector<tablet_token_range> r1 = {{10, 20}, {30, 40}, {50, 60}};
utils::chunked_vector<tablet_token_range> r2 = {{0, 100}};
BOOST_REQUIRE(co_await count_finished_tablets(r1, r2) == 3);
}
{
// Inputs are provided in random order, ensuring the internal sort works
utils::chunked_vector<tablet_token_range> r1 = {{50, 60}, {10, 20}};
utils::chunked_vector<tablet_token_range> r2 = {{50, 100}, {0, 40}};
// r2 merges effectively to [0, 40] and [50, 100]
// Both r1 items are covered
BOOST_REQUIRE(co_await count_finished_tablets(r1, r2) == 2);
}
{
utils::chunked_vector<tablet_token_range> r1 = {{10, 20}};
utils::chunked_vector<tablet_token_range> r2_empty = {};
utils::chunked_vector<tablet_token_range> r1_empty = {};
utils::chunked_vector<tablet_token_range> r2 = {{0, 100}};
BOOST_REQUIRE(co_await count_finished_tablets(r1, r2_empty) == 0);
BOOST_REQUIRE(co_await count_finished_tablets(r1_empty, r2) == 0);
}
}
BOOST_AUTO_TEST_SUITE_END()

View File

@@ -13,8 +13,7 @@ import ssl
import tempfile
import platform
import urllib.parse
from concurrent.futures.thread import ThreadPoolExecutor
from multiprocessing import Event
from multiprocessing import Event, Process
from pathlib import Path
from typing import TYPE_CHECKING
from test.pylib.runner import testpy_test_fixture_scope
@@ -187,14 +186,15 @@ async def manager_api_sock_path(request: pytest.FixtureRequest, testpy_test: Tes
await asyncio.get_running_loop().run_in_executor(None, stop_event.wait)
finally:
await mgr.stop()
with ThreadPoolExecutor(max_workers=1) as executor:
future = executor.submit(asyncio.run, run_manager())
start_event.wait()
yield sock_path
manager_process = Process(target=lambda: asyncio.run(run_manager()))
manager_process.start()
start_event.wait()
stop_event.set()
future.result()
yield sock_path
stop_event.set()
manager_process.join()
@pytest.fixture(scope=testpy_test_fixture_scope)

View File

@@ -16,26 +16,16 @@ from test.cluster.util import get_topology_coordinator, new_test_keyspace, recon
logger = logging.getLogger(__name__)
# This test makes sure that view building is done mainly in the streaming
# scheduling group. We check that by grepping all relevant logs in TRACE mode
# and verifying that they come from the streaming scheduling group.
#
# For more context, see: https://github.com/scylladb/scylladb/issues/21232.
# This test reproduces the issue in non-tablet mode.
# This test makes sure that view building is done mainly in the streaming scheduling group
# and not the gossip scheduling group. We do that by measuring the time each group was
# busy during the view building process and confirming that the gossip group was busy
# much less than the streaming group.
# Reproduces https://github.com/scylladb/scylladb/issues/21232
@pytest.mark.asyncio
@skip_mode('debug', 'the test needs to do some work which takes too much time in debug mode')
async def test_view_building_scheduling_group(manager: ManagerClient):
# Note: The view building coordinator works in the gossiping scheduling group,
# and we intentionally omit it here.
# Note: We include "view" for keyspaces that don't use the view building coordinator
# and will follow the legacy path instead.
loggers = ["view_building_worker", "view_consumer", "view_update_generator", "view"]
# Flatten the list of lists.
cmdline = sum([["--logger-log-level", f"{logger}=trace"] for logger in loggers], [])
server = await manager.server_add(cmdline=cmdline)
server = await manager.server_add()
cql = manager.get_cql()
async with new_test_keyspace(manager, "WITH replication = {'class': 'NetworkTopologyStrategy', 'replication_factor': 1}") as ks:
await cql.run_async(f"CREATE TABLE {ks}.tab (p int, c int, PRIMARY KEY (p, c))")
@@ -45,30 +35,21 @@ async def test_view_building_scheduling_group(manager: ManagerClient):
batch = "BEGIN UNLOGGED BATCH\n" + "\n".join(inserts) + "\nAPPLY BATCH\n"
await manager.cql.run_async(batch)
log = await manager.server_open_log(server.server_id)
mark = await log.mark()
metrics_before = await manager.metrics.query(server.ip_addr)
ms_gossip_before = metrics_before.get('scylla_scheduler_runtime_ms', {'group': 'gossip'})
ms_streaming_before = metrics_before.get('scylla_scheduler_runtime_ms', {'group': 'streaming'})
await cql.run_async(f"CREATE MATERIALIZED VIEW {ks}.mv AS SELECT p, c FROM {ks}.tab WHERE p IS NOT NULL AND c IS NOT NULL PRIMARY KEY (c, p)")
await wait_for_view(cql, 'mv', 1)
logger_alternative = "|".join(loggers)
pattern = rf"\[shard [0-9]+:(.+)\] ({logger_alternative}) - "
results = await log.grep(pattern, from_mark=mark)
# Sanity check. If there are no logs, something's wrong.
assert len(results) > 0
# In case of non-tablet keyspaces, we won't use the view building coordinator.
# Instead, view updates will follow the legacy path. Along the way, we'll observe
# this message, which will be printed using another scheduling group, so let's
# filter it out.
predicate = lambda result: f"Building view {ks}.mv, starting at token" not in result[0]
results = list(filter(predicate, results))
# Take the first parenthesized match for each result, i.e. the scheduling group.
sched_groups = [matches[1] for _, matches in results]
assert all(sched_group == "strm" for sched_group in sched_groups)
metrics_after = await manager.metrics.query(server.ip_addr)
ms_gossip_after = metrics_after.get('scylla_scheduler_runtime_ms', {'group': 'gossip'})
ms_streaming_after = metrics_after.get('scylla_scheduler_runtime_ms', {'group': 'streaming'})
ms_streaming = ms_streaming_after - ms_streaming_before
ms_statement = ms_gossip_after - ms_gossip_before
ratio = ms_statement / ms_streaming
print(f"ms_streaming: {ms_streaming}, ms_statement: {ms_statement}, ratio: {ratio}")
assert ratio < 0.1
# A sanity check test ensures that starting and shutting down Scylla when view building is
# disabled is conducted properly and we don't run into any issues.

View File

@@ -43,86 +43,6 @@ async def guarantee_repair_time_next_second():
# different than the previous one.
await asyncio.sleep(1)
async def do_test_tablet_repair_progress_split_merge(manager: ManagerClient, do_split=False, do_merge=False):
nr_tablets = 16
servers, cql, hosts, ks, table_id = await create_table_insert_data_for_repair(manager, fast_stats_refresh=True, tablets=nr_tablets)
token = 'all'
logs = []
for s in servers:
logs.append(await manager.server_open_log(s.server_id))
# Skip repair for the listed tablet id
nr_tablets_skipped = 4
nr_tablets_repaired = nr_tablets - nr_tablets_skipped
await inject_error_on(manager, "tablet_repair_skip_sched", servers, params={'value':"0,1,5,8"})
# Request to repair all tablets
repair_res = await manager.api.tablet_repair(servers[0].ip_addr, ks, "test", token, await_completion=False)
logging.info(f'{repair_res=}')
tablet_task_id = repair_res['tablet_task_id']
async def get_task_status(desc):
task_status = await manager.api.get_task_status(servers[0].ip_addr, tablet_task_id)
completed = int(task_status['progress_completed'])
total = int(task_status['progress_total'])
logging.info(f'{desc=} {completed=} {total=} {task_status=}')
return completed, total
async def wait_task_progress(wanted_complete, wanted_total):
while True:
completed, total = await get_task_status("wait_task_progress")
if completed == wanted_complete and total == wanted_total:
break
await asyncio.sleep(1)
async def get_task_status_and_check(desc):
completed, total = await get_task_status(desc)
assert completed == nr_tablets_repaired
assert total == nr_tablets
# 12 out of 16 tablets should finish
await wait_task_progress(nr_tablets_repaired, nr_tablets)
if do_split:
await get_task_status_and_check("before_split")
s1_mark = await logs[0].mark()
await inject_error_on(manager, "tablet_force_tablet_count_increase", servers)
await logs[0].wait_for('Detected tablet split for table', from_mark=s1_mark)
await inject_error_off(manager, "tablet_force_tablet_count_increase", servers)
await get_task_status_and_check("after_split")
if do_merge:
await get_task_status_and_check("before_merge")
s1_mark = await logs[0].mark()
await inject_error_on(manager, "tablet_force_tablet_count_decrease", servers)
await logs[0].wait_for('Detected tablet merge for table', from_mark=s1_mark)
await inject_error_off(manager, "tablet_force_tablet_count_decrease", servers)
await get_task_status_and_check("after_merge")
# Wait for all repair to finish after all tablets can be scheduled to run repair
await inject_error_off(manager, "tablet_repair_skip_sched", servers)
await wait_task_progress(nr_tablets, nr_tablets)
@skip_mode('release', 'error injections are not supported in release mode')
@pytest.mark.asyncio
async def test_tablet_repair_progress(manager: ManagerClient):
await do_test_tablet_repair_progress_split_merge(manager, do_split=False, do_merge=False)
@skip_mode('release', 'error injections are not supported in release mode')
@pytest.mark.asyncio
async def test_tablet_repair_progress_split(manager: ManagerClient):
await do_test_tablet_repair_progress_split_merge(manager, do_split=True)
@pytest.mark.asyncio
@pytest.mark.skip(reason="https://github.com/scylladb/scylladb/issues/26844")
@skip_mode('release', 'error injections are not supported in release mode')
async def test_tablet_repair_progress_merge(manager: ManagerClient):
await do_test_tablet_repair_progress_split_merge(manager, do_merge=True)
@pytest.mark.asyncio
async def test_tablet_manual_repair(manager: ManagerClient):
servers, cql, hosts, ks, table_id = await create_table_insert_data_for_repair(manager, fast_stats_refresh=False, disable_flush_cache_time=True)

View File

@@ -4,8 +4,7 @@
# SPDX-License-Identifier: LicenseRef-ScyllaDB-Source-Available-1.0
#
from typing import Any
from cassandra.query import ConsistencyLevel, SimpleStatement
from cassandra.policies import FallthroughRetryPolicy
from cassandra.query import ConsistencyLevel
from test.pylib.internal_types import HostID, ServerInfo, ServerNum
from test.pylib.manager_client import ManagerClient
@@ -1597,7 +1596,7 @@ async def test_truncate_during_topology_change(manager: ManagerClient):
async def truncate_table():
await asyncio.sleep(10)
logger.info("Executing truncate during bootstrap")
await cql.run_async(SimpleStatement(f"TRUNCATE {ks}.test USING TIMEOUT 4m", retry_policy=FallthroughRetryPolicy()))
await cql.run_async(f"TRUNCATE {ks}.test USING TIMEOUT 1m")
truncate_task = asyncio.create_task(truncate_table())
logger.info("Adding fourth node")

View File

@@ -115,7 +115,7 @@ def compact_keyspace(cql, ks, flush_memtables=True):
args.extend([ks, cf])
run_nodetool(cql, "compact", *args)
def take_snapshot(cql, table, tag, skip_flush, use_sstable_identifier=False):
def take_snapshot(cql, table, tag, skip_flush):
ks, cf = table.split('.')
if has_rest_api(cql):
requests.post(f'{rest_api_url(cql)}/storage_service/snapshots/', params={'kn': ks, 'cf' : cf, 'tag': tag, 'sf': skip_flush})
@@ -123,8 +123,6 @@ def take_snapshot(cql, table, tag, skip_flush, use_sstable_identifier=False):
args = ['--tag', tag, '--table', cf]
if skip_flush:
args.append('--skip-flush')
if use_sstable_identifier:
args.append('--use-sstable-identifier')
args.append(ks)
run_nodetool(cql, "snapshot", *args)

View File

@@ -881,7 +881,7 @@ private:
_fd.start(
std::ref(_fd_pinger), std::ref(fd_clock),
service::direct_fd_clock::base::duration{std::chrono::milliseconds{100}}.count(),
service::direct_fd_clock::base::duration{std::chrono::milliseconds{600}}.count(), gcfg.gossip_scheduling_group).get();
service::direct_fd_clock::base::duration{std::chrono::milliseconds{600}}.count()).get();
auto stop_fd = defer_verbose_shutdown("direct failure detector", [this] {
_fd.stop().get();

View File

@@ -99,7 +99,7 @@ def test_listsnapshots_no_snapshots(nodetool, request):
assert res.stdout == "Snapshot Details: \nThere are no snapshots\n"
def check_snapshot_out(res, tag, ktlist, skip_flush, use_sstable_identifier=False):
def check_snapshot_out(res, tag, ktlist, skip_flush):
"""Check that the output of nodetool snapshot contains the expected messages"""
if len(ktlist) == 0:
@@ -110,7 +110,7 @@ def check_snapshot_out(res, tag, ktlist, skip_flush, use_sstable_identifier=Fals
pattern = re.compile("Requested creating snapshot\\(s\\)"
f" for \\[{keyspaces}\\]"
f" with snapshot name \\[(.+)\\]"
f" and options \\{{skip_flush={str(skip_flush).lower()}, use_sstable_identifier={str(use_sstable_identifier).lower()}\\}}")
f" and options \\{{skipFlush={str(skip_flush).lower()}\\}}")
print(res)
print(pattern)
@@ -138,13 +138,13 @@ def test_snapshot_keyspace(nodetool):
res = nodetool("snapshot", "--tag", tag, "ks1", expected_requests=[
expected_request("POST", "/storage_service/snapshots",
params={"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": "ks1"})
params={"tag": tag, "sf": "false", "kn": "ks1"})
])
check_snapshot_out(res.stdout, tag, ["ks1"], False)
res = nodetool("snapshot", "--tag", tag, "ks1", "ks2", expected_requests=[
expected_request("POST", "/storage_service/snapshots",
params={"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": "ks1,ks2"})
params={"tag": tag, "sf": "false", "kn": "ks1,ks2"})
])
check_snapshot_out(res.stdout, tag, ["ks1", "ks2"], False)
@@ -155,13 +155,13 @@ def test_snapshot_keyspace_with_table(nodetool, option_name):
res = nodetool("snapshot", "--tag", tag, "ks1", option_name, "tbl", expected_requests=[
expected_request("POST", "/storage_service/snapshots",
params={"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": "ks1", "cf": "tbl"})
params={"tag": tag, "sf": "false", "kn": "ks1", "cf": "tbl"})
])
check_snapshot_out(res.stdout, tag, ["ks1"], False)
res = nodetool("snapshot", "--tag", tag, "ks1", option_name, "tbl1,tbl2", expected_requests=[
expected_request("POST", "/storage_service/snapshots",
params={"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": "ks1", "cf": "tbl1,tbl2"})
params={"tag": tag, "sf": "false", "kn": "ks1", "cf": "tbl1,tbl2"})
])
check_snapshot_out(res.stdout, tag, ["ks1"], False)
@@ -186,7 +186,7 @@ class kn_param(NamedTuple):
def test_snapshot_keyspace_table_single_arg(nodetool, param, scylla_only):
tag = "my_snapshot"
req_params = {"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": param.kn}
req_params = {"tag": tag, "sf": "false", "kn": param.kn}
if param.cf:
req_params["cf"] = param.cf
@@ -202,19 +202,19 @@ def test_snapshot_ktlist(nodetool, option_name):
res = nodetool("snapshot", "--tag", tag, option_name, "ks1.tbl1", expected_requests=[
expected_request("POST", "/storage_service/snapshots",
params={"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": "ks1", "cf": "tbl1"})
params={"tag": tag, "sf": "false", "kn": "ks1", "cf": "tbl1"})
])
check_snapshot_out(res.stdout, tag, ["ks1.tbl1"], False)
res = nodetool("snapshot", "--tag", tag, option_name, "ks1.tbl1,ks2.tbl2", expected_requests=[
expected_request("POST", "/storage_service/snapshots",
params={"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": "ks1.tbl1,ks2.tbl2"})
params={"tag": tag, "sf": "false", "kn": "ks1.tbl1,ks2.tbl2"})
])
check_snapshot_out(res.stdout, tag, ["ks1.tbl1", "ks2.tbl2"], False)
res = nodetool("snapshot", "--tag", tag, option_name, "ks1,ks2", expected_requests=[
expected_request("POST", "/storage_service/snapshots",
params={"tag": tag, "sf": "false", "use_sstable_identifier": "false", "kn": "ks1,ks2"})
params={"tag": tag, "sf": "false", "kn": "ks1,ks2"})
])
check_snapshot_out(res.stdout, tag, ["ks1" ,"ks2"], False)
@@ -229,8 +229,7 @@ def test_snapshot_ktlist(nodetool, option_name):
{"ks": ["ks1", "ks2"], "tbl": []},
])
@pytest.mark.parametrize("skip_flush", [False, True])
@pytest.mark.parametrize("use_sstable_identifier", [False, True])
def test_snapshot_options_matrix(nodetool, tag, ktlist, skip_flush, use_sstable_identifier):
def test_snapshot_options_matrix(nodetool, tag, ktlist, skip_flush):
cmd = ["snapshot"]
params = {}
@@ -243,11 +242,8 @@ def test_snapshot_options_matrix(nodetool, tag, ktlist, skip_flush, use_sstable_
if skip_flush:
cmd.append("--skip-flush")
if use_sstable_identifier:
cmd.append("--use-sstable-identifier")
params["sf"] = str(skip_flush).lower()
params["use_sstable_identifier"] = str(use_sstable_identifier).lower()
if ktlist:
if "tbl" in ktlist:
@@ -277,7 +273,7 @@ def test_snapshot_options_matrix(nodetool, tag, ktlist, skip_flush, use_sstable_
expected_request("POST", "/storage_service/snapshots", params=params)
])
check_snapshot_out(res.stdout, tag, keyspaces, skip_flush, use_sstable_identifier)
check_snapshot_out(res.stdout, tag, keyspaces, skip_flush)
def test_snapshot_multiple_keyspace_with_table(nodetool):

View File

@@ -30,7 +30,7 @@ static const int cell_size = 128;
static bool cancelled = false;
template<typename MutationGenerator>
void run_test(const sstring& name, schema_ptr s, MutationGenerator&& gen, std::function<mutation()> before_flush = {}) {
void run_test(const sstring& name, schema_ptr s, MutationGenerator&& gen) {
tests::reader_concurrency_semaphore_wrapper semaphore;
cache_tracker tracker;
row_cache cache(s, make_empty_snapshot_source(), tracker, is_continuous::yes);
@@ -58,10 +58,6 @@ void run_test(const sstring& name, schema_ptr s, MutationGenerator&& gen, std::f
return;
}
}
if (before_flush) {
mutation m = before_flush();
mt->apply(m);
}
});
memtable_slm.stop();
std::cout << format("Memtable fill took {:.6f} [ms], {}", fill_d.count() * 1000, memtable_slm) << std::endl;
@@ -185,43 +181,6 @@ static void test_partition_with_lots_of_small_rows() {
});
}
static void test_partition_with_lots_of_small_rows_covered_by_tombstone() {
auto s = schema_builder("ks", "cf")
.with_column("pk", uuid_type, column_kind::partition_key)
.with_column("ck", int32_type, column_kind::clustering_key)
.with_column("v1", bytes_type, column_kind::regular_column)
.with_column("v2", bytes_type, column_kind::regular_column)
.with_column("v3", bytes_type, column_kind::regular_column)
.build();
auto pk = dht::decorate_key(*s, partition_key::from_single_value(*s,
serialized(utils::UUID_gen::get_time_UUID())));
int ck_idx = 0;
int flush_ck_idx = 0;
run_test("Large partition, lots of small rows covered by single tombstone", s, [&] {
mutation m(s, pk);
auto val = data_value(bytes(bytes::initialized_later(), cell_size));
auto ck = clustering_key::from_single_value(*s, serialized(ck_idx++));
auto ts = api::new_timestamp();
m.set_clustered_cell(ck, "v1", val, ts);
m.set_clustered_cell(ck, "v2", val, ts);
m.set_clustered_cell(ck, "v3", val, ts);
return m;
}, [&] { // before_flush
// Delete key range [-inf, flush_ck_idx)
std::cout << "Generated " << (ck_idx - flush_ck_idx) << " rows\n";
auto m = mutation(s, pk);
auto ck = clustering_key::from_single_value(*s, serialized(flush_ck_idx));
m.partition().apply_row_tombstone(*s, range_tombstone(
position_in_partition_view::before_all_clustered_rows(),
position_in_partition_view::before_key(ck),
tombstone(api::new_timestamp(), gc_clock::now())));
flush_ck_idx = ck_idx;
return m;
});
}
static void test_partition_with_few_small_rows() {
auto s = schema_builder("ks", "cf")
.with_column("pk", uuid_type, column_kind::partition_key)
@@ -316,7 +275,6 @@ int scylla_row_cache_update_main(int argc, char** argv) {
cancelled = true;
});
logalloc::prime_segment_pool(memory::stats().total_memory(), memory::min_free_memory()).get();
test_partition_with_lots_of_small_rows_covered_by_tombstone();
test_small_partitions();
test_partition_with_few_small_rows();
test_partition_with_lots_of_small_rows();

View File

@@ -109,7 +109,6 @@ class ResourceGather(ABC):
except subprocess.TimeoutExpired:
logger.critical(f"Process {args} timed out")
p.kill()
p.communicate()
except KeyboardInterrupt:
p.kill()
raise

View File

@@ -31,7 +31,7 @@ struct test_pinger: public direct_failure_detector::pinger {
std::unordered_map<endpoint_id, size_t> _pings;
bool _block = false;
virtual future<bool> ping(endpoint_id ep, direct_failure_detector::clock::timepoint_t timeout, abort_source& as, direct_failure_detector::clock& c) override {
virtual future<bool> ping(endpoint_id ep, abort_source& as) override {
bool ret = false;
co_await invoke_abortable_on(0, [this, ep, &ret] (abort_source& as) -> future<> {
++_pings[ep];
@@ -91,9 +91,6 @@ struct test_clock : public direct_failure_detector::clock {
throw sleep_aborted{};
}
}
virtual std::chrono::milliseconds to_milliseconds(timepoint_t tp) const override {
throw std::logic_error("to_milliseconds is not implemented");
}
};
struct test_listener : public direct_failure_detector::listener {
@@ -132,7 +129,7 @@ SEASTAR_TEST_CASE(failure_detector_test) {
test_pinger pinger;
test_clock clock;
sharded<direct_failure_detector::failure_detector> fd;
co_await fd.start(std::ref(pinger), std::ref(clock), 10, 30, seastar::current_scheduling_group());
co_await fd.start(std::ref(pinger), std::ref(clock), 10, 30);
test_listener l1, l2;
auto sub1 = co_await fd.local().register_listener(l1, 95);

View File

@@ -1065,7 +1065,7 @@ public:
}
// Can be called on any shard.
future<bool> ping(direct_failure_detector::pinger::endpoint_id id, direct_failure_detector::clock::timepoint_t timeout, abort_source& as, direct_failure_detector::clock& c) override {
future<bool> ping(direct_failure_detector::pinger::endpoint_id id, abort_source& as) override {
try {
co_await invoke_abortable_on(0, [this, id] (abort_source& as) {
return _rpc.ping(raft::server_id{id}, as);
@@ -1127,10 +1127,6 @@ public:
throw sleep_aborted{};
}
}
virtual std::chrono::milliseconds to_milliseconds(timepoint_t tp) const override {
throw std::logic_error("to_milliseconds is not implemented");
}
};
class direct_fd_listener : public raft::failure_detector, public direct_failure_detector::listener {
@@ -1440,7 +1436,7 @@ public:
// _fd_service must be started before raft server,
// because as soon as raft server is started, it may start adding endpoints to the service.
// _fd_service is using _server's RPC, but not until the first endpoint is added.
co_await _fd_service->start(std::ref(*_fd_pinger), std::ref(*_fd_clock), fd_ping_period.count(), fd_ping_timeout.count(), seastar::current_scheduling_group());
co_await _fd_service->start(std::ref(*_fd_pinger), std::ref(*_fd_clock), fd_ping_period.count(), fd_ping_timeout.count());
_fd_subscription.emplace(co_await _fd_service->local().register_listener(*_fd_listener, _fd_convict_threshold.count()));
co_await _server->start();
}

View File

@@ -2362,23 +2362,16 @@ void snapshot_operation(scylla_rest_client& client, const bpo::variables_map& vm
params["sf"] = "false";
}
if (vm.contains("use-sstable-identifier")) {
params["use_sstable_identifier"] = "true";
} else {
params["use_sstable_identifier"] = "false";
}
client.post("/storage_service/snapshots", params);
if (kn_msg.empty()) {
kn_msg = params["kn"];
}
fmt::print(std::cout, "Requested creating snapshot(s) for [{}] with snapshot name [{}] and options {{skip_flush={}, use_sstable_identifier={}}}\n",
fmt::print(std::cout, "Requested creating snapshot(s) for [{}] with snapshot name [{}] and options {{skipFlush={}}}\n",
kn_msg,
params["tag"],
params["sf"],
params["use_sstable_identifier"]);
params["sf"]);
fmt::print(std::cout, "Snapshot directory: {}\n", params["tag"]);
}
@@ -4605,7 +4598,6 @@ For more information, see: {}
typed_option<sstring>("keyspace-table-list", "The keyspace.table pair(s) to snapshot, multiple ones can be joined with ','"),
typed_option<sstring>("tag,t", "The name of the snapshot"),
typed_option<>("skip-flush", "Do not flush memtables before snapshotting (snapshot will not contain unflushed data)"),
typed_option<>("use-sstable-identifier", "Use the sstable identifier UUID, if available, rather than the sstable generation for the sstable file names within the snapshot dir and the manifest file"),
},
{
typed_option<std::vector<sstring>>("keyspaces", "The keyspaces to snapshot", -1),

View File

@@ -1,41 +0,0 @@
/*
* Copyright (C) 2025-present ScyllaDB
*/
/*
* SPDX-License-Identifier: LicenseRef-ScyllaDB-Source-Available-1.0
*/
#pragma once
#include <fmt/format.h>
#include <functional>
/// Type-erased formatter.
/// Allows passing formattable objects without exposing their types.
class abstract_formatter {
std::function<void(fmt::format_context&)> _formatter;
public:
abstract_formatter() = default;
template<typename Func>
requires std::is_invocable_v<Func, fmt::format_context&>
explicit abstract_formatter(Func&& f) : _formatter(std::forward<Func>(f)) {}
fmt::format_context::iterator format_to(fmt::format_context& ctx) const {
if (_formatter) {
_formatter(ctx);
}
return ctx.out();
}
explicit operator bool() const noexcept { return bool(_formatter); }
};
template <> struct fmt::formatter<abstract_formatter> {
constexpr auto parse(format_parse_context& ctx) { return ctx.begin(); }
auto format(const abstract_formatter& formatter, fmt::format_context& ctx) const {
return formatter.format_to(ctx);
}
};

View File

@@ -461,9 +461,6 @@ public:
, _metrics(m)
, _lru(l)
, _region(reg)
, _as(abstract_formatter([this] (fmt::format_context& ctx) {
fmt::format_to(ctx.out(), "cached_file {}", _file_name);
}))
, _cache(page_idx_less_comparator())
, _size(size)
{

View File

@@ -2948,10 +2948,10 @@ void allocating_section::on_alloc_failure(logalloc::region& r) {
r.allocator().invalidate_references();
if (r.get_tracker().get_impl().segment_pool().allocation_failure_flag()) {
_lsa_reserve *= 2;
llogger.info("LSA allocation failure, increasing reserve in section {} ({}) to {} segments; trace: {}", fmt::ptr(this), _name, _lsa_reserve, current_backtrace());
llogger.info("LSA allocation failure, increasing reserve in section {} to {} segments; trace: {}", fmt::ptr(this), _lsa_reserve, current_backtrace());
} else {
_std_reserve *= 2;
llogger.info("Standard allocator failure, increasing head-room in section {} ({}) to {} [B]; trace: {}", fmt::ptr(this), _name, _std_reserve, current_backtrace());
llogger.info("Standard allocator failure, increasing head-room in section {} to {} [B]; trace: {}", fmt::ptr(this), _std_reserve, current_backtrace());
}
reserve(r.get_tracker().get_impl());
}

View File

@@ -17,7 +17,6 @@
#include "utils/assert.hh"
#include "utils/entangled.hh"
#include "utils/memory_limit_reached.hh"
#include "utils/abstract_formatter.hh"
namespace logalloc {
@@ -443,7 +442,6 @@ class allocating_section {
size_t _minimum_lsa_emergency_reserve = 0;
int64_t _remaining_std_bytes_until_decay = s_bytes_per_decay;
int _remaining_lsa_segments_until_decay = s_segments_per_decay;
abstract_formatter _name;
private:
struct guard {
tracker::impl& _tracker;
@@ -455,8 +453,6 @@ private:
void maybe_decay_reserve() noexcept;
void on_alloc_failure(logalloc::region&);
public:
allocating_section() = default;
explicit allocating_section(abstract_formatter name) : _name(std::move(name)) {}
void set_lsa_reserve(size_t) noexcept;
void set_std_reserve(size_t) noexcept;