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Author SHA1 Message Date
Alex
3a901a1bf3 test/cluster/test_view_building_coordinator: start view-building nodes one by one to make the tests stronger
The test_node_operation_during_view_building() setup used servers_add() to
bring up all initial nodes concurrently. That is more aggressive than this test
needs, and it makes the setup sensitive to bootstrap/topology races and to
single-node startup failures. The add_server has notes about this case.
In the decommission case in particular, the test starts with 4 nodes and only
later exercises the node operation under test. When all 4 nodes are started
concurrently, a failure in one node during initial bootstrap can cause the whole
batch add to fail before the test even reaches the decommission step. This
showed up as Failed to add servers, with later nodes timing out while waiting
for topology/IP mapping after one of the early nodes shut down.
Switch the initial cluster setup to repeated server_add() calls. This keeps
the topology changes serialized, allows each node to fully join before the next
one starts, and matches the actual needs of the test. The change does not alter
the scenario being tested; it only makes the test setup less fragile and easier
to diagnose when a node startup problem happens.
2026-03-22 12:08:34 +02:00
47 changed files with 3812 additions and 4454 deletions

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@@ -8,9 +8,6 @@ on:
jobs:
check-fixes-prefix:
runs-on: ubuntu-latest
permissions:
contents: read
issues: write
steps:
- name: Check PR body for "Fixes" prefix patterns
uses: actions/github-script@v7

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@@ -1,6 +1,4 @@
name: Trigger Scylla CI Route
permissions:
contents: read
on:
issue_comment:

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@@ -1,8 +1,5 @@
name: Trigger next gating
permissions:
contents: read
on:
push:
branches:

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@@ -32,7 +32,7 @@ namespace {
logger mylog{"ldap_role_manager"}; // `log` is taken by math.
struct url_desc_deleter {
void operator()(LDAPURLDesc* p) {
void operator()(LDAPURLDesc *p) {
ldap_free_urldesc(p);
}
};
@@ -40,7 +40,7 @@ struct url_desc_deleter {
using url_desc_ptr = std::unique_ptr<LDAPURLDesc, url_desc_deleter>;
url_desc_ptr parse_url(std::string_view url) {
LDAPURLDesc* desc = nullptr;
LDAPURLDesc *desc = nullptr;
if (ldap_url_parse(url.data(), &desc)) {
mylog.error("error in ldap_url_parse({})", url);
}
@@ -53,12 +53,8 @@ std::vector<sstring> get_attr_values(LDAP* ld, LDAPMessage* res, const char* att
mylog.debug("Analyzing search results");
for (auto e = ldap_first_entry(ld, res); e; e = ldap_next_entry(ld, e)) {
struct deleter {
void operator()(berval** p) {
ldap_value_free_len(p);
}
void operator()(char* p) {
ldap_memfree(p);
}
void operator()(berval** p) { ldap_value_free_len(p); }
void operator()(char* p) { ldap_memfree(p); }
};
const std::unique_ptr<char, deleter> dname(ldap_get_dn(ld, e));
mylog.debug("Analyzing entry {}", dname.get());
@@ -79,29 +75,32 @@ std::vector<sstring> get_attr_values(LDAP* ld, LDAPMessage* res, const char* att
namespace auth {
ldap_role_manager::ldap_role_manager(std::string_view query_template, std::string_view target_attr, std::string_view bind_name, std::string_view bind_password,
uint32_t permissions_update_interval_in_ms, utils::observer<uint32_t> permissions_update_interval_in_ms_observer, cql3::query_processor& qp,
::service::raft_group0_client& rg0c, ::service::migration_manager& mm, cache& cache)
: _std_mgr(qp, rg0c, mm, cache)
, _group0_client(rg0c)
, _query_template(query_template)
, _target_attr(target_attr)
, _bind_name(bind_name)
, _bind_password(bind_password)
, _permissions_update_interval_in_ms(permissions_update_interval_in_ms)
, _permissions_update_interval_in_ms_observer(std::move(permissions_update_interval_in_ms_observer))
, _connection_factory(bind(std::mem_fn(&ldap_role_manager::reconnect), std::ref(*this)))
, _cache(cache)
, _cache_pruner(make_ready_future<>()) {
ldap_role_manager::ldap_role_manager(
std::string_view query_template, std::string_view target_attr, std::string_view bind_name, std::string_view bind_password,
uint32_t permissions_update_interval_in_ms,
utils::observer<uint32_t> permissions_update_interval_in_ms_observer,
cql3::query_processor& qp, ::service::raft_group0_client& rg0c, ::service::migration_manager& mm, cache& cache)
: _std_mgr(qp, rg0c, mm, cache), _group0_client(rg0c), _query_template(query_template), _target_attr(target_attr), _bind_name(bind_name)
, _bind_password(bind_password)
, _permissions_update_interval_in_ms(permissions_update_interval_in_ms)
, _permissions_update_interval_in_ms_observer(std::move(permissions_update_interval_in_ms_observer))
, _connection_factory(bind(std::mem_fn(&ldap_role_manager::reconnect), std::ref(*this)))
, _cache(cache)
, _cache_pruner(make_ready_future<>()) {
}
ldap_role_manager::ldap_role_manager(cql3::query_processor& qp, ::service::raft_group0_client& rg0c, ::service::migration_manager& mm, cache& cache)
: ldap_role_manager(qp.db().get_config().ldap_url_template(), qp.db().get_config().ldap_attr_role(), qp.db().get_config().ldap_bind_dn(),
qp.db().get_config().ldap_bind_passwd(), qp.db().get_config().permissions_update_interval_in_ms(),
qp.db().get_config().permissions_update_interval_in_ms.observe([this](const uint32_t& v) {
_permissions_update_interval_in_ms = v;
}),
qp, rg0c, mm, cache) {
: ldap_role_manager(
qp.db().get_config().ldap_url_template(),
qp.db().get_config().ldap_attr_role(),
qp.db().get_config().ldap_bind_dn(),
qp.db().get_config().ldap_bind_passwd(),
qp.db().get_config().permissions_update_interval_in_ms(),
qp.db().get_config().permissions_update_interval_in_ms.observe([this] (const uint32_t& v) { _permissions_update_interval_in_ms = v; }),
qp,
rg0c,
mm,
cache) {
}
std::string_view ldap_role_manager::qualified_java_name() const noexcept {
@@ -114,16 +113,17 @@ const resource_set& ldap_role_manager::protected_resources() const {
future<> ldap_role_manager::start() {
if (!parse_url(get_url("dummy-user"))) { // Just need host and port -- any user should do.
return make_exception_future(std::runtime_error(fmt::format("error getting LDAP server address from template {}", _query_template)));
return make_exception_future(
std::runtime_error(fmt::format("error getting LDAP server address from template {}", _query_template)));
}
_cache_pruner = futurize_invoke([this]() -> future<> {
_cache_pruner = futurize_invoke([this] () -> future<> {
while (true) {
try {
co_await seastar::sleep_abortable(std::chrono::milliseconds(_permissions_update_interval_in_ms), _as);
} catch (const seastar::sleep_aborted&) {
co_return; // ignore
}
co_await _cache.container().invoke_on_all([](cache& c) -> future<> {
co_await _cache.container().invoke_on_all([] (cache& c) -> future<> {
try {
co_await c.reload_all_permissions();
} catch (...) {
@@ -165,7 +165,7 @@ future<conn_ptr> ldap_role_manager::connect() {
future<conn_ptr> ldap_role_manager::reconnect() {
unsigned retries_left = 5;
using namespace std::literals::chrono_literals;
conn_ptr conn = co_await exponential_backoff_retry::do_until_value(1s, 32s, _as, [this, &retries_left]() -> future<std::optional<conn_ptr>> {
conn_ptr conn = co_await exponential_backoff_retry::do_until_value(1s, 32s, _as, [this, &retries_left] () -> future<std::optional<conn_ptr>> {
if (!retries_left) {
co_return conn_ptr{};
}
@@ -188,13 +188,11 @@ future<conn_ptr> ldap_role_manager::reconnect() {
future<> ldap_role_manager::stop() {
_as.request_abort();
return std::move(_cache_pruner)
.then([this] {
return _std_mgr.stop();
})
.then([this] {
return _connection_factory.stop();
});
return std::move(_cache_pruner).then([this] {
return _std_mgr.stop();
}).then([this] {
return _connection_factory.stop();
});
}
future<> ldap_role_manager::create(std::string_view name, const role_config& config, ::service::group0_batch& mc) {
@@ -223,42 +221,43 @@ future<role_set> ldap_role_manager::query_granted(std::string_view grantee_name,
if (!desc) {
return make_exception_future<role_set>(std::runtime_error(format("Error parsing URL {}", url)));
}
return _connection_factory.with_connection(
[this, desc = std::move(desc), grantee_name_ = sstring(grantee_name)](ldap_connection& conn) -> future<role_set> {
sstring grantee_name = std::move(grantee_name_);
ldap_msg_ptr res = co_await conn.search(desc->lud_dn, desc->lud_scope, desc->lud_filter, desc->lud_attrs,
/*attrsonly=*/0, /*serverctrls=*/nullptr, /*clientctrls=*/nullptr,
/*timeout=*/nullptr, /*sizelimit=*/0);
mylog.trace("query_granted: got search results");
const auto mtype = ldap_msgtype(res.get());
if (mtype != LDAP_RES_SEARCH_ENTRY && mtype != LDAP_RES_SEARCH_RESULT && mtype != LDAP_RES_SEARCH_REFERENCE) {
mylog.error("ldap search yielded result {} of type {}", static_cast<const void*>(res.get()), mtype);
co_return coroutine::exception(std::make_exception_ptr(std::runtime_error("ldap_role_manager: search result has wrong type")));
return _connection_factory.with_connection([this, desc = std::move(desc), grantee_name_ = sstring(grantee_name)]
(ldap_connection& conn) -> future<role_set> {
sstring grantee_name = std::move(grantee_name_);
ldap_msg_ptr res = co_await conn.search(desc->lud_dn, desc->lud_scope, desc->lud_filter, desc->lud_attrs,
/*attrsonly=*/0, /*serverctrls=*/nullptr, /*clientctrls=*/nullptr,
/*timeout=*/nullptr, /*sizelimit=*/0);
mylog.trace("query_granted: got search results");
const auto mtype = ldap_msgtype(res.get());
if (mtype != LDAP_RES_SEARCH_ENTRY && mtype != LDAP_RES_SEARCH_RESULT && mtype != LDAP_RES_SEARCH_REFERENCE) {
mylog.error("ldap search yielded result {} of type {}", static_cast<const void*>(res.get()), mtype);
co_return coroutine::exception(std::make_exception_ptr(std::runtime_error("ldap_role_manager: search result has wrong type")));
}
std::vector<sstring> values = get_attr_values(conn.get_ldap(), res.get(), _target_attr.c_str());
auth::role_set valid_roles{grantee_name};
// Each value is a role to be granted.
co_await parallel_for_each(values, [this, &valid_roles] (const sstring& ldap_role) {
return _std_mgr.exists(ldap_role).then([&valid_roles, &ldap_role] (bool exists) {
if (exists) {
valid_roles.insert(ldap_role);
} else {
mylog.error("unrecognized role received from LDAP: {}", ldap_role);
}
std::vector<sstring> values = get_attr_values(conn.get_ldap(), res.get(), _target_attr.c_str());
auth::role_set valid_roles{grantee_name};
// Each value is a role to be granted.
co_await parallel_for_each(values, [this, &valid_roles](const sstring& ldap_role) {
return _std_mgr.exists(ldap_role).then([&valid_roles, &ldap_role](bool exists) {
if (exists) {
valid_roles.insert(ldap_role);
} else {
mylog.error("unrecognized role received from LDAP: {}", ldap_role);
}
});
});
co_return std::move(valid_roles);
});
});
co_return std::move(valid_roles);
});
}
future<role_to_directly_granted_map> ldap_role_manager::query_all_directly_granted(::service::query_state& qs) {
future<role_to_directly_granted_map>
ldap_role_manager::query_all_directly_granted(::service::query_state& qs) {
role_to_directly_granted_map result;
auto roles = co_await query_all(qs);
for (auto& role : roles) {
for (auto& role: roles) {
auto granted_set = co_await query_granted(role, recursive_role_query::no);
for (auto& granted : granted_set) {
for (auto& granted: granted_set) {
if (granted != role) {
result.insert({role, granted});
}
@@ -272,7 +271,7 @@ future<role_set> ldap_role_manager::query_all(::service::query_state& qs) {
}
future<> ldap_role_manager::create_role(std::string_view role_name) {
return smp::submit_to(0, [this, role_name]() -> future<> {
return smp::submit_to(0, [this, role_name] () -> future<> {
int retries = 10;
while (true) {
auto guard = co_await _group0_client.start_operation(_as, ::service::raft_timeout{});
@@ -284,8 +283,8 @@ future<> ldap_role_manager::create_role(std::string_view role_name) {
} catch (const role_already_exists&) {
// ok
} catch (const ::service::group0_concurrent_modification& ex) {
mylog.warn("Failed to auto-create role \"{}\" due to guard conflict.{}.", role_name,
retries ? " Retrying" : " Number of retries exceeded, giving up");
mylog.warn("Failed to auto-create role \"{}\" due to guard conflict.{}.",
role_name, retries ? " Retrying" : " Number of retries exceeded, giving up");
if (retries--) {
continue;
}
@@ -330,7 +329,8 @@ future<bool> ldap_role_manager::can_login(std::string_view role_name) {
return _std_mgr.can_login(role_name);
}
future<std::optional<sstring>> ldap_role_manager::get_attribute(std::string_view role_name, std::string_view attribute_name, ::service::query_state& qs) {
future<std::optional<sstring>> ldap_role_manager::get_attribute(
std::string_view role_name, std::string_view attribute_name, ::service::query_state& qs) {
return _std_mgr.get_attribute(role_name, attribute_name, qs);
}

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@@ -76,14 +76,14 @@ struct partition_deletion {
using clustered_column_set = std::map<clustering_key, cdc::one_kind_column_set, clustering_key::less_compare>;
template <typename Container>
template<typename Container>
concept EntryContainer = requires(Container& container) {
// Parenthesized due to https://bugs.llvm.org/show_bug.cgi?id=45088
{ (container.atomic_entries) } -> std::same_as<std::vector<atomic_column_update>&>;
{ (container.nonatomic_entries) } -> std::same_as<std::vector<nonatomic_column_update>&>;
};
template <EntryContainer Container>
template<EntryContainer Container>
static void add_columns_affected_by_entries(cdc::one_kind_column_set& cset, const Container& cont) {
for (const auto& entry : cont.atomic_entries) {
cset.set(entry.id);
@@ -134,7 +134,7 @@ struct batch {
ret.emplace(clustering_key::make_empty(), all_columns);
}
auto process_change_type = [&](const auto& changes) {
auto process_change_type = [&] (const auto& changes) {
for (const auto& change : changes) {
auto& cset = ret[change.key];
cset.resize(s.regular_columns_count());
@@ -211,9 +211,7 @@ private:
public:
extract_collection_visitor(column_id id, std::map<change_key_t, row_update>& updates)
: _id(id)
, _updates(updates) {
}
: _id(id), _updates(updates) {}
void collection_tombstone(const tombstone& t) {
auto& entry = get_or_append_entry(t.timestamp + 1, gc_clock::duration(0));
@@ -228,9 +226,7 @@ public:
cell(key, c);
}
constexpr bool finished() const {
return false;
}
constexpr bool finished() const { return false; }
};
/* Visits all cells and tombstones in a row, putting the encountered changes into buckets
@@ -253,46 +249,41 @@ struct extract_row_visitor {
void collection_column(const column_definition& cdef, auto&& visit_collection) {
visit(*cdef.type, make_visitor(
[&](const collection_type_impl& ctype) {
struct collection_visitor : public extract_collection_visitor<collection_visitor> {
data_type _value_type;
[&] (const collection_type_impl& ctype) {
struct collection_visitor : public extract_collection_visitor<collection_visitor> {
data_type _value_type;
collection_visitor(column_id id, std::map<change_key_t, row_update>& updates, const collection_type_impl& ctype)
: extract_collection_visitor<collection_visitor>(id, updates)
, _value_type(ctype.value_comparator()) {
}
collection_visitor(column_id id, std::map<change_key_t, row_update>& updates, const collection_type_impl& ctype)
: extract_collection_visitor<collection_visitor>(id, updates), _value_type(ctype.value_comparator()) {}
data_type get_value_type(bytes_view) {
return _value_type;
}
} v(cdef.id, _updates, ctype);
data_type get_value_type(bytes_view) {
return _value_type;
}
} v(cdef.id, _updates, ctype);
visit_collection(v);
},
[&](const user_type_impl& utype) {
struct udt_visitor : public extract_collection_visitor<udt_visitor> {
const user_type_impl& _utype;
visit_collection(v);
},
[&] (const user_type_impl& utype) {
struct udt_visitor : public extract_collection_visitor<udt_visitor> {
const user_type_impl& _utype;
udt_visitor(column_id id, std::map<change_key_t, row_update>& updates, const user_type_impl& utype)
: extract_collection_visitor<udt_visitor>(id, updates)
, _utype(utype) {
}
udt_visitor(column_id id, std::map<change_key_t, row_update>& updates, const user_type_impl& utype)
: extract_collection_visitor<udt_visitor>(id, updates), _utype(utype) {}
data_type get_value_type(bytes_view key) {
return _utype.type(deserialize_field_index(key));
}
} v(cdef.id, _updates, utype);
data_type get_value_type(bytes_view key) {
return _utype.type(deserialize_field_index(key));
}
} v(cdef.id, _updates, utype);
visit_collection(v);
},
[&](const abstract_type& o) {
throw std::runtime_error(format("extract_changes: unknown collection type:", o.name()));
}));
visit_collection(v);
},
[&] (const abstract_type& o) {
throw std::runtime_error(format("extract_changes: unknown collection type:", o.name()));
}
));
}
constexpr bool finished() const {
return false;
}
constexpr bool finished() const { return false; }
};
struct extract_changes_visitor {
@@ -302,8 +293,12 @@ struct extract_changes_visitor {
extract_row_visitor v;
visit_row_cells(v);
for (auto& [ts_ttl, row_update] : v._updates) {
_result[ts_ttl.first].static_updates.push_back({ts_ttl.second, std::move(row_update.atomic_entries), std::move(row_update.nonatomic_entries)});
for (auto& [ts_ttl, row_update]: v._updates) {
_result[ts_ttl.first].static_updates.push_back({
ts_ttl.second,
std::move(row_update.atomic_entries),
std::move(row_update.nonatomic_entries)
});
}
}
@@ -324,18 +319,24 @@ struct extract_changes_visitor {
} v;
visit_row_cells(v);
for (auto& [ts_ttl, row_update] : v._updates) {
for (auto& [ts_ttl, row_update]: v._updates) {
// It is important that changes in the resulting `set_of_changes` are listed
// in increasing TTL order. The reason is explained in a comment in cdc/log.cc,
// search for "#6070".
auto [ts, ttl] = ts_ttl;
if (v._marker && ts == v._marker_ts && ttl == v._marker_ttl) {
_result[ts].clustered_inserts.push_back({ttl, ckey, *v._marker, std::move(row_update.atomic_entries), {}});
_result[ts].clustered_inserts.push_back({
ttl,
ckey,
*v._marker,
std::move(row_update.atomic_entries),
{}
});
auto& cr_insert = _result[ts].clustered_inserts.back();
bool clustered_update_exists = false;
for (auto& nonatomic_up : row_update.nonatomic_entries) {
for (auto& nonatomic_up: row_update.nonatomic_entries) {
// Updating a collection column with an INSERT statement implies inserting a tombstone.
//
// For example, suppose that we have:
@@ -361,7 +362,12 @@ struct extract_changes_visitor {
cr_insert.nonatomic_entries.push_back(std::move(nonatomic_up));
} else {
if (!clustered_update_exists) {
_result[ts].clustered_updates.push_back({ttl, ckey, {}, {}});
_result[ts].clustered_updates.push_back({
ttl,
ckey,
{},
{}
});
// Multiple iterations of this `for` loop (for different collection columns)
// might want to put their `nonatomic_up`s into an UPDATE change;
@@ -384,7 +390,12 @@ struct extract_changes_visitor {
}
}
} else {
_result[ts].clustered_updates.push_back({ttl, ckey, std::move(row_update.atomic_entries), std::move(row_update.nonatomic_entries)});
_result[ts].clustered_updates.push_back({
ttl,
ckey,
std::move(row_update.atomic_entries),
std::move(row_update.nonatomic_entries)
});
}
}
}
@@ -401,9 +412,7 @@ struct extract_changes_visitor {
_result[t.timestamp].partition_deletions = partition_deletion{t};
}
constexpr bool finished() const {
return false;
}
constexpr bool finished() const { return false; }
};
set_of_changes extract_changes(const mutation& m) {
@@ -417,23 +426,13 @@ namespace cdc {
struct find_timestamp_visitor {
api::timestamp_type _ts = api::missing_timestamp;
bool finished() const {
return _ts != api::missing_timestamp;
}
bool finished() const { return _ts != api::missing_timestamp; }
void visit(api::timestamp_type ts) {
_ts = ts;
}
void visit(const atomic_cell_view& cell) {
visit(cell.timestamp());
}
void visit(api::timestamp_type ts) { _ts = ts; }
void visit(const atomic_cell_view& cell) { visit(cell.timestamp()); }
void live_atomic_cell(const column_definition&, const atomic_cell_view& cell) {
visit(cell);
}
void dead_atomic_cell(const column_definition&, const atomic_cell_view& cell) {
visit(cell);
}
void live_atomic_cell(const column_definition&, const atomic_cell_view& cell) { visit(cell); }
void dead_atomic_cell(const column_definition&, const atomic_cell_view& cell) { visit(cell); }
void collection_tombstone(const tombstone& t) {
// A collection tombstone with timestamp T can be created with:
// UPDATE ks.t USING TIMESTAMP T + 1 SET X = null WHERE ...
@@ -442,33 +441,15 @@ struct find_timestamp_visitor {
// with cdc$time using timestamp T + 1 instead of T.
visit(t.timestamp + 1);
}
void live_collection_cell(bytes_view, const atomic_cell_view& cell) {
visit(cell);
}
void dead_collection_cell(bytes_view, const atomic_cell_view& cell) {
visit(cell);
}
void collection_column(const column_definition&, auto&& visit_collection) {
visit_collection(*this);
}
void marker(const row_marker& rm) {
visit(rm.timestamp());
}
void static_row_cells(auto&& visit_row_cells) {
visit_row_cells(*this);
}
void clustered_row_cells(const clustering_key&, auto&& visit_row_cells) {
visit_row_cells(*this);
}
void clustered_row_delete(const clustering_key&, const tombstone& t) {
visit(t.timestamp);
}
void range_delete(const range_tombstone& t) {
visit(t.tomb.timestamp);
}
void partition_delete(const tombstone& t) {
visit(t.timestamp);
}
void live_collection_cell(bytes_view, const atomic_cell_view& cell) { visit(cell); }
void dead_collection_cell(bytes_view, const atomic_cell_view& cell) { visit(cell); }
void collection_column(const column_definition&, auto&& visit_collection) { visit_collection(*this); }
void marker(const row_marker& rm) { visit(rm.timestamp()); }
void static_row_cells(auto&& visit_row_cells) { visit_row_cells(*this); }
void clustered_row_cells(const clustering_key&, auto&& visit_row_cells) { visit_row_cells(*this); }
void clustered_row_delete(const clustering_key&, const tombstone& t) { visit(t.timestamp); }
void range_delete(const range_tombstone& t) { visit(t.tomb.timestamp); }
void partition_delete(const tombstone& t) { visit(t.timestamp); }
};
/* Find some timestamp inside the given mutation.
@@ -524,12 +505,8 @@ struct should_split_visitor {
virtual ~should_split_visitor() = default;
inline bool finished() const {
return _result;
}
inline void stop() {
_result = true;
}
inline bool finished() const { return _result; }
inline void stop() { _result = true; }
void visit(api::timestamp_type ts, gc_clock::duration ttl = gc_clock::duration(0)) {
if (_ts != api::missing_timestamp && _ts != ts) {
@@ -540,23 +517,15 @@ struct should_split_visitor {
if (_ttl && *_ttl != ttl) {
return stop();
}
_ttl = {ttl};
_ttl = { ttl };
}
void visit(const atomic_cell_view& cell) {
visit(cell.timestamp(), get_ttl(cell));
}
void visit(const atomic_cell_view& cell) { visit(cell.timestamp(), get_ttl(cell)); }
void live_atomic_cell(const column_definition&, const atomic_cell_view& cell) {
visit(cell);
}
void dead_atomic_cell(const column_definition&, const atomic_cell_view& cell) {
visit(cell);
}
void live_atomic_cell(const column_definition&, const atomic_cell_view& cell) { visit(cell); }
void dead_atomic_cell(const column_definition&, const atomic_cell_view& cell) { visit(cell); }
void collection_tombstone(const tombstone& t) {
visit(t.timestamp + 1);
}
void collection_tombstone(const tombstone& t) { visit(t.timestamp + 1); }
virtual void live_collection_cell(bytes_view, const atomic_cell_view& cell) {
if (_had_row_marker) {
@@ -565,12 +534,8 @@ struct should_split_visitor {
}
visit(cell);
}
void dead_collection_cell(bytes_view, const atomic_cell_view& cell) {
visit(cell);
}
void collection_column(const column_definition&, auto&& visit_collection) {
visit_collection(*this);
}
void dead_collection_cell(bytes_view, const atomic_cell_view& cell) { visit(cell); }
void collection_column(const column_definition&, auto&& visit_collection) { visit_collection(*this); }
virtual void marker(const row_marker& rm) {
_had_row_marker = true;
@@ -641,8 +606,8 @@ bool should_split(const mutation& m, const per_request_options& options) {
cdc::inspect_mutation(m, v);
return v._result
// A mutation with no timestamp will be split into 0 mutations:
|| v._ts == api::missing_timestamp;
// A mutation with no timestamp will be split into 0 mutations:
|| v._ts == api::missing_timestamp;
}
// Returns true if the row state and the atomic and nonatomic entries represent
@@ -677,7 +642,7 @@ static bool entries_match_row_state(const schema_ptr& base_schema, const cell_ma
if (current_values.size() != update.cells.size()) {
return false;
}
std::unordered_map<sstring_view, bytes> current_values_map;
for (const auto& entry : current_values) {
const auto attr_name = std::string_view(value_cast<sstring>(entry.first));
@@ -746,8 +711,8 @@ bool should_skip(batch& changes, const mutation& base_mutation, change_processor
return true;
}
void process_changes_with_splitting(
const mutation& base_mutation, change_processor& processor, bool enable_preimage, bool enable_postimage, bool alternator_strict_compatibility) {
void process_changes_with_splitting(const mutation& base_mutation, change_processor& processor,
bool enable_preimage, bool enable_postimage, bool alternator_strict_compatibility) {
const auto base_schema = base_mutation.schema();
auto changes = extract_changes(base_mutation);
auto pk = base_mutation.key();
@@ -859,8 +824,8 @@ void process_changes_with_splitting(
}
}
void process_changes_without_splitting(
const mutation& base_mutation, change_processor& processor, bool enable_preimage, bool enable_postimage, bool alternator_strict_compatibility) {
void process_changes_without_splitting(const mutation& base_mutation, change_processor& processor,
bool enable_preimage, bool enable_postimage, bool alternator_strict_compatibility) {
if (alternator_strict_compatibility) {
auto changes = extract_changes(base_mutation);
if (should_skip(changes.begin()->second, base_mutation, processor)) {
@@ -877,7 +842,7 @@ void process_changes_without_splitting(
one_kind_column_set columns{base_schema->static_columns_count()};
if (!p.static_row().empty()) {
p.static_row().get().for_each_cell([&](column_id id, const atomic_cell_or_collection& cell) {
p.static_row().get().for_each_cell([&] (column_id id, const atomic_cell_or_collection& cell) {
columns.set(id);
});
processor.produce_preimage(nullptr, columns);
@@ -890,7 +855,7 @@ void process_changes_without_splitting(
// Row deleted - include all columns in preimage
columns.set(0, base_schema->regular_columns_count(), true);
} else {
cr.row().cells().for_each_cell([&](column_id id, const atomic_cell_or_collection& cell) {
cr.row().cells().for_each_cell([&] (column_id id, const atomic_cell_or_collection& cell) {
columns.set(id);
});
}

View File

@@ -946,7 +946,7 @@ sstables::shared_sstable sstables_task_executor::consume_sstable() {
auto sst = _sstables.back();
_sstables.pop_back();
--_cm._stats.pending_tasks; // from this point on, switch_state(pending|active) works the same way as any other task
cmlog.debug("consumed {}", sst->get_filename());
cmlog.debug("{}", format("consumed {}", sst->get_filename()));
return sst;
}
@@ -1208,6 +1208,7 @@ future<> compaction_manager::await_tasks(std::vector<shared_ptr<compaction_task_
std::vector<shared_ptr<compaction_task_executor>>
compaction_manager::do_stop_ongoing_compactions(sstring reason, std::function<bool(const compaction_group_view*)> filter, std::optional<compaction_type> type_opt) noexcept {
auto ongoing_compactions = get_compactions(filter).size();
auto tasks = _tasks
| std::views::filter([&filter, type_opt] (const auto& task) {
return filter(task.compacting_table()) && (!type_opt || task.compaction_type() == *type_opt);
@@ -1216,7 +1217,6 @@ compaction_manager::do_stop_ongoing_compactions(sstring reason, std::function<bo
| std::ranges::to<std::vector<shared_ptr<compaction_task_executor>>>();
logging::log_level level = tasks.empty() ? log_level::debug : log_level::info;
if (cmlog.is_enabled(level)) {
auto ongoing_compactions = get_compactions(filter).size();
std::string scope = "";
if (!tasks.empty()) {
const compaction_group_view* t = tasks.front()->compacting_table();
@@ -1426,17 +1426,11 @@ protected:
compaction_strategy cs = t.get_compaction_strategy();
compaction_descriptor descriptor = co_await cs.get_sstables_for_compaction(t, _cm.get_strategy_control());
int weight = calculate_weight(descriptor);
bool debug_enabled = cmlog.is_enabled(log_level::debug);
if (debug_enabled) {
cmlog.debug("Started minor compaction sstables={} sstables_reapired_at={} range={} uuid={} compaction_uuid={}",
descriptor.sstables, compacting_table()->get_sstables_repaired_at(),
compacting_table()->token_range(), uuid, _compaction_data.compaction_uuid);
}
cmlog.debug("Started minor compaction sstables={} sstables_reapired_at={} range={} uuid={} compaction_uuid={}",
descriptor.sstables, compacting_table()->get_sstables_repaired_at(),
compacting_table()->token_range(), uuid, _compaction_data.compaction_uuid);
sstring old_sstables;
if (debug_enabled) {
old_sstables = ::format("{}", descriptor.sstables);
}
auto old_sstables = ::format("{}", descriptor.sstables);
if (descriptor.sstables.empty() || !can_proceed() || t.is_auto_compaction_disabled_by_user()) {
cmlog.debug("{}: sstables={} can_proceed={} auto_compaction={}", *this, descriptor.sstables.size(), can_proceed(), t.is_auto_compaction_disabled_by_user());
@@ -1466,10 +1460,8 @@ protected:
try {
bool should_update_history = this->should_update_history(descriptor.options.type());
compaction_result res = co_await compact_sstables(std::move(descriptor), _compaction_data, on_replace);
if (debug_enabled) {
cmlog.debug("Finished minor compaction old_sstables={} new_sstables={} sstables_reapired_at={} range={} uuid={} compaction_uuid={}",
old_sstables, res.new_sstables, compacting_table()->get_sstables_repaired_at(), compacting_table()->token_range(), uuid, _compaction_data.compaction_uuid);
}
cmlog.debug("Finished minor compaction old_sstables={} new_sstables={} sstables_reapired_at={} range={} uuid={} compaction_uuid={}",
old_sstables, res.new_sstables, compacting_table()->get_sstables_repaired_at(), compacting_table()->token_range(), uuid, _compaction_data.compaction_uuid);
finish_compaction();
if (should_update_history) {
// update_history can take a long time compared to

View File

@@ -33,10 +33,8 @@ future<compaction_descriptor> leveled_compaction_strategy::get_sstables_for_comp
auto candidate = manifest.get_compaction_candidates(*state->last_compacted_keys, state->compaction_counter);
if (!candidate.sstables.empty()) {
if (leveled_manifest::logger.is_enabled(logging::log_level::debug)) {
auto main_set = co_await table_s.main_sstable_set();
leveled_manifest::logger.debug("leveled: Compacting {} out of {} sstables", candidate.sstables.size(), main_set->size());
}
auto main_set = co_await table_s.main_sstable_set();
leveled_manifest::logger.debug("leveled: Compacting {} out of {} sstables", candidate.sstables.size(), main_set->size());
co_return candidate;
}

View File

@@ -15,7 +15,6 @@
#include "compaction_strategy_state.hh"
#include "utils/error_injection.hh"
#include <seastar/util/lazy.hh>
#include <ranges>
namespace compaction {
@@ -29,12 +28,12 @@ time_window_compaction_strategy_state_ptr time_window_compaction_strategy::get_s
}
const std::unordered_map<sstring, std::chrono::seconds> time_window_compaction_strategy_options::valid_window_units = {
{"MINUTES", 60s}, {"HOURS", 3600s}, {"DAYS", 86400s}};
{ "MINUTES", 60s }, { "HOURS", 3600s }, { "DAYS", 86400s }
};
const std::unordered_map<sstring, time_window_compaction_strategy_options::timestamp_resolutions>
time_window_compaction_strategy_options::valid_timestamp_resolutions = {
{"MICROSECONDS", timestamp_resolutions::microsecond},
{"MILLISECONDS", timestamp_resolutions::millisecond},
const std::unordered_map<sstring, time_window_compaction_strategy_options::timestamp_resolutions> time_window_compaction_strategy_options::valid_timestamp_resolutions = {
{ "MICROSECONDS", timestamp_resolutions::microsecond },
{ "MILLISECONDS", timestamp_resolutions::millisecond },
};
static std::chrono::seconds validate_compaction_window_unit(const std::map<sstring, sstring>& options) {
@@ -44,8 +43,7 @@ static std::chrono::seconds validate_compaction_window_unit(const std::map<sstri
if (tmp_value) {
auto valid_window_units_it = time_window_compaction_strategy_options::valid_window_units.find(tmp_value.value());
if (valid_window_units_it == time_window_compaction_strategy_options::valid_window_units.end()) {
throw exceptions::configuration_exception(
fmt::format("Invalid window unit {} for {}", tmp_value.value(), time_window_compaction_strategy_options::COMPACTION_WINDOW_UNIT_KEY));
throw exceptions::configuration_exception(fmt::format("Invalid window unit {} for {}", tmp_value.value(), time_window_compaction_strategy_options::COMPACTION_WINDOW_UNIT_KEY));
}
window_unit = valid_window_units_it->second;
}
@@ -61,12 +59,10 @@ static std::chrono::seconds validate_compaction_window_unit(const std::map<sstri
static int validate_compaction_window_size(const std::map<sstring, sstring>& options) {
auto tmp_value = compaction_strategy_impl::get_value(options, time_window_compaction_strategy_options::COMPACTION_WINDOW_SIZE_KEY);
int window_size = cql3::statements::property_definitions::to_long(time_window_compaction_strategy_options::COMPACTION_WINDOW_SIZE_KEY, tmp_value,
time_window_compaction_strategy_options::DEFAULT_COMPACTION_WINDOW_SIZE);
int window_size = cql3::statements::property_definitions::to_long(time_window_compaction_strategy_options::COMPACTION_WINDOW_SIZE_KEY, tmp_value, time_window_compaction_strategy_options::DEFAULT_COMPACTION_WINDOW_SIZE);
if (window_size <= 0) {
throw exceptions::configuration_exception(
fmt::format("{} value ({}) must be greater than 1", time_window_compaction_strategy_options::COMPACTION_WINDOW_SIZE_KEY, window_size));
throw exceptions::configuration_exception(fmt::format("{} value ({}) must be greater than 1", time_window_compaction_strategy_options::COMPACTION_WINDOW_SIZE_KEY, window_size));
}
return window_size;
@@ -86,30 +82,26 @@ static db_clock::duration validate_expired_sstable_check_frequency_seconds(const
try {
expired_sstable_check_frequency = std::chrono::seconds(std::stol(tmp_value.value()));
} catch (const std::exception& e) {
throw exceptions::syntax_exception(fmt::format(
"Invalid long value {} for {}", tmp_value.value(), time_window_compaction_strategy_options::EXPIRED_SSTABLE_CHECK_FREQUENCY_SECONDS_KEY));
throw exceptions::syntax_exception(fmt::format("Invalid long value {} for {}", tmp_value.value(), time_window_compaction_strategy_options::EXPIRED_SSTABLE_CHECK_FREQUENCY_SECONDS_KEY));
}
}
return expired_sstable_check_frequency;
}
static db_clock::duration validate_expired_sstable_check_frequency_seconds(
const std::map<sstring, sstring>& options, std::map<sstring, sstring>& unchecked_options) {
static db_clock::duration validate_expired_sstable_check_frequency_seconds(const std::map<sstring, sstring>& options, std::map<sstring, sstring>& unchecked_options) {
db_clock::duration expired_sstable_check_frequency = validate_expired_sstable_check_frequency_seconds(options);
unchecked_options.erase(time_window_compaction_strategy_options::EXPIRED_SSTABLE_CHECK_FREQUENCY_SECONDS_KEY);
return expired_sstable_check_frequency;
}
static time_window_compaction_strategy_options::timestamp_resolutions validate_timestamp_resolution(const std::map<sstring, sstring>& options) {
time_window_compaction_strategy_options::timestamp_resolutions timestamp_resolution =
time_window_compaction_strategy_options::timestamp_resolutions::microsecond;
time_window_compaction_strategy_options::timestamp_resolutions timestamp_resolution = time_window_compaction_strategy_options::timestamp_resolutions::microsecond;
auto tmp_value = compaction_strategy_impl::get_value(options, time_window_compaction_strategy_options::TIMESTAMP_RESOLUTION_KEY);
if (tmp_value) {
if (!time_window_compaction_strategy_options::valid_timestamp_resolutions.contains(tmp_value.value())) {
throw exceptions::configuration_exception(fmt::format(
"Invalid timestamp resolution {} for {}", tmp_value.value(), time_window_compaction_strategy_options::TIMESTAMP_RESOLUTION_KEY));
throw exceptions::configuration_exception(fmt::format("Invalid timestamp resolution {} for {}", tmp_value.value(), time_window_compaction_strategy_options::TIMESTAMP_RESOLUTION_KEY));
} else {
timestamp_resolution = time_window_compaction_strategy_options::valid_timestamp_resolutions.at(tmp_value.value());
}
@@ -118,8 +110,7 @@ static time_window_compaction_strategy_options::timestamp_resolutions validate_t
return timestamp_resolution;
}
static time_window_compaction_strategy_options::timestamp_resolutions validate_timestamp_resolution(
const std::map<sstring, sstring>& options, std::map<sstring, sstring>& unchecked_options) {
static time_window_compaction_strategy_options::timestamp_resolutions validate_timestamp_resolution(const std::map<sstring, sstring>& options, std::map<sstring, sstring>& unchecked_options) {
time_window_compaction_strategy_options::timestamp_resolutions timestamp_resolution = validate_timestamp_resolution(options);
unchecked_options.erase(time_window_compaction_strategy_options::TIMESTAMP_RESOLUTION_KEY);
return timestamp_resolution;
@@ -154,7 +145,7 @@ void time_window_compaction_strategy_options::validate(const std::map<sstring, s
compaction_strategy_impl::validate_min_max_threshold(options, unchecked_options);
auto it = options.find("enable_optimized_twcs_queries");
if (it != options.end() && it->second != "true" && it->second != "false") {
if (it != options.end() && it->second != "true" && it->second != "false") {
throw exceptions::configuration_exception(fmt::format("enable_optimized_twcs_queries value ({}) must be \"true\" or \"false\"", it->second));
}
unchecked_options.erase("enable_optimized_twcs_queries");
@@ -171,9 +162,7 @@ class classify_by_timestamp {
std::vector<int64_t> _known_windows;
public:
explicit classify_by_timestamp(time_window_compaction_strategy_options options)
: _options(std::move(options)) {
}
explicit classify_by_timestamp(time_window_compaction_strategy_options options) : _options(std::move(options)) { }
int64_t operator()(api::timestamp_type ts) {
const auto window = time_window_compaction_strategy::get_window_for(_options, ts);
if (const auto it = std::ranges::find(_known_windows, window); it != _known_windows.end()) {
@@ -201,7 +190,7 @@ uint64_t time_window_compaction_strategy::adjust_partition_estimate(const mutati
auto estimated_window_count = max_data_segregation_window_count;
auto default_ttl = std::chrono::duration_cast<std::chrono::microseconds>(s->default_time_to_live());
bool min_and_max_ts_available = ms_meta.min_timestamp && ms_meta.max_timestamp;
auto estimate_window_count = [this](timestamp_type min_window, timestamp_type max_window) {
auto estimate_window_count = [this] (timestamp_type min_window, timestamp_type max_window) {
const auto window_size = get_window_size(_options);
return (max_window + (window_size - 1) - min_window) / window_size;
};
@@ -221,19 +210,21 @@ uint64_t time_window_compaction_strategy::adjust_partition_estimate(const mutati
return partition_estimate / std::max(1UL, uint64_t(estimated_window_count));
}
mutation_reader_consumer time_window_compaction_strategy::make_interposer_consumer(
const mutation_source_metadata& ms_meta, mutation_reader_consumer end_consumer) const {
if (ms_meta.min_timestamp && ms_meta.max_timestamp &&
get_window_for(_options, *ms_meta.min_timestamp) == get_window_for(_options, *ms_meta.max_timestamp)) {
mutation_reader_consumer time_window_compaction_strategy::make_interposer_consumer(const mutation_source_metadata& ms_meta, mutation_reader_consumer end_consumer) const {
if (ms_meta.min_timestamp && ms_meta.max_timestamp
&& get_window_for(_options, *ms_meta.min_timestamp) == get_window_for(_options, *ms_meta.max_timestamp)) {
return end_consumer;
}
return [options = _options, end_consumer = std::move(end_consumer)](mutation_reader rd) mutable -> future<> {
return mutation_writer::segregate_by_timestamp(std::move(rd), classify_by_timestamp(std::move(options)), end_consumer);
return [options = _options, end_consumer = std::move(end_consumer)] (mutation_reader rd) mutable -> future<> {
return mutation_writer::segregate_by_timestamp(
std::move(rd),
classify_by_timestamp(std::move(options)),
end_consumer);
};
}
compaction_descriptor time_window_compaction_strategy::get_reshaping_job(
std::vector<sstables::shared_sstable> input, schema_ptr schema, reshape_config cfg) const {
compaction_descriptor
time_window_compaction_strategy::get_reshaping_job(std::vector<sstables::shared_sstable> input, schema_ptr schema, reshape_config cfg) const {
auto mode = cfg.mode;
std::vector<sstables::shared_sstable> single_window;
std::vector<sstables::shared_sstable> multi_window;
@@ -248,7 +239,7 @@ compaction_descriptor time_window_compaction_strategy::get_reshaping_job(
// Sort input sstables by first_key order
// to allow efficient reshaping of disjoint sstables.
std::sort(input.begin(), input.end(), [&schema](const sstables::shared_sstable& a, const sstables::shared_sstable& b) {
std::sort(input.begin(), input.end(), [&schema] (const sstables::shared_sstable& a, const sstables::shared_sstable& b) {
return dht::ring_position(a->get_first_decorated_key()).less_compare(*schema, dht::ring_position(b->get_first_decorated_key()));
});
@@ -262,34 +253,31 @@ compaction_descriptor time_window_compaction_strategy::get_reshaping_job(
}
}
auto is_disjoint = [&schema, mode, max_sstables](const std::vector<sstables::shared_sstable>& ssts) {
auto is_disjoint = [&schema, mode, max_sstables] (const std::vector<sstables::shared_sstable>& ssts) {
size_t tolerance = (mode == reshape_mode::relaxed) ? max_sstables : 0;
return sstable_set_overlapping_count(schema, ssts) <= tolerance;
};
clogger.debug("time_window_compaction_strategy::get_reshaping_job: offstrategy_threshold={} max_sstables={} multi_window={} disjoint={} "
"single_window={} disjoint={}",
offstrategy_threshold, max_sstables, multi_window.size(), seastar::value_of([&] {
return !multi_window.empty() && sstable_set_overlapping_count(schema, multi_window) == 0;
}),
single_window.size(), seastar::value_of([&] {
return !single_window.empty() && sstable_set_overlapping_count(schema, single_window) == 0;
}));
clogger.debug("time_window_compaction_strategy::get_reshaping_job: offstrategy_threshold={} max_sstables={} multi_window={} disjoint={} single_window={} disjoint={}",
offstrategy_threshold, max_sstables,
multi_window.size(), !multi_window.empty() && sstable_set_overlapping_count(schema, multi_window) == 0,
single_window.size(), !single_window.empty() && sstable_set_overlapping_count(schema, single_window) == 0);
auto get_job_size = [](const std::vector<sstables::shared_sstable>& ssts) {
auto get_job_size = [] (const std::vector<sstables::shared_sstable>& ssts) {
return std::ranges::fold_left(ssts | std::views::transform(std::mem_fn(&sstables::sstable::bytes_on_disk)), uint64_t(0), std::plus{});
};
// Targets a space overhead of 10%. All disjoint sstables can be compacted together as long as they won't
// cause an overhead above target. Otherwise, the job targets a maximum of #max_threshold sstables.
auto need_trimming = [&](const std::vector<sstables::shared_sstable>& ssts, const uint64_t job_size, bool is_disjoint) {
auto need_trimming = [&] (const std::vector<sstables::shared_sstable>& ssts, const uint64_t job_size, bool is_disjoint) {
const size_t min_sstables = 2;
auto is_above_target_size = job_size > target_job_size;
return (ssts.size() > max_sstables && !is_disjoint) || (ssts.size() > min_sstables && is_above_target_size);
return (ssts.size() > max_sstables && !is_disjoint) ||
(ssts.size() > min_sstables && is_above_target_size);
};
auto maybe_trim_job = [&need_trimming](std::vector<sstables::shared_sstable>& ssts, uint64_t job_size, bool is_disjoint) {
auto maybe_trim_job = [&need_trimming] (std::vector<sstables::shared_sstable>& ssts, uint64_t job_size, bool is_disjoint) {
while (need_trimming(ssts, job_size, is_disjoint)) {
auto sst = ssts.back();
ssts.pop_back();
@@ -306,7 +294,7 @@ compaction_descriptor time_window_compaction_strategy::get_reshaping_job(
// For example, if there are N sstables spanning window W, where N <= 32, then we can produce all data for W
// in a single compaction round, removing the need to later compact W to reduce its number of files.
auto sort_size = std::min(max_sstables, multi_window.size());
std::ranges::partial_sort(multi_window, multi_window.begin() + sort_size, std::ranges::less(), [](const sstables::shared_sstable& a) {
std::ranges::partial_sort(multi_window, multi_window.begin() + sort_size, std::ranges::less(), [] (const sstables::shared_sstable &a) {
return a->get_stats_metadata().max_timestamp;
});
maybe_trim_job(multi_window, job_size, disjoint);
@@ -346,7 +334,8 @@ compaction_descriptor time_window_compaction_strategy::get_reshaping_job(
return compaction_descriptor();
}
future<compaction_descriptor> time_window_compaction_strategy::get_sstables_for_compaction(compaction_group_view& table_s, strategy_control& control) {
future<compaction_descriptor>
time_window_compaction_strategy::get_sstables_for_compaction(compaction_group_view& table_s, strategy_control& control) {
auto state = get_state(table_s);
auto compaction_time = gc_clock::now();
auto candidates = co_await control.candidates(table_s);
@@ -380,8 +369,10 @@ future<compaction_descriptor> time_window_compaction_strategy::get_sstables_for_
co_return compaction_descriptor(std::move(compaction_candidates));
}
time_window_compaction_strategy::bucket_compaction_mode time_window_compaction_strategy::compaction_mode(
const time_window_compaction_strategy_state& state, const bucket_t& bucket, timestamp_type bucket_key, timestamp_type now, size_t min_threshold) const {
time_window_compaction_strategy::bucket_compaction_mode
time_window_compaction_strategy::compaction_mode(const time_window_compaction_strategy_state& state,
const bucket_t& bucket, timestamp_type bucket_key,
timestamp_type now, size_t min_threshold) const {
// STCS will also be performed on older window buckets, to avoid a bad write and
// space amplification when something like read repair cause small updates to
// those past windows.
@@ -394,7 +385,8 @@ time_window_compaction_strategy::bucket_compaction_mode time_window_compaction_s
return bucket_compaction_mode::none;
}
std::vector<sstables::shared_sstable> time_window_compaction_strategy::get_next_non_expired_sstables(compaction_group_view& table_s, strategy_control& control,
std::vector<sstables::shared_sstable>
time_window_compaction_strategy::get_next_non_expired_sstables(compaction_group_view& table_s, strategy_control& control,
std::vector<sstables::shared_sstable> non_expiring_sstables, gc_clock::time_point compaction_time, time_window_compaction_strategy_state& state) {
auto most_interesting = get_compaction_candidates(table_s, control, non_expiring_sstables, state);
@@ -408,29 +400,31 @@ std::vector<sstables::shared_sstable> time_window_compaction_strategy::get_next_
// if there is no sstable to compact in standard way, try compacting single sstable whose droppable tombstone
// ratio is greater than threshold.
std::erase_if(non_expiring_sstables, [this, compaction_time, &table_s](const sstables::shared_sstable& sst) -> bool {
std::erase_if(non_expiring_sstables, [this, compaction_time, &table_s] (const sstables::shared_sstable& sst) -> bool {
return !worth_dropping_tombstones(sst, compaction_time, table_s);
});
if (non_expiring_sstables.empty()) {
return {};
}
auto it = std::ranges::min_element(non_expiring_sstables, [](auto& i, auto& j) {
auto it = std::ranges::min_element(non_expiring_sstables, [] (auto& i, auto& j) {
return i->get_stats_metadata().min_timestamp < j->get_stats_metadata().min_timestamp;
});
return {*it};
return { *it };
}
std::vector<sstables::shared_sstable> time_window_compaction_strategy::get_compaction_candidates(compaction_group_view& table_s, strategy_control& control,
std::vector<sstables::shared_sstable> candidate_sstables, time_window_compaction_strategy_state& state) {
std::vector<sstables::shared_sstable>
time_window_compaction_strategy::get_compaction_candidates(compaction_group_view& table_s, strategy_control& control,
std::vector<sstables::shared_sstable> candidate_sstables, time_window_compaction_strategy_state& state) {
auto [buckets, max_timestamp] = get_buckets(std::move(candidate_sstables), _options);
// Update the highest window seen, if necessary
state.highest_window_seen = std::max(state.highest_window_seen, max_timestamp);
return newest_bucket(table_s, control, std::move(buckets), table_s.min_compaction_threshold(), table_s.schema()->max_compaction_threshold(),
state.highest_window_seen, state);
state.highest_window_seen, state);
}
timestamp_type time_window_compaction_strategy::get_window_lower_bound(std::chrono::seconds sstable_window_size, timestamp_type timestamp) {
timestamp_type
time_window_compaction_strategy::get_window_lower_bound(std::chrono::seconds sstable_window_size, timestamp_type timestamp) {
using namespace std::chrono;
// mask out window size from timestamp to get lower bound of its window
auto num_windows = microseconds(timestamp) / sstable_window_size;
@@ -438,8 +432,8 @@ timestamp_type time_window_compaction_strategy::get_window_lower_bound(std::chro
return duration_cast<microseconds>(num_windows * sstable_window_size).count();
}
std::pair<std::map<timestamp_type, std::vector<sstables::shared_sstable>>, timestamp_type> time_window_compaction_strategy::get_buckets(
std::vector<sstables::shared_sstable> files, const time_window_compaction_strategy_options& options) {
std::pair<std::map<timestamp_type, std::vector<sstables::shared_sstable>>, timestamp_type>
time_window_compaction_strategy::get_buckets(std::vector<sstables::shared_sstable> files, const time_window_compaction_strategy_options& options) {
std::map<timestamp_type, std::vector<sstables::shared_sstable>> buckets;
timestamp_type max_timestamp = 0;
@@ -456,13 +450,11 @@ std::pair<std::map<timestamp_type, std::vector<sstables::shared_sstable>>, times
return std::make_pair(std::move(buckets), max_timestamp);
}
} // namespace compaction
}
template <>
struct fmt::formatter<std::map<compaction::timestamp_type, std::vector<sstables::shared_sstable>>> {
constexpr auto parse(format_parse_context& ctx) {
return ctx.begin();
}
constexpr auto parse(format_parse_context& ctx) { return ctx.begin(); }
auto format(const std::map<compaction::timestamp_type, std::vector<sstables::shared_sstable>>& buckets, fmt::format_context& ctx) const {
auto out = fmt::format_to(ctx.out(), " buckets = {{\n");
for (auto& [timestamp, sstables] : buckets | std::views::reverse) {
@@ -474,9 +466,9 @@ struct fmt::formatter<std::map<compaction::timestamp_type, std::vector<sstables:
namespace compaction {
std::vector<sstables::shared_sstable> time_window_compaction_strategy::newest_bucket(compaction_group_view& table_s, strategy_control& control,
std::map<timestamp_type, std::vector<sstables::shared_sstable>> buckets, int min_threshold, int max_threshold, timestamp_type now,
time_window_compaction_strategy_state& state) {
std::vector<sstables::shared_sstable>
time_window_compaction_strategy::newest_bucket(compaction_group_view& table_s, strategy_control& control, std::map<timestamp_type, std::vector<sstables::shared_sstable>> buckets,
int min_threshold, int max_threshold, timestamp_type now, time_window_compaction_strategy_state& state) {
clogger.debug("time_window_compaction_strategy::newest_bucket:\n now {}\n{}", now, buckets);
for (auto&& [key, bucket] : buckets | std::views::reverse) {
@@ -517,7 +509,8 @@ std::vector<sstables::shared_sstable> time_window_compaction_strategy::newest_bu
return {};
}
std::vector<sstables::shared_sstable> time_window_compaction_strategy::trim_to_threshold(std::vector<sstables::shared_sstable> bucket, int max_threshold) {
std::vector<sstables::shared_sstable>
time_window_compaction_strategy::trim_to_threshold(std::vector<sstables::shared_sstable> bucket, int max_threshold) {
auto n = std::min(bucket.size(), size_t(max_threshold));
// Trim the largest sstables off the end to meet the maxThreshold
std::ranges::partial_sort(bucket, bucket.begin() + n, std::ranges::less(), std::mem_fn(&sstables::sstable::ondisk_data_size));
@@ -549,8 +542,8 @@ future<int64_t> time_window_compaction_strategy::estimated_pending_compactions(c
co_return n;
}
std::vector<compaction_descriptor> time_window_compaction_strategy::get_cleanup_compaction_jobs(
compaction_group_view& table_s, std::vector<sstables::shared_sstable> candidates) const {
std::vector<compaction_descriptor>
time_window_compaction_strategy::get_cleanup_compaction_jobs(compaction_group_view& table_s, std::vector<sstables::shared_sstable> candidates) const {
std::vector<compaction_descriptor> ret;
for (auto&& [_, sstables] : get_buckets(std::move(candidates), _options).first) {
auto per_window_jobs = size_tiered_compaction_strategy(_stcs_options).get_cleanup_compaction_jobs(table_s, std::move(sstables));
@@ -563,4 +556,4 @@ std::unique_ptr<sstables::sstable_set_impl> time_window_compaction_strategy::mak
return std::make_unique<sstables::time_series_sstable_set>(ts.schema(), _options.enable_optimized_twcs_queries);
}
} // namespace compaction
}

View File

@@ -48,15 +48,13 @@ const sstring query_processor::CQL_VERSION = "3.3.1";
const std::chrono::minutes prepared_statements_cache::entry_expiry = std::chrono::minutes(60);
struct query_processor::remote {
remote(service::migration_manager& mm, service::mapreduce_service& fwd, service::storage_service& ss, service::raft_group0_client& group0_client,
service::strong_consistency::coordinator& _sc_coordinator)
: mm(mm)
, mapreducer(fwd)
, ss(ss)
, group0_client(group0_client)
, sc_coordinator(_sc_coordinator)
, gate("query_processor::remote") {
}
remote(service::migration_manager& mm, service::mapreduce_service& fwd,
service::storage_service& ss, service::raft_group0_client& group0_client,
service::strong_consistency::coordinator& _sc_coordinator)
: mm(mm), mapreducer(fwd), ss(ss), group0_client(group0_client)
, sc_coordinator(_sc_coordinator)
, gate("query_processor::remote")
{}
service::migration_manager& mm;
service::mapreduce_service& mapreducer;
@@ -79,34 +77,24 @@ static service::query_state query_state_for_internal_call() {
return {service::client_state::for_internal_calls(), empty_service_permit()};
}
query_processor::query_processor(service::storage_proxy& proxy, data_dictionary::database db, service::migration_notifier& mn,
vector_search::vector_store_client& vsc, query_processor::memory_config mcfg, cql_config& cql_cfg, utils::loading_cache_config auth_prep_cache_cfg,
lang::manager& langm)
: _migration_subscriber{std::make_unique<migration_subscriber>(this)}
, _proxy(proxy)
, _db(db)
, _mnotifier(mn)
, _vector_store_client(vsc)
, _mcfg(mcfg)
, _cql_config(cql_cfg)
, _prepared_cache(prep_cache_log, _mcfg.prepared_statment_cache_size)
, _authorized_prepared_cache(std::move(auth_prep_cache_cfg), authorized_prepared_statements_cache_log)
, _auth_prepared_cache_cfg_cb([this](uint32_t) {
(void)_authorized_prepared_cache_config_action.trigger_later();
})
, _authorized_prepared_cache_config_action([this] {
update_authorized_prepared_cache_config();
return make_ready_future<>();
})
, _authorized_prepared_cache_update_interval_in_ms_observer(_db.get_config().permissions_update_interval_in_ms.observe(_auth_prepared_cache_cfg_cb))
, _authorized_prepared_cache_validity_in_ms_observer(_db.get_config().permissions_validity_in_ms.observe(_auth_prepared_cache_cfg_cb))
, _lang_manager(langm)
, _write_consistency_levels_warned_observer(_db.get_config().write_consistency_levels_warned.observe([this](const auto& v) {
_write_consistency_levels_warned = to_consistency_level_set(v);
}))
, _write_consistency_levels_disallowed_observer(_db.get_config().write_consistency_levels_disallowed.observe([this](const auto& v) {
_write_consistency_levels_disallowed = to_consistency_level_set(v);
})) {
query_processor::query_processor(service::storage_proxy& proxy, data_dictionary::database db, service::migration_notifier& mn, vector_search::vector_store_client& vsc, query_processor::memory_config mcfg, cql_config& cql_cfg, utils::loading_cache_config auth_prep_cache_cfg, lang::manager& langm)
: _migration_subscriber{std::make_unique<migration_subscriber>(this)}
, _proxy(proxy)
, _db(db)
, _mnotifier(mn)
, _vector_store_client(vsc)
, _mcfg(mcfg)
, _cql_config(cql_cfg)
, _prepared_cache(prep_cache_log, _mcfg.prepared_statment_cache_size)
, _authorized_prepared_cache(std::move(auth_prep_cache_cfg), authorized_prepared_statements_cache_log)
, _auth_prepared_cache_cfg_cb([this] (uint32_t) { (void) _authorized_prepared_cache_config_action.trigger_later(); })
, _authorized_prepared_cache_config_action([this] { update_authorized_prepared_cache_config(); return make_ready_future<>(); })
, _authorized_prepared_cache_update_interval_in_ms_observer(_db.get_config().permissions_update_interval_in_ms.observe(_auth_prepared_cache_cfg_cb))
, _authorized_prepared_cache_validity_in_ms_observer(_db.get_config().permissions_validity_in_ms.observe(_auth_prepared_cache_cfg_cb))
, _lang_manager(langm)
, _write_consistency_levels_warned_observer(_db.get_config().write_consistency_levels_warned.observe([this](const auto& v) { _write_consistency_levels_warned = to_consistency_level_set(v); }))
, _write_consistency_levels_disallowed_observer(_db.get_config().write_consistency_levels_disallowed.observe([this](const auto& v) { _write_consistency_levels_disallowed = to_consistency_level_set(v); }))
{
_write_consistency_levels_warned = to_consistency_level_set(_db.get_config().write_consistency_levels_warned());
_write_consistency_levels_disallowed = to_consistency_level_set(_db.get_config().write_consistency_levels_disallowed());
namespace sm = seastar::metrics;
@@ -114,7 +102,7 @@ query_processor::query_processor(service::storage_proxy& proxy, data_dictionary:
using clevel = db::consistency_level;
sm::label cl_label("consistency_level");
sm::label who_label("who"); // Who queried system tables
sm::label who_label("who"); // Who queried system tables
const auto user_who_label_instance = who_label("user");
const auto internal_who_label_instance = who_label("internal");
@@ -122,11 +110,17 @@ query_processor::query_processor(service::storage_proxy& proxy, data_dictionary:
const auto system_ks_label_instance = ks_label("system");
std::vector<sm::metric_definition> qp_group;
qp_group.push_back(sm::make_counter("statements_prepared", _stats.prepare_invocations, sm::description("Counts the total number of parsed CQL requests.")));
qp_group.push_back(sm::make_counter(
"statements_prepared",
_stats.prepare_invocations,
sm::description("Counts the total number of parsed CQL requests.")));
for (auto cl = size_t(clevel::MIN_VALUE); cl <= size_t(clevel::MAX_VALUE); ++cl) {
qp_group.push_back(sm::make_counter(
"queries", _stats.queries_by_cl[cl], sm::description("Counts queries by consistency level."), {cl_label(clevel(cl)), basic_level})
.set_skip_when_empty());
qp_group.push_back(
sm::make_counter(
"queries",
_stats.queries_by_cl[cl],
sm::description("Counts queries by consistency level."),
{cl_label(clevel(cl)), basic_level}).set_skip_when_empty());
}
_metrics.add_group("query_processor", qp_group);
@@ -527,23 +521,29 @@ query_processor::query_processor(service::storage_proxy& proxy, data_dictionary:
std::vector<sm::metric_definition> cql_cl_group;
for (auto cl = size_t(clevel::MIN_VALUE); cl <= size_t(clevel::MAX_VALUE); ++cl) {
cql_cl_group.push_back(sm::make_counter("writes_per_consistency_level", _cql_stats.writes_per_consistency_level[cl],
sm::description("Counts the number of writes for each consistency level."), {cl_label(clevel(cl)), basic_level})
.set_skip_when_empty());
cql_cl_group.push_back(
sm::make_counter(
"writes_per_consistency_level",
_cql_stats.writes_per_consistency_level[cl],
sm::description("Counts the number of writes for each consistency level."),
{cl_label(clevel(cl)), basic_level}).set_skip_when_empty());
}
_metrics.add_group("cql", cql_cl_group);
_metrics.add_group(
"cql", {
sm::make_counter("write_consistency_levels_disallowed_violations", _cql_stats.write_consistency_levels_disallowed_violations,
sm::description("Counts the number of write_consistency_levels_disallowed guardrail violations, "
"i.e. attempts to write with a forbidden consistency level."),
{basic_level}),
sm::make_counter("write_consistency_levels_warned_violations", _cql_stats.write_consistency_levels_warned_violations,
sm::description("Counts the number of write_consistency_levels_warned guardrail violations, "
"i.e. attempts to write with a discouraged consistency level."),
{basic_level}),
});
_metrics.add_group("cql", {
sm::make_counter(
"write_consistency_levels_disallowed_violations",
_cql_stats.write_consistency_levels_disallowed_violations,
sm::description("Counts the number of write_consistency_levels_disallowed guardrail violations, "
"i.e. attempts to write with a forbidden consistency level."),
{basic_level}),
sm::make_counter(
"write_consistency_levels_warned_violations",
_cql_stats.write_consistency_levels_warned_violations,
sm::description("Counts the number of write_consistency_levels_warned guardrail violations, "
"i.e. attempts to write with a discouraged consistency level."),
{basic_level}),
});
_mnotifier.register_listener(_migration_subscriber.get());
}
@@ -554,13 +554,15 @@ query_processor::~query_processor() {
}
}
std::pair<std::reference_wrapper<service::strong_consistency::coordinator>, gate::holder> query_processor::acquire_strongly_consistent_coordinator() {
std::pair<std::reference_wrapper<service::strong_consistency::coordinator>, gate::holder>
query_processor::acquire_strongly_consistent_coordinator() {
auto [remote_, holder] = remote();
return {remote_.get().sc_coordinator, std::move(holder)};
}
void query_processor::start_remote(service::migration_manager& mm, service::mapreduce_service& mapreducer, service::storage_service& ss,
service::raft_group0_client& group0_client, service::strong_consistency::coordinator& sc_coordinator) {
void query_processor::start_remote(service::migration_manager& mm, service::mapreduce_service& mapreducer,
service::storage_service& ss, service::raft_group0_client& group0_client,
service::strong_consistency::coordinator& sc_coordinator) {
_remote = std::make_unique<struct remote>(mm, mapreducer, ss, group0_client, sc_coordinator);
}
@@ -580,9 +582,7 @@ future<> query_processor::stop() {
}
future<::shared_ptr<cql_transport::messages::result_message>> query_processor::execute_with_guard(
std::function<future<::shared_ptr<cql_transport::messages::result_message>>(
service::query_state&, ::shared_ptr<cql_statement>, const query_options&, std::optional<service::group0_guard>)>
fn,
std::function<future<::shared_ptr<cql_transport::messages::result_message>>(service::query_state&, ::shared_ptr<cql_statement>, const query_options&, std::optional<service::group0_guard>)> fn,
::shared_ptr<cql_statement> statement, service::query_state& query_state, const query_options& options) {
// execute all statements that need group0 guard on shard0
if (this_shard_id() != 0) {
@@ -591,13 +591,13 @@ future<::shared_ptr<cql_transport::messages::result_message>> query_processor::e
auto [remote_, holder] = remote();
size_t retries = remote_.get().mm.get_concurrent_ddl_retries();
while (true) {
while (true) {
try {
auto guard = co_await remote_.get().mm.start_group0_operation();
co_return co_await fn(query_state, statement, options, std::move(guard));
} catch (const service::group0_concurrent_modification& ex) {
log.warn("Failed to execute statement \"{}\" due to guard conflict.{}.", statement->raw_cql_statement,
retries ? " Retrying" : " Number of retries exceeded, giving up");
log.warn("Failed to execute statement \"{}\" due to guard conflict.{}.",
statement->raw_cql_statement, retries ? " Retrying" : " Number of retries exceeded, giving up");
if (retries--) {
continue;
}
@@ -606,30 +606,29 @@ future<::shared_ptr<cql_transport::messages::result_message>> query_processor::e
}
}
template <typename... Args>
future<::shared_ptr<result_message>> query_processor::execute_maybe_with_guard(service::query_state& query_state, ::shared_ptr<cql_statement> statement,
const query_options& options,
future<::shared_ptr<result_message>> (query_processor::*fn)(
service::query_state&, ::shared_ptr<cql_statement>, const query_options&, std::optional<service::group0_guard>, Args...),
Args... args) {
template<typename... Args>
future<::shared_ptr<result_message>>
query_processor::execute_maybe_with_guard(service::query_state& query_state, ::shared_ptr<cql_statement> statement, const query_options& options,
future<::shared_ptr<result_message>>(query_processor::*fn)(service::query_state&, ::shared_ptr<cql_statement>, const query_options&, std::optional<service::group0_guard>, Args...), Args... args) {
if (!statement->needs_guard(*this, query_state)) {
return (this->*fn)(query_state, std::move(statement), options, std::nullopt, std::forward<Args>(args)...);
}
static auto exec = [fn](query_processor& qp, Args... args, service::query_state& query_state, ::shared_ptr<cql_statement> statement,
const query_options& options, std::optional<service::group0_guard> guard) {
static auto exec = [fn] (query_processor& qp, Args... args, service::query_state& query_state, ::shared_ptr<cql_statement> statement, const query_options& options, std::optional<service::group0_guard> guard) {
return (qp.*fn)(query_state, std::move(statement), options, std::move(guard), std::forward<Args>(args)...);
};
return execute_with_guard(std::bind_front(exec, std::ref(*this), std::forward<Args>(args)...), std::move(statement), query_state, options);
}
future<::shared_ptr<result_message>> query_processor::execute_direct_without_checking_exception_message(
const std::string_view& query_string, service::query_state& query_state, dialect d, query_options& options) {
future<::shared_ptr<result_message>>
query_processor::execute_direct_without_checking_exception_message(const std::string_view& query_string, service::query_state& query_state, dialect d, query_options& options) {
log.trace("execute_direct: \"{}\"", query_string);
tracing::trace(query_state.get_trace_state(), "Parsing a statement");
auto p = get_statement(query_string, query_state.get_client_state(), d);
auto statement = p->statement;
if (statement->get_bound_terms() != options.get_values_count()) {
const auto msg = format("Invalid amount of bind variables: expected {:d} received {:d}", statement->get_bound_terms(), options.get_values_count());
const auto msg = format("Invalid amount of bind variables: expected {:d} received {:d}",
statement->get_bound_terms(),
options.get_values_count());
throw exceptions::invalid_request_exception(msg);
}
options.prepare(p->bound_names);
@@ -640,13 +639,17 @@ future<::shared_ptr<result_message>> query_processor::execute_direct_without_che
metrics.regularStatementsExecuted.inc();
#endif
auto user = query_state.get_client_state().user();
tracing::trace(query_state.get_trace_state(), "Processing a statement for authenticated user: {}",
user ? (user->name ? *user->name : "anonymous") : "no user authenticated");
tracing::trace(query_state.get_trace_state(), "Processing a statement for authenticated user: {}", user ? (user->name ? *user->name : "anonymous") : "no user authenticated");
return execute_maybe_with_guard(query_state, std::move(statement), options, &query_processor::do_execute_direct, std::move(p->warnings));
}
future<::shared_ptr<result_message>> query_processor::do_execute_direct(service::query_state& query_state, shared_ptr<cql_statement> statement,
const query_options& options, std::optional<service::group0_guard> guard, cql3::cql_warnings_vec warnings) {
future<::shared_ptr<result_message>>
query_processor::do_execute_direct(
service::query_state& query_state,
shared_ptr<cql_statement> statement,
const query_options& options,
std::optional<service::group0_guard> guard,
cql3::cql_warnings_vec warnings) {
auto access_future = co_await coroutine::as_future(statement->check_access(*this, query_state.get_client_state()));
if (access_future.failed()) {
co_await audit::inspect(statement, query_state, options, true);
@@ -671,16 +674,26 @@ future<::shared_ptr<result_message>> query_processor::do_execute_direct(service:
co_return std::move(m);
}
future<::shared_ptr<result_message>> query_processor::execute_prepared_without_checking_exception_message(service::query_state& query_state,
shared_ptr<cql_statement> statement, const query_options& options, statements::prepared_statement::checked_weak_ptr prepared,
cql3::prepared_cache_key_type cache_key, bool needs_authorization) {
return execute_maybe_with_guard(
query_state, std::move(statement), options, &query_processor::do_execute_prepared, std::move(prepared), std::move(cache_key), needs_authorization);
future<::shared_ptr<result_message>>
query_processor::execute_prepared_without_checking_exception_message(
service::query_state& query_state,
shared_ptr<cql_statement> statement,
const query_options& options,
statements::prepared_statement::checked_weak_ptr prepared,
cql3::prepared_cache_key_type cache_key,
bool needs_authorization) {
return execute_maybe_with_guard(query_state, std::move(statement), options, &query_processor::do_execute_prepared, std::move(prepared), std::move(cache_key), needs_authorization);
}
future<::shared_ptr<result_message>> query_processor::do_execute_prepared(service::query_state& query_state, shared_ptr<cql_statement> statement,
const query_options& options, std::optional<service::group0_guard> guard, statements::prepared_statement::checked_weak_ptr prepared,
cql3::prepared_cache_key_type cache_key, bool needs_authorization) {
future<::shared_ptr<result_message>>
query_processor::do_execute_prepared(
service::query_state& query_state,
shared_ptr<cql_statement> statement,
const query_options& options,
std::optional<service::group0_guard> guard,
statements::prepared_statement::checked_weak_ptr prepared,
cql3::prepared_cache_key_type cache_key,
bool needs_authorization) {
if (needs_authorization) {
co_await statement->check_access(*this, query_state.get_client_state());
try {
@@ -694,8 +707,8 @@ future<::shared_ptr<result_message>> query_processor::do_execute_prepared(servic
co_return co_await process_authorized_statement(std::move(statement), query_state, options, std::move(guard));
}
future<::shared_ptr<result_message>> query_processor::process_authorized_statement(const ::shared_ptr<cql_statement> statement,
service::query_state& query_state, const query_options& options, std::optional<service::group0_guard> guard) {
future<::shared_ptr<result_message>>
query_processor::process_authorized_statement(const ::shared_ptr<cql_statement> statement, service::query_state& query_state, const query_options& options, std::optional<service::group0_guard> guard) {
auto& client_state = query_state.get_client_state();
++_stats.queries_by_cl[size_t(options.get_consistency())];
@@ -705,39 +718,43 @@ future<::shared_ptr<result_message>> query_processor::process_authorized_stateme
auto msg = co_await statement->execute_without_checking_exception_message(*this, query_state, options, std::move(guard));
if (msg) {
co_return std::move(msg);
co_return std::move(msg);
}
co_return ::make_shared<result_message::void_message>();
}
future<::shared_ptr<cql_transport::messages::result_message::prepared>> query_processor::prepare(
sstring query_string, service::query_state& query_state, cql3::dialect d) {
future<::shared_ptr<cql_transport::messages::result_message::prepared>>
query_processor::prepare(sstring query_string, service::query_state& query_state, cql3::dialect d) {
auto& client_state = query_state.get_client_state();
return prepare(std::move(query_string), client_state, d);
}
future<::shared_ptr<cql_transport::messages::result_message::prepared>> query_processor::prepare(
sstring query_string, const service::client_state& client_state, cql3::dialect d) {
future<::shared_ptr<cql_transport::messages::result_message::prepared>>
query_processor::prepare(sstring query_string, const service::client_state& client_state, cql3::dialect d) {
try {
auto key = compute_id(query_string, client_state.get_raw_keyspace(), d);
auto prep_entry = co_await _prepared_cache.get_pinned(key, [this, &query_string, &client_state, d] {
auto prepared = get_statement(query_string, client_state, d);
prepared->calculate_metadata_id();
auto bound_terms = prepared->statement->get_bound_terms();
if (bound_terms > std::numeric_limits<uint16_t>::max()) {
throw exceptions::invalid_request_exception(
format("Too many markers(?). {:d} markers exceed the allowed maximum of {:d}", bound_terms, std::numeric_limits<uint16_t>::max()));
}
throwing_assert(bound_terms == prepared->bound_names.size());
return make_ready_future<std::unique_ptr<statements::prepared_statement>>(std::move(prepared));
});
co_await utils::get_local_injector().inject("query_processor_prepare_wait_after_cache_get", utils::wait_for_message(std::chrono::seconds(60)));
auto prepared = get_statement(query_string, client_state, d);
prepared->calculate_metadata_id();
auto bound_terms = prepared->statement->get_bound_terms();
if (bound_terms > std::numeric_limits<uint16_t>::max()) {
throw exceptions::invalid_request_exception(
format("Too many markers(?). {:d} markers exceed the allowed maximum of {:d}",
bound_terms,
std::numeric_limits<uint16_t>::max()));
}
throwing_assert(bound_terms == prepared->bound_names.size());
return make_ready_future<std::unique_ptr<statements::prepared_statement>>(std::move(prepared));
});
co_await utils::get_local_injector().inject(
"query_processor_prepare_wait_after_cache_get",
utils::wait_for_message(std::chrono::seconds(60)));
auto msg = ::make_shared<result_message::prepared::cql>(prepared_cache_key_type::cql_id(key), std::move(prep_entry),
client_state.is_protocol_extension_set(cql_transport::cql_protocol_extension::LWT_ADD_METADATA_MARK));
client_state.is_protocol_extension_set(cql_transport::cql_protocol_extension::LWT_ADD_METADATA_MARK));
co_return std::move(msg);
} catch (typename prepared_statements_cache::statement_is_too_big&) {
} catch(typename prepared_statements_cache::statement_is_too_big&) {
throw prepared_statement_is_too_big(query_string);
}
}
@@ -748,11 +765,15 @@ static std::string hash_target(std::string_view query_string, std::string_view k
return ret;
}
prepared_cache_key_type query_processor::compute_id(std::string_view query_string, std::string_view keyspace, dialect d) {
prepared_cache_key_type query_processor::compute_id(
std::string_view query_string,
std::string_view keyspace,
dialect d) {
return prepared_cache_key_type(md5_hasher::calculate(hash_target(query_string, keyspace)), d);
}
std::unique_ptr<prepared_statement> query_processor::get_statement(const std::string_view& query, const service::client_state& client_state, dialect d) {
std::unique_ptr<prepared_statement>
query_processor::get_statement(const std::string_view& query, const service::client_state& client_state, dialect d) {
// Measuring allocation cost requires that no yield points exist
// between bytes_before and bytes_after. It needs fixing if this
// function is ever futurized.
@@ -777,7 +798,8 @@ std::unique_ptr<prepared_statement> query_processor::get_statement(const std::st
return p;
}
std::unique_ptr<raw::parsed_statement> query_processor::parse_statement(const std::string_view& query, dialect d) {
std::unique_ptr<raw::parsed_statement>
query_processor::parse_statement(const std::string_view& query, dialect d) {
try {
{
const char* error_injection_key = "query_processor-parse_statement-test_failure";
@@ -802,7 +824,8 @@ std::unique_ptr<raw::parsed_statement> query_processor::parse_statement(const st
}
}
std::vector<std::unique_ptr<raw::parsed_statement>> query_processor::parse_statements(std::string_view queries, dialect d) {
std::vector<std::unique_ptr<raw::parsed_statement>>
query_processor::parse_statements(std::string_view queries, dialect d) {
try {
auto statements = util::do_with_parser(queries, d, std::mem_fn(&cql3_parser::CqlParser::queries));
if (statements.empty()) {
@@ -831,10 +854,15 @@ std::pair<std::reference_wrapper<struct query_processor::remote>, gate::holder>
on_internal_error(log, "attempted to perform distributed query when `query_processor::remote` is unavailable");
}
query_options query_processor::make_internal_options(const statements::prepared_statement::checked_weak_ptr& p, const std::vector<data_value_or_unset>& values,
db::consistency_level cl, int32_t page_size, service::node_local_only node_local_only) const {
query_options query_processor::make_internal_options(
const statements::prepared_statement::checked_weak_ptr& p,
const std::vector<data_value_or_unset>& values,
db::consistency_level cl,
int32_t page_size,
service::node_local_only node_local_only) const {
if (p->bound_names.size() != values.size()) {
throw std::invalid_argument(format("Invalid number of values. Expecting {:d} but got {:d}", p->bound_names.size(), values.size()));
throw std::invalid_argument(
format("Invalid number of values. Expecting {:d} but got {:d}", p->bound_names.size(), values.size()));
}
auto ni = p->bound_names.begin();
raw_value_vector_with_unset bound_values;
@@ -842,28 +870,32 @@ query_options query_processor::make_internal_options(const statements::prepared_
bound_values.unset.resize(values.size());
for (auto& var : values) {
auto& n = *ni;
std::visit(overloaded_functor{[&](const data_value& v) {
if (v.type() == bytes_type) {
bound_values.values.emplace_back(cql3::raw_value::make_value(value_cast<bytes>(v)));
} else if (v.is_null()) {
bound_values.values.emplace_back(cql3::raw_value::make_null());
} else {
bound_values.values.emplace_back(cql3::raw_value::make_value(n->type->decompose(v)));
}
},
[&](const unset_value&) {
bound_values.values.emplace_back(cql3::raw_value::make_null());
bound_values.unset[std::distance(p->bound_names.begin(), ni)] = true;
}},
var);
std::visit(overloaded_functor {
[&] (const data_value& v) {
if (v.type() == bytes_type) {
bound_values.values.emplace_back(cql3::raw_value::make_value(value_cast<bytes>(v)));
} else if (v.is_null()) {
bound_values.values.emplace_back(cql3::raw_value::make_null());
} else {
bound_values.values.emplace_back(cql3::raw_value::make_value(n->type->decompose(v)));
}
}, [&] (const unset_value&) {
bound_values.values.emplace_back(cql3::raw_value::make_null());
bound_values.unset[std::distance(p->bound_names.begin(), ni)] = true;
}
}, var);
++ni;
}
return query_options(cl, std::move(bound_values),
cql3::query_options::specific_options{.page_size = page_size,
.state = {},
.serial_consistency = db::consistency_level::SERIAL,
.timestamp = api::missing_timestamp,
.node_local_only = node_local_only});
return query_options(
cl,
std::move(bound_values),
cql3::query_options::specific_options {
.page_size = page_size,
.state = {},
.serial_consistency = db::consistency_level::SERIAL,
.timestamp = api::missing_timestamp,
.node_local_only = node_local_only
});
}
statements::prepared_statement::checked_weak_ptr query_processor::prepare_internal(const sstring& query_string) {
@@ -885,7 +917,11 @@ struct internal_query_state {
};
internal_query_state query_processor::create_paged_state(
const sstring& query_string, db::consistency_level cl, const data_value_list& values, int32_t page_size, std::optional<service::query_state> qs) {
const sstring& query_string,
db::consistency_level cl,
const data_value_list& values,
int32_t page_size,
std::optional<service::query_state> qs) {
auto p = prepare_internal(query_string);
auto opts = make_internal_options(p, values, cl, page_size);
if (!qs) {
@@ -899,7 +935,8 @@ bool query_processor::has_more_results(cql3::internal_query_state& state) const
}
future<> query_processor::for_each_cql_result(
cql3::internal_query_state& state, noncopyable_function<future<stop_iteration>(const cql3::untyped_result_set::row&)> f) {
cql3::internal_query_state& state,
noncopyable_function<future<stop_iteration>(const cql3::untyped_result_set::row&)> f) {
do {
auto msg = co_await execute_paged_internal(state);
for (auto& row : *msg) {
@@ -910,18 +947,17 @@ future<> query_processor::for_each_cql_result(
} while (has_more_results(state));
}
future<::shared_ptr<untyped_result_set>> query_processor::execute_paged_internal(internal_query_state& state) {
future<::shared_ptr<untyped_result_set>>
query_processor::execute_paged_internal(internal_query_state& state) {
state.p->statement->validate(*this, service::client_state::for_internal_calls());
::shared_ptr<cql_transport::messages::result_message> msg = co_await state.p->statement->execute(*this, *state.qs, *state.opts, std::nullopt);
::shared_ptr<cql_transport::messages::result_message> msg =
co_await state.p->statement->execute(*this, *state.qs, *state.opts, std::nullopt);
class visitor : public result_message::visitor_base {
internal_query_state& _state;
query_processor& _qp;
public:
visitor(internal_query_state& state, query_processor& qp)
: _state(state)
, _qp(qp) {
visitor(internal_query_state& state, query_processor& qp) : _state(state), _qp(qp) {
}
virtual ~visitor() = default;
void visit(const result_message::rows& rmrs) override {
@@ -950,14 +986,23 @@ future<::shared_ptr<untyped_result_set>> query_processor::execute_paged_internal
co_return ::make_shared<untyped_result_set>(msg);
}
future<::shared_ptr<untyped_result_set>> query_processor::execute_internal(
const sstring& query_string, db::consistency_level cl, const data_value_list& values, cache_internal cache) {
future<::shared_ptr<untyped_result_set>>
query_processor::execute_internal(
const sstring& query_string,
db::consistency_level cl,
const data_value_list& values,
cache_internal cache) {
auto qs = query_state_for_internal_call();
co_return co_await execute_internal(query_string, cl, qs, values, cache);
}
future<::shared_ptr<untyped_result_set>> query_processor::execute_internal(
const sstring& query_string, db::consistency_level cl, service::query_state& query_state, const data_value_list& values, cache_internal cache) {
future<::shared_ptr<untyped_result_set>>
query_processor::execute_internal(
const sstring& query_string,
db::consistency_level cl,
service::query_state& query_state,
const data_value_list& values,
cache_internal cache) {
if (log.is_enabled(logging::log_level::trace)) {
log.trace("execute_internal: {}\"{}\" ({})", cache ? "(cached) " : "", query_string, fmt::join(values, ", "));
@@ -975,7 +1020,10 @@ future<::shared_ptr<untyped_result_set>> query_processor::execute_internal(
}
future<utils::chunked_vector<mutation>> query_processor::get_mutations_internal(
const sstring query_string, service::query_state& query_state, api::timestamp_type timestamp, std::vector<data_value_or_unset> values) {
const sstring query_string,
service::query_state& query_state,
api::timestamp_type timestamp,
std::vector<data_value_or_unset> values) {
log.debug("get_mutations_internal: \"{}\" ({})", query_string, fmt::join(values, ", "));
auto stmt = prepare_internal(query_string);
auto mod_stmt = dynamic_pointer_cast<cql3::statements::modification_statement>(stmt->statement);
@@ -993,8 +1041,12 @@ future<utils::chunked_vector<mutation>> query_processor::get_mutations_internal(
co_return co_await mod_stmt->get_mutations(*this, opts, timeout, true, timestamp, query_state, json_cache, std::move(keys));
}
future<::shared_ptr<untyped_result_set>> query_processor::execute_with_params(
statements::prepared_statement::checked_weak_ptr p, db::consistency_level cl, service::query_state& query_state, const data_value_list& values) {
future<::shared_ptr<untyped_result_set>>
query_processor::execute_with_params(
statements::prepared_statement::checked_weak_ptr p,
db::consistency_level cl,
service::query_state& query_state,
const data_value_list& values) {
auto opts = make_internal_options(p, values, cl);
auto statement = p->statement;
@@ -1002,24 +1054,30 @@ future<::shared_ptr<untyped_result_set>> query_processor::execute_with_params(
co_return ::make_shared<untyped_result_set>(msg);
}
future<::shared_ptr<result_message>> query_processor::do_execute_with_params(
service::query_state& query_state, shared_ptr<cql_statement> statement, const query_options& options, std::optional<service::group0_guard> guard) {
future<::shared_ptr<result_message>>
query_processor::do_execute_with_params(
service::query_state& query_state,
shared_ptr<cql_statement> statement,
const query_options& options, std::optional<service::group0_guard> guard) {
statement->validate(*this, service::client_state::for_internal_calls());
co_return co_await coroutine::try_future(statement->execute(*this, query_state, options, std::move(guard)));
}
future<::shared_ptr<cql_transport::messages::result_message>> query_processor::execute_batch_without_checking_exception_message(
::shared_ptr<statements::batch_statement> batch, service::query_state& query_state, query_options& options,
future<::shared_ptr<cql_transport::messages::result_message>>
query_processor::execute_batch_without_checking_exception_message(
::shared_ptr<statements::batch_statement> batch,
service::query_state& query_state,
query_options& options,
std::unordered_map<prepared_cache_key_type, authorized_prepared_statements_cache::value_type> pending_authorization_entries) {
auto access_future = co_await coroutine::as_future(batch->check_access(*this, query_state.get_client_state()));
co_await coroutine::parallel_for_each(pending_authorization_entries, [this, &query_state](auto& e) -> future<> {
try {
co_await _authorized_prepared_cache.insert(*query_state.get_client_state().user(), e.first, std::move(e.second));
} catch (...) {
log.error("failed to cache the entry: {}", std::current_exception());
}
});
co_await coroutine::parallel_for_each(pending_authorization_entries, [this, &query_state] (auto& e) -> future<> {
try {
co_await _authorized_prepared_cache.insert(*query_state.get_client_state().user(), e.first, std::move(e.second));
} catch (...) {
log.error("failed to cache the entry: {}", std::current_exception());
}
});
bool failed = access_future.failed();
co_await audit::inspect(batch, query_state, options, failed);
if (access_future.failed()) {
@@ -1028,28 +1086,30 @@ future<::shared_ptr<cql_transport::messages::result_message>> query_processor::e
batch->validate();
batch->validate(*this, query_state.get_client_state());
_stats.queries_by_cl[size_t(options.get_consistency())] += batch->get_statements().size();
if (log.is_enabled(logging::log_level::trace)) {
if (log.is_enabled(logging::log_level::trace)) {
std::ostringstream oss;
for (const auto& s : batch->get_statements()) {
oss << std::endl << s.statement->raw_cql_statement;
for (const auto& s: batch->get_statements()) {
oss << std::endl << s.statement->raw_cql_statement;
}
log.trace("execute_batch({}): {}", batch->get_statements().size(), oss.str());
}
co_return co_await batch->execute(*this, query_state, options, std::nullopt);
}
future<service::broadcast_tables::query_result> query_processor::execute_broadcast_table_query(const service::broadcast_tables::query& query) {
future<service::broadcast_tables::query_result>
query_processor::execute_broadcast_table_query(const service::broadcast_tables::query& query) {
auto [remote_, holder] = remote();
co_return co_await service::broadcast_tables::execute(remote_.get().group0_client, query);
}
future<query::mapreduce_result> query_processor::mapreduce(query::mapreduce_request req, tracing::trace_state_ptr tr_state) {
future<query::mapreduce_result>
query_processor::mapreduce(query::mapreduce_request req, tracing::trace_state_ptr tr_state) {
auto [remote_, holder] = remote();
co_return co_await remote_.get().mapreducer.dispatch(std::move(req), std::move(tr_state));
}
future<::shared_ptr<messages::result_message>> query_processor::execute_schema_statement(
const statements::schema_altering_statement& stmt, service::query_state& state, const query_options& options, service::group0_batch& mc) {
future<::shared_ptr<messages::result_message>>
query_processor::execute_schema_statement(const statements::schema_altering_statement& stmt, service::query_state& state, const query_options& options, service::group0_batch& mc) {
if (this_shard_id() != 0) {
on_internal_error(log, "DDL must be executed on shard 0");
}
@@ -1103,8 +1163,7 @@ future<> query_processor::announce_schema_statement(const statements::schema_alt
co_await remote_.get().mm.announce(std::move(m), std::move(guard), description);
}
query_processor::migration_subscriber::migration_subscriber(query_processor* qp)
: _qp{qp} {
query_processor::migration_subscriber::migration_subscriber(query_processor* qp) : _qp{qp} {
}
void query_processor::migration_subscriber::on_create_keyspace(const sstring& ks_name) {
@@ -1130,7 +1189,10 @@ void query_processor::migration_subscriber::on_create_view(const sstring& ks_nam
void query_processor::migration_subscriber::on_update_keyspace(const sstring& ks_name) {
}
void query_processor::migration_subscriber::on_update_column_family(const sstring& ks_name, const sstring& cf_name, bool columns_changed) {
void query_processor::migration_subscriber::on_update_column_family(
const sstring& ks_name,
const sstring& cf_name,
bool columns_changed) {
// #1255: Ignoring columns_changed deliberately.
log.info("Column definitions for {}.{} changed, invalidating related prepared statements", ks_name, cf_name);
remove_invalid_prepared_statements(ks_name, cf_name);
@@ -1145,7 +1207,9 @@ void query_processor::migration_subscriber::on_update_function(const sstring& ks
void query_processor::migration_subscriber::on_update_aggregate(const sstring& ks_name, const sstring& aggregate_name) {
}
void query_processor::migration_subscriber::on_update_view(const sstring& ks_name, const sstring& view_name, bool columns_changed) {
void query_processor::migration_subscriber::on_update_view(
const sstring& ks_name,
const sstring& view_name, bool columns_changed) {
// scylladb/scylladb#16392 - Materialized views are also tables so we need at least handle
// them as such when changed.
on_update_column_family(ks_name, view_name, columns_changed);
@@ -1174,28 +1238,39 @@ void query_processor::migration_subscriber::on_drop_view(const sstring& ks_name,
remove_invalid_prepared_statements(ks_name, view_name);
}
void query_processor::migration_subscriber::remove_invalid_prepared_statements(sstring ks_name, std::optional<sstring> cf_name) {
_qp->_prepared_cache.remove_if([&](::shared_ptr<cql_statement> stmt) {
void query_processor::migration_subscriber::remove_invalid_prepared_statements(
sstring ks_name,
std::optional<sstring> cf_name) {
_qp->_prepared_cache.remove_if([&] (::shared_ptr<cql_statement> stmt) {
return this->should_invalidate(ks_name, cf_name, stmt);
});
}
bool query_processor::migration_subscriber::should_invalidate(sstring ks_name, std::optional<sstring> cf_name, ::shared_ptr<cql_statement> statement) {
bool query_processor::migration_subscriber::should_invalidate(
sstring ks_name,
std::optional<sstring> cf_name,
::shared_ptr<cql_statement> statement) {
return statement->depends_on(ks_name, cf_name);
}
future<> query_processor::query_internal(const sstring& query_string, db::consistency_level cl, const data_value_list& values, int32_t page_size,
noncopyable_function<future<stop_iteration>(const cql3::untyped_result_set_row&)> f, std::optional<service::query_state> qs) {
future<> query_processor::query_internal(
const sstring& query_string,
db::consistency_level cl,
const data_value_list& values,
int32_t page_size,
noncopyable_function<future<stop_iteration>(const cql3::untyped_result_set_row&)> f,
std::optional<service::query_state> qs) {
auto query_state = create_paged_state(query_string, cl, values, page_size, std::move(qs));
co_return co_await for_each_cql_result(query_state, std::move(f));
}
future<> query_processor::query_internal(const sstring& query_string, noncopyable_function<future<stop_iteration>(const cql3::untyped_result_set_row&)> f) {
future<> query_processor::query_internal(
const sstring& query_string,
noncopyable_function<future<stop_iteration>(const cql3::untyped_result_set_row&)> f) {
return query_internal(query_string, db::consistency_level::ONE, {}, 1000, std::move(f));
}
shared_ptr<cql_transport::messages::result_message> query_processor::bounce_to_shard(
unsigned shard, cql3::computed_function_values cached_fn_calls, bool track) {
shared_ptr<cql_transport::messages::result_message> query_processor::bounce_to_shard(unsigned shard, cql3::computed_function_values cached_fn_calls, bool track) {
if (track) {
_proxy.get_stats().replica_cross_shard_ops++;
}
@@ -1203,8 +1278,7 @@ shared_ptr<cql_transport::messages::result_message> query_processor::bounce_to_s
return ::make_shared<cql_transport::messages::result_message::bounce>(my_host_id, shard, std::move(cached_fn_calls));
}
shared_ptr<cql_transport::messages::result_message> query_processor::bounce_to_node(
locator::tablet_replica replica, cql3::computed_function_values cached_fn_calls, seastar::lowres_clock::time_point timeout, bool is_write) {
shared_ptr<cql_transport::messages::result_message> query_processor::bounce_to_node(locator::tablet_replica replica, cql3::computed_function_values cached_fn_calls, seastar::lowres_clock::time_point timeout, bool is_write) {
get_cql_stats().forwarded_requests++;
return ::make_shared<cql_transport::messages::result_message::bounce>(replica.host, replica.shard, std::move(cached_fn_calls), timeout, is_write);
}
@@ -1221,7 +1295,7 @@ void query_processor::update_authorized_prepared_cache_config() {
utils::loading_cache_config cfg;
cfg.max_size = _mcfg.authorized_prepared_cache_size;
cfg.expiry = std::min(std::chrono::milliseconds(_db.get_config().permissions_validity_in_ms()),
std::chrono::duration_cast<std::chrono::milliseconds>(prepared_statements_cache::entry_expiry));
std::chrono::duration_cast<std::chrono::milliseconds>(prepared_statements_cache::entry_expiry));
cfg.refresh = std::chrono::milliseconds(_db.get_config().permissions_update_interval_in_ms());
if (!_authorized_prepared_cache.update_config(std::move(cfg))) {
@@ -1233,4 +1307,4 @@ void query_processor::reset_cache() {
_authorized_prepared_cache.reset();
}
} // namespace cql3
}

View File

@@ -63,14 +63,15 @@ namespace db {
namespace schema_tables {
static constexpr std::initializer_list<table_kind> all_table_kinds = {table_kind::table, table_kind::view};
static constexpr std::initializer_list<table_kind> all_table_kinds = {
table_kind::table,
table_kind::view
};
static schema_ptr get_table_holder(table_kind k) {
switch (k) {
case table_kind::table:
return tables();
case table_kind::view:
return views();
case table_kind::table: return tables();
case table_kind::view: return views();
}
abort();
}
@@ -93,18 +94,15 @@ void table_selector::add(sstring name) {
}
}
} // namespace schema_tables
}
} // namespace db
}
template <>
struct fmt::formatter<db::schema_tables::table_kind> {
constexpr auto parse(format_parse_context& ctx) {
return ctx.begin();
}
template <> struct fmt::formatter<db::schema_tables::table_kind> {
constexpr auto parse(format_parse_context& ctx) { return ctx.begin(); }
auto format(db::schema_tables::table_kind k, fmt::format_context& ctx) const {
switch (k) {
using enum db::schema_tables::table_kind;
using enum db::schema_tables::table_kind;
case table:
return fmt::format_to(ctx.out(), "table");
case view:
@@ -127,8 +125,11 @@ static std::optional<table_id> table_id_from_mutations(const schema_mutations& s
return table_id(table_row.get_nonnull<utils::UUID>("id"));
}
static future<std::map<table_id, schema_mutations>> read_tables_for_keyspaces(sharded<service::storage_proxy>& proxy, const std::set<sstring>& keyspace_names,
table_kind kind, const std::unordered_map<sstring, table_selector>& tables_per_keyspace) {
static
future<std::map<table_id, schema_mutations>>
read_tables_for_keyspaces(sharded<service::storage_proxy>& proxy, const std::set<sstring>& keyspace_names, table_kind kind,
const std::unordered_map<sstring, table_selector>& tables_per_keyspace)
{
std::map<table_id, schema_mutations> result;
for (auto&& [keyspace_name, sel] : tables_per_keyspace) {
if (!sel.tables.contains(kind)) {
@@ -148,30 +149,32 @@ static future<std::map<table_id, schema_mutations>> read_tables_for_keyspaces(sh
// Extracts the names of tables affected by a schema mutation.
// The mutation must target one of the tables in schema_tables_holding_schema_mutations().
static table_selector get_affected_tables(const sstring& keyspace_name, const mutation& m) {
static
table_selector get_affected_tables(const sstring& keyspace_name, const mutation& m) {
const schema& s = *m.schema();
auto get_table_name = [&](const clustering_key& ck) {
auto get_table_name = [&] (const clustering_key& ck) {
// The first component of the clustering key in each table listed in
// schema_tables_holding_schema_mutations contains the table name.
return value_cast<sstring>(utf8_type->deserialize(ck.get_component(s, 0)));
};
table_selector result;
if (m.partition().partition_tombstone()) {
slogger.trace("Mutation of {}.{} for keyspace {} contains a partition tombstone", m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name);
slogger.trace("Mutation of {}.{} for keyspace {} contains a partition tombstone",
m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name);
result.all_in_keyspace = true;
}
for (auto&& e : m.partition().row_tombstones()) {
const range_tombstone& rt = e.tombstone();
if (rt.start.size(s) == 0 || rt.end.size(s) == 0) {
slogger.trace(
"Mutation of {}.{} for keyspace {} contains a multi-table range tombstone", m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name);
slogger.trace("Mutation of {}.{} for keyspace {} contains a multi-table range tombstone",
m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name);
result.all_in_keyspace = true;
break;
}
auto table_name = get_table_name(rt.start);
if (table_name != get_table_name(rt.end)) {
slogger.trace(
"Mutation of {}.{} for keyspace {} contains a multi-table range tombstone", m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name);
slogger.trace("Mutation of {}.{} for keyspace {} contains a multi-table range tombstone",
m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name);
result.all_in_keyspace = true;
break;
}
@@ -180,17 +183,16 @@ static table_selector get_affected_tables(const sstring& keyspace_name, const mu
for (auto&& row : m.partition().clustered_rows()) {
result.add(get_table_name(row.key()));
}
slogger.trace("Mutation of {}.{} for keyspace {} affects tables: {}, all_in_keyspace: {}", m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name,
result.tables, result.all_in_keyspace);
slogger.trace("Mutation of {}.{} for keyspace {} affects tables: {}, all_in_keyspace: {}",
m.schema()->ks_name(), m.schema()->cf_name(), keyspace_name, result.tables, result.all_in_keyspace);
return result;
}
future<schema_result> static read_schema_for_keyspaces(
sharded<service::storage_proxy>& proxy, const sstring& schema_table_name, const std::set<sstring>& keyspace_names) {
auto map = [&proxy, schema_table_name](const sstring& keyspace_name) {
return read_schema_partition_for_keyspace(proxy, schema_table_name, keyspace_name);
};
auto insert = [](schema_result&& result, auto&& schema_entity) {
future<schema_result>
static read_schema_for_keyspaces(sharded<service::storage_proxy>& proxy, const sstring& schema_table_name, const std::set<sstring>& keyspace_names)
{
auto map = [&proxy, schema_table_name] (const sstring& keyspace_name) { return read_schema_partition_for_keyspace(proxy, schema_table_name, keyspace_name); };
auto insert = [] (schema_result&& result, auto&& schema_entity) {
if (!schema_entity.second->empty()) {
result.insert(std::move(schema_entity));
}
@@ -200,11 +202,11 @@ future<schema_result> static read_schema_for_keyspaces(
}
// Returns names of live table definitions of given keyspace
future<std::vector<sstring>> static read_table_names_of_keyspace(
sharded<service::storage_proxy>& proxy, const sstring& keyspace_name, schema_ptr schema_table) {
future<std::vector<sstring>>
static read_table_names_of_keyspace(sharded<service::storage_proxy>& proxy, const sstring& keyspace_name, schema_ptr schema_table) {
auto pkey = dht::decorate_key(*schema_table, partition_key::from_singular(*schema_table, keyspace_name));
auto&& rs = co_await db::system_keyspace::query(proxy.local().get_db(), schema_table->ks_name(), schema_table->cf_name(), pkey);
co_return rs->rows() | std::views::transform([schema_table](const query::result_set_row& row) {
co_return rs->rows() | std::views::transform([schema_table] (const query::result_set_row& row) {
const sstring name = schema_table->clustering_key_columns().begin()->name_as_text();
return row.get_nonnull<sstring>(name);
}) | std::ranges::to<std::vector>();
@@ -240,7 +242,8 @@ static void maybe_delete_schema_version(mutation& m) {
}
}
future<> schema_applier::merge_keyspaces() {
future<> schema_applier::merge_keyspaces()
{
/*
* - we don't care about entriesOnlyOnLeft() or entriesInCommon(), because only the changes are of interest to us
* - of all entriesOnlyOnRight(), we only care about ones that have live columns; it's possible to have a ColumnFamily
@@ -277,16 +280,21 @@ future<> schema_applier::merge_keyspaces() {
for (auto& name : created) {
slogger.info("Creating keyspace {}", name);
auto sk_after_v = _after.scylla_keyspaces.contains(name) ? _after.scylla_keyspaces.at(name) : nullptr;
auto ksm = co_await create_keyspace_metadata(schema_result_value_type{name, _after.keyspaces.at(name)}, sk_after_v);
auto ksm = co_await create_keyspace_metadata(
schema_result_value_type{name, _after.keyspaces.at(name)}, sk_after_v);
_affected_keyspaces.created.push_back(
co_await replica::database::prepare_create_keyspace_on_all_shards(sharded_db, _proxy, *ksm, _pending_token_metadata));
co_await replica::database::prepare_create_keyspace_on_all_shards(
sharded_db, _proxy, *ksm, _pending_token_metadata));
_affected_keyspaces.names.created.insert(name);
}
for (auto& name : altered) {
slogger.info("Altering keyspace {}", name);
auto sk_after_v = _after.scylla_keyspaces.contains(name) ? _after.scylla_keyspaces.at(name) : nullptr;
auto tmp_ksm = co_await create_keyspace_metadata(schema_result_value_type{name, _after.keyspaces.at(name)}, sk_after_v);
_affected_keyspaces.altered.push_back(co_await replica::database::prepare_update_keyspace_on_all_shards(sharded_db, *tmp_ksm, _pending_token_metadata));
auto tmp_ksm = co_await create_keyspace_metadata(
schema_result_value_type{name, _after.keyspaces.at(name)}, sk_after_v);
_affected_keyspaces.altered.push_back(
co_await replica::database::prepare_update_keyspace_on_all_shards(
sharded_db, *tmp_ksm, _pending_token_metadata));
_affected_keyspaces.names.altered.insert(name);
}
for (auto& key : _affected_keyspaces.names.dropped) {
@@ -319,7 +327,7 @@ static std::vector<column_definition> get_primary_key_definition(const schema_pt
static std::vector<bytes> get_primary_key(const std::vector<column_definition>& primary_key, const query::result_set_row* row) {
std::vector<bytes> key;
for (const auto& column : primary_key) {
const data_value* val = row->get_data_value(column.name_as_text());
const data_value *val = row->get_data_value(column.name_as_text());
key.push_back(val->serialize_nonnull());
}
return key;
@@ -330,7 +338,7 @@ static std::map<std::vector<bytes>, const query::result_set_row*> build_row_map(
const std::vector<query::result_set_row>& rows = result.rows();
auto primary_key = get_primary_key_definition(result.schema());
std::map<std::vector<bytes>, const query::result_set_row*> ret;
for (const auto& row : rows) {
for (const auto& row: rows) {
auto key = get_primary_key(primary_key, &row);
ret.insert(std::pair(std::move(key), &row));
}
@@ -383,8 +391,8 @@ struct aggregate_diff {
std::vector<std::pair<const query::result_set_row*, const query::result_set_row*>> dropped;
};
static aggregate_diff diff_aggregates_rows(
const schema_result& aggr_before, const schema_result& aggr_after, const schema_result& scylla_aggr_before, const schema_result& scylla_aggr_after) {
static aggregate_diff diff_aggregates_rows(const schema_result& aggr_before, const schema_result& aggr_after,
const schema_result& scylla_aggr_before, const schema_result& scylla_aggr_after) {
using map = std::map<std::vector<bytes>, const query::result_set_row*>;
auto aggr_diff = difference(aggr_before, aggr_after, indirect_equal_to<lw_shared_ptr<query::result_set>>());
@@ -428,11 +436,15 @@ static aggregate_diff diff_aggregates_rows(
for (const auto& k : diff.entries_only_on_left) {
auto entry = scylla_aggr_rows_before.find(k);
dropped.push_back({aggr_before_rows.find(k)->second, (entry != scylla_aggr_rows_before.end()) ? entry->second : nullptr});
dropped.push_back({
aggr_before_rows.find(k)->second, (entry != scylla_aggr_rows_before.end()) ? entry->second : nullptr
});
}
for (const auto& k : diff.entries_only_on_right) {
auto entry = scylla_aggr_rows_after.find(k);
created.push_back({aggr_after_rows.find(k)->second, (entry != scylla_aggr_rows_after.end()) ? entry->second : nullptr});
created.push_back({
aggr_after_rows.find(k)->second, (entry != scylla_aggr_rows_after.end()) ? entry->second : nullptr
});
}
}
@@ -440,10 +452,11 @@ static aggregate_diff diff_aggregates_rows(
}
// see the comments for merge_keyspaces()
future<> schema_applier::merge_types() {
future<> schema_applier::merge_types()
{
auto diff = diff_rows(_before.types, _after.types);
co_await _affected_user_types.start();
co_await _affected_user_types.invoke_on_all([&](affected_user_types_per_shard& af) mutable -> future<> {
co_await _affected_user_types.invoke_on_all([&] (affected_user_types_per_shard& af) mutable -> future<> {
auto& db = _proxy.local().get_db().local();
std::map<sstring, std::reference_wrapper<replica::keyspace>> new_keyspaces_per_shard;
@@ -465,12 +478,16 @@ future<> schema_applier::merge_types() {
// version of view to "before" version of base table and "after" to "after"
// respectively.
enum class schema_diff_side {
left, // old, before
left, // old, before
right, // new, after
};
static schema_diff_per_shard diff_table_or_view(sharded<service::storage_proxy>& proxy, const std::map<table_id, schema_mutations>& before,
const std::map<table_id, schema_mutations>& after, bool reload, noncopyable_function<schema_ptr(schema_mutations sm, schema_diff_side)> create_schema) {
static schema_diff_per_shard diff_table_or_view(sharded<service::storage_proxy>& proxy,
const std::map<table_id, schema_mutations>& before,
const std::map<table_id, schema_mutations>& after,
bool reload,
noncopyable_function<schema_ptr (schema_mutations sm, schema_diff_side)> create_schema)
{
schema_diff_per_shard d;
auto diff = difference(before, after);
for (auto&& key : diff.entries_only_on_left) {
@@ -490,10 +507,10 @@ static schema_diff_per_shard diff_table_or_view(sharded<service::storage_proxy>&
d.altered.emplace_back(schema_diff_per_shard::altered_schema{s_before, s});
}
if (reload) {
for (auto&& key : diff.entries_in_common) {
for (auto&& key: diff.entries_in_common) {
auto s = create_schema(std::move(after.at(key)), schema_diff_side::right);
slogger.info("Reloading {}.{} id={} version={}", s->ks_name(), s->cf_name(), s->id(), s->version());
d.altered.emplace_back(schema_diff_per_shard::altered_schema{s, s});
d.altered.emplace_back(schema_diff_per_shard::altered_schema {s, s});
}
}
return d;
@@ -507,9 +524,7 @@ static schema_diff_per_shard diff_table_or_view(sharded<service::storage_proxy>&
constexpr size_t max_concurrent = 8;
in_progress_types_storage_per_shard::in_progress_types_storage_per_shard(
replica::database& db, const affected_keyspaces& affected_keyspaces, const affected_user_types& affected_types)
: _stored_user_types(db.as_user_types_storage()) {
in_progress_types_storage_per_shard::in_progress_types_storage_per_shard(replica::database& db, const affected_keyspaces& affected_keyspaces, const affected_user_types& affected_types) : _stored_user_types(db.as_user_types_storage()) {
// initialize metadata for new keyspaces
for (auto& ks_per_shard : affected_keyspaces.created) {
auto metadata = ks_per_shard[this_shard_id()]->metadata();
@@ -537,7 +552,7 @@ in_progress_types_storage_per_shard::in_progress_types_storage_per_shard(
auto& ks_name = type->_keyspace;
_in_progress_types[ks_name].remove_type(type);
}
for (const auto& ks_name : affected_keyspaces.names.dropped) {
for (const auto &ks_name : affected_keyspaces.names.dropped) {
// can't reference a type when it's keyspace is being dropped
_in_progress_types[ks_name] = data_dictionary::user_types_metadata();
}
@@ -555,9 +570,8 @@ std::shared_ptr<data_dictionary::user_types_storage> in_progress_types_storage_p
return _stored_user_types;
}
future<> in_progress_types_storage::init(
sharded<replica::database>& sharded_db, const affected_keyspaces& affected_keyspaces, const affected_user_types& affected_types) {
co_await sharded_db.invoke_on_all([&](replica::database& db) {
future<> in_progress_types_storage::init(sharded<replica::database>& sharded_db, const affected_keyspaces& affected_keyspaces, const affected_user_types& affected_types) {
co_await sharded_db.invoke_on_all([&] (replica::database& db) {
shards[this_shard_id()] = make_foreign(seastar::make_shared<in_progress_types_storage_per_shard>(db, affected_keyspaces, affected_types));
});
}
@@ -571,7 +585,8 @@ in_progress_types_storage_per_shard& in_progress_types_storage::local() {
// that when a base schema and a subset of its views are modified together (i.e.,
// upon an alter table or alter type statement), then they are published together
// as well, without any deferring in-between.
future<> schema_applier::merge_tables_and_views() {
future<> schema_applier::merge_tables_and_views()
{
auto& user_types = _types_storage.local();
co_await _affected_tables_and_views.tables_and_views.start();
@@ -582,10 +597,10 @@ future<> schema_applier::merge_tables_and_views() {
// Create CDC tables before non-CDC base tables, because we want the base tables with CDC enabled
// to point to their CDC tables.
local_cdc = diff_table_or_view(_proxy, _before.cdc, _after.cdc, _reload, [&](schema_mutations sm, schema_diff_side) {
local_cdc = diff_table_or_view(_proxy, _before.cdc, _after.cdc, _reload, [&] (schema_mutations sm, schema_diff_side) {
return create_table_from_mutations(_proxy, std::move(sm), user_types, nullptr);
});
local_tables = diff_table_or_view(_proxy, _before.tables, _after.tables, _reload, [&](schema_mutations sm, schema_diff_side side) {
local_tables = diff_table_or_view(_proxy, _before.tables, _after.tables, _reload, [&] (schema_mutations sm, schema_diff_side side) {
// If the table has CDC enabled, find the CDC schema version and set it in the table schema.
// If the table is created or altered with CDC enabled, then the CDC
// table is also created or altered in the same operation, so we can
@@ -621,7 +636,7 @@ future<> schema_applier::merge_tables_and_views() {
return create_table_from_mutations(_proxy, std::move(sm), user_types, cdc_schema);
});
local_views = diff_table_or_view(_proxy, _before.views, _after.views, _reload, [&](schema_mutations sm, schema_diff_side side) {
local_views = diff_table_or_view(_proxy, _before.views, _after.views, _reload, [&] (schema_mutations sm, schema_diff_side side) {
// The view schema mutation should be created with reference to the base table schema because we definitely know it by now.
// If we don't do it we are leaving a window where write commands to this schema are illegal.
// There are 3 possibilities:
@@ -668,26 +683,31 @@ future<> schema_applier::merge_tables_and_views() {
frozen_schema_diff tables_frozen = co_await local_tables.freeze();
frozen_schema_diff cdc_frozen = co_await local_cdc.freeze();
frozen_schema_diff views_frozen = co_await local_views.freeze();
co_await _affected_tables_and_views.tables_and_views.invoke_on_others(
[this, &tables_frozen, &cdc_frozen, &views_frozen](affected_tables_and_views_per_shard& tables_and_views) -> future<> {
auto& db = _proxy.local().get_db().local();
tables_and_views.tables = co_await schema_diff_per_shard::copy_from(db, _types_storage, tables_frozen);
tables_and_views.cdc = co_await schema_diff_per_shard::copy_from(db, _types_storage, cdc_frozen);
tables_and_views.views = co_await schema_diff_per_shard::copy_from(db, _types_storage, views_frozen);
});
co_await _affected_tables_and_views.tables_and_views.invoke_on_others([this, &tables_frozen, &cdc_frozen, &views_frozen] (affected_tables_and_views_per_shard& tables_and_views) -> future<> {
auto& db = _proxy.local().get_db().local();
tables_and_views.tables = co_await schema_diff_per_shard::copy_from(
db, _types_storage, tables_frozen);
tables_and_views.cdc = co_await schema_diff_per_shard::copy_from(
db, _types_storage, cdc_frozen);
tables_and_views.views = co_await schema_diff_per_shard::copy_from(
db, _types_storage, views_frozen);
});
auto& db = _proxy.local().get_db();
co_await max_concurrent_for_each(local_views.dropped, max_concurrent, [&db, this](schema_ptr& dt) -> future<> {
co_await max_concurrent_for_each(local_views.dropped, max_concurrent, [&db, this] (schema_ptr& dt) -> future<> {
auto uuid = dt->id();
_affected_tables_and_views.table_shards.insert({uuid, co_await replica::database::prepare_drop_table_on_all_shards(db, uuid)});
_affected_tables_and_views.table_shards.insert({uuid,
co_await replica::database::prepare_drop_table_on_all_shards(db, uuid)});
});
co_await max_concurrent_for_each(local_tables.dropped, max_concurrent, [&db, this](schema_ptr& dt) -> future<> {
co_await max_concurrent_for_each(local_tables.dropped, max_concurrent, [&db, this] (schema_ptr& dt) -> future<> {
auto uuid = dt->id();
_affected_tables_and_views.table_shards.insert({uuid, co_await replica::database::prepare_drop_table_on_all_shards(db, uuid)});
_affected_tables_and_views.table_shards.insert({uuid,
co_await replica::database::prepare_drop_table_on_all_shards(db, uuid)});
});
co_await max_concurrent_for_each(local_cdc.dropped, max_concurrent, [&db, this](schema_ptr& dt) -> future<> {
co_await max_concurrent_for_each(local_cdc.dropped, max_concurrent, [&db, this] (schema_ptr& dt) -> future<> {
auto uuid = dt->id();
_affected_tables_and_views.table_shards.insert({uuid, co_await replica::database::prepare_drop_table_on_all_shards(db, uuid)});
_affected_tables_and_views.table_shards.insert({uuid,
co_await replica::database::prepare_drop_table_on_all_shards(db, uuid)});
});
}
@@ -699,8 +719,8 @@ future<frozen_schema_diff> schema_diff_per_shard::freeze() const {
}
for (const auto& a : altered) {
result.altered.push_back(frozen_schema_diff::altered_schema{
.old_schema = extended_frozen_schema(a.old_schema),
.new_schema = extended_frozen_schema(a.new_schema),
.old_schema = extended_frozen_schema(a.old_schema),
.new_schema = extended_frozen_schema(a.new_schema),
});
co_await coroutine::maybe_yield();
}
@@ -723,8 +743,8 @@ future<schema_diff_per_shard> schema_diff_per_shard::copy_from(replica::database
}
for (const auto& a : oth.altered) {
result.altered.push_back(schema_diff_per_shard::altered_schema{
.old_schema = a.old_schema.unfreeze(commited_ctxt),
.new_schema = a.new_schema.unfreeze(ctxt),
.old_schema = a.old_schema.unfreeze(commited_ctxt),
.new_schema = a.new_schema.unfreeze(ctxt),
});
co_await coroutine::maybe_yield();
}
@@ -738,7 +758,7 @@ future<schema_diff_per_shard> schema_diff_per_shard::copy_from(replica::database
static future<> notify_tables_and_views(service::migration_notifier& notifier, const affected_tables_and_views& diff) {
auto it = diff.tables_and_views.local().columns_changed.cbegin();
auto notify = [&](auto& r, auto&& f) -> future<> {
auto notify = [&] (auto& r, auto&& f) -> future<> {
co_await max_concurrent_for_each(r, max_concurrent, std::move(f));
};
@@ -747,41 +767,24 @@ static future<> notify_tables_and_views(service::migration_notifier& notifier, c
const auto& views = diff.tables_and_views.local().views;
// View drops are notified first, because a table can only be dropped if its views are already deleted
co_await notify(views.dropped, [&](auto&& dt) {
return notifier.drop_view(view_ptr(dt));
});
co_await notify(tables.dropped, [&](auto&& dt) {
return notifier.drop_column_family(dt);
});
co_await notify(cdc.dropped, [&](auto&& dt) {
return notifier.drop_column_family(dt);
});
co_await notify(views.dropped, [&] (auto&& dt) { return notifier.drop_view(view_ptr(dt)); });
co_await notify(tables.dropped, [&] (auto&& dt) { return notifier.drop_column_family(dt); });
co_await notify(cdc.dropped, [&] (auto&& dt) { return notifier.drop_column_family(dt); });
// Table creations are notified first, in case a view is created right after the table
co_await notify(tables.created, [&](auto&& gs) {
return notifier.create_column_family(gs);
});
co_await notify(cdc.created, [&](auto&& gs) {
return notifier.create_column_family(gs);
});
co_await notify(views.created, [&](auto&& gs) {
return notifier.create_view(view_ptr(gs));
});
co_await notify(tables.created, [&] (auto&& gs) { return notifier.create_column_family(gs); });
co_await notify(cdc.created, [&] (auto&& gs) { return notifier.create_column_family(gs); });
co_await notify(views.created, [&] (auto&& gs) { return notifier.create_view(view_ptr(gs)); });
// Table altering is notified first, in case new base columns appear
co_await notify(tables.altered, [&](auto&& altered) {
return notifier.update_column_family(altered.new_schema, *it++);
});
co_await notify(cdc.altered, [&](auto&& altered) {
return notifier.update_column_family(altered.new_schema, *it++);
});
co_await notify(views.altered, [&](auto&& altered) {
return notifier.update_view(view_ptr(altered.new_schema), *it++);
});
co_await notify(tables.altered, [&] (auto&& altered) { return notifier.update_column_family(altered.new_schema, *it++); });
co_await notify(cdc.altered, [&] (auto&& altered) { return notifier.update_column_family(altered.new_schema, *it++); });
co_await notify(views.altered, [&] (auto&& altered) { return notifier.update_view(view_ptr(altered.new_schema), *it++); });
}
static void drop_cached_func(replica::database& db, const query::result_set_row& row) {
auto language = row.get_nonnull<sstring>("language");
if (language == "wasm") {
cql3::functions::function_name name{row.get_nonnull<sstring>("keyspace_name"), row.get_nonnull<sstring>("function_name")};
cql3::functions::function_name name{
row.get_nonnull<sstring>("keyspace_name"), row.get_nonnull<sstring>("function_name")};
auto arg_types = read_arg_types(row, name.keyspace, db.user_types());
db.lang().remove(name, arg_types);
}
@@ -790,13 +793,14 @@ static void drop_cached_func(replica::database& db, const query::result_set_row&
future<> schema_applier::merge_functions() {
auto diff = diff_rows(_before.functions, _after.functions);
co_await _functions_batch.start();
co_await _functions_batch.invoke_on_all(coroutine::lambda([&](cql3::functions::change_batch& batch) -> future<> {
co_await _functions_batch.invoke_on_all(coroutine::lambda([&] (cql3::functions::change_batch& batch) -> future<> {
auto& db = _proxy.local().get_db().local();
for (const auto& val : diff.created) {
batch.add_function(co_await create_func(db, *val, _types_storage.local()));
}
for (const auto& val : diff.dropped) {
cql3::functions::function_name name{val->get_nonnull<sstring>("keyspace_name"), val->get_nonnull<sstring>("function_name")};
cql3::functions::function_name name{
val->get_nonnull<sstring>("keyspace_name"), val->get_nonnull<sstring>("function_name")};
auto commited_storage = _types_storage.local().committed_storage();
auto arg_types = read_arg_types(*val, name.keyspace, *commited_storage);
// as we don't yield between dropping cache and committing batch
@@ -814,13 +818,14 @@ future<> schema_applier::merge_functions() {
future<> schema_applier::merge_aggregates() {
auto diff = diff_aggregates_rows(_before.aggregates, _after.aggregates, _before.scylla_aggregates, _after.scylla_aggregates);
co_await _functions_batch.invoke_on_all([&](cql3::functions::change_batch& batch) -> future<> {
co_await _functions_batch.invoke_on_all([&] (cql3::functions::change_batch& batch)-> future<> {
auto& db = _proxy.local().get_db().local();
for (const auto& val : diff.created) {
batch.add_function(create_aggregate(db, *val.first, val.second, batch, _types_storage.local()));
}
for (const auto& val : diff.dropped) {
cql3::functions::function_name name{val.first->get_nonnull<sstring>("keyspace_name"), val.first->get_nonnull<sstring>("aggregate_name")};
cql3::functions::function_name name{
val.first->get_nonnull<sstring>("keyspace_name"), val.first->get_nonnull<sstring>("aggregate_name")};
auto commited_storage = _types_storage.local().committed_storage();
auto arg_types = read_arg_types(*val.first, name.keyspace, *commited_storage);
batch.remove_aggregate(name, arg_types);
@@ -855,15 +860,15 @@ future<schema_persisted_state> schema_applier::get_schema_persisted_state() {
auto [tables, cdc] = extract_cdc(std::move(tables_and_cdc));
schema_persisted_state v{
.keyspaces = co_await read_schema_for_keyspaces(_proxy, KEYSPACES, _keyspaces),
.scylla_keyspaces = co_await read_schema_for_keyspaces(_proxy, SCYLLA_KEYSPACES, _keyspaces),
.tables = std::move(tables),
.types = co_await read_schema_for_keyspaces(_proxy, TYPES, _keyspaces),
.views = co_await read_tables_for_keyspaces(_proxy, _keyspaces, table_kind::view, _affected_tables),
.cdc = std::move(cdc),
.functions = co_await read_schema_for_keyspaces(_proxy, FUNCTIONS, _keyspaces),
.aggregates = co_await read_schema_for_keyspaces(_proxy, AGGREGATES, _keyspaces),
.scylla_aggregates = co_await read_schema_for_keyspaces(_proxy, SCYLLA_AGGREGATES, _keyspaces),
.keyspaces = co_await read_schema_for_keyspaces(_proxy, KEYSPACES, _keyspaces),
.scylla_keyspaces = co_await read_schema_for_keyspaces(_proxy, SCYLLA_KEYSPACES, _keyspaces),
.tables = std::move(tables),
.types = co_await read_schema_for_keyspaces(_proxy, TYPES, _keyspaces),
.views = co_await read_tables_for_keyspaces(_proxy, _keyspaces, table_kind::view, _affected_tables),
.cdc = std::move(cdc),
.functions = co_await read_schema_for_keyspaces(_proxy, FUNCTIONS, _keyspaces),
.aggregates = co_await read_schema_for_keyspaces(_proxy, AGGREGATES, _keyspaces),
.scylla_aggregates = co_await read_schema_for_keyspaces(_proxy, SCYLLA_AGGREGATES, _keyspaces),
};
co_return v;
}
@@ -919,11 +924,10 @@ class pending_schema_getter : public service::schema_getter {
private:
schema_applier& _sa;
sharded<replica::database>& _db;
public:
pending_schema_getter(schema_applier& sa)
: _sa(sa)
, _db(sa._proxy.local().get_db()) {};
pending_schema_getter(schema_applier& sa) :
_sa(sa), _db(sa._proxy.local().get_db()) {
};
virtual flat_hash_map<sstring, locator::replication_strategy_ptr> get_keyspaces_replication() const override {
flat_hash_map<sstring, locator::replication_strategy_ptr> out;
@@ -985,7 +989,8 @@ future<> schema_applier::update_tablets() {
if (_tablet_hint) {
slogger.info("Tablet metadata changed");
pending_schema_getter getter{*this};
_token_metadata_change = co_await _ss.local().prepare_token_metadata_change(_pending_token_metadata.local(), getter);
_token_metadata_change = co_await _ss.local().prepare_token_metadata_change(
_pending_token_metadata.local(), getter);
}
}
@@ -994,7 +999,8 @@ future<> schema_applier::update_tablets() {
future<> schema_applier::load_mutable_token_metadata() {
locator::mutable_token_metadata_ptr current_token_metadata = co_await _ss.local().get_mutable_token_metadata_ptr();
if (_tablet_hint) {
auto new_token_metadata = co_await _ss.local().prepare_tablet_metadata(_tablet_hint, current_token_metadata);
auto new_token_metadata = co_await _ss.local().prepare_tablet_metadata(
_tablet_hint, current_token_metadata);
co_return co_await _pending_token_metadata.assign(new_token_metadata);
}
co_await _pending_token_metadata.assign(current_token_metadata);
@@ -1109,13 +1115,14 @@ future<> schema_applier::commit() {
// However, we can only acquire the (write) lock after preparing all
// entities for the pending schema change that need to iterate over tables_metadata;
// otherwise, such iteration would deadlock.
_metadata_locks = std::make_unique<replica::tables_metadata_lock_on_all_shards>(co_await replica::database::lock_tables_metadata(sharded_db));
_metadata_locks = std::make_unique<replica::tables_metadata_lock_on_all_shards>(
co_await replica::database::lock_tables_metadata(sharded_db));
// Run func first on shard 0
// to allow "seeding" of the effective_replication_map
// with a new e_r_m instance.
SCYLLA_ASSERT(this_shard_id() == 0);
commit_on_shard(sharded_db.local());
co_await sharded_db.invoke_on_others([this](replica::database& db) {
co_await sharded_db.invoke_on_others([this] (replica::database& db) {
commit_on_shard(db);
});
// unlock as some functions in post_commit() may read data under those locks
@@ -1147,11 +1154,12 @@ future<> schema_applier::finalize_tables_and_views() {
if (_tablet_hint) {
auto& db = sharded_db.local();
co_await db.get_compaction_manager().get_shared_tombstone_gc_state().flush_pending_repair_time_update(db);
co_await db.get_compaction_manager().get_shared_tombstone_gc_state().
flush_pending_repair_time_update(db);
_ss.local().wake_up_topology_state_machine();
}
co_await sharded_db.invoke_on_all([&diff](replica::database& db) -> future<> {
co_await sharded_db.invoke_on_all([&diff] (replica::database& db) -> future<> {
const auto& tables = diff.tables_and_views.local().tables;
const auto& cdc = diff.tables_and_views.local().cdc;
const auto& views = diff.tables_and_views.local().views;
@@ -1176,14 +1184,15 @@ future<> schema_applier::finalize_tables_and_views() {
//
// Drop column mapping entries for dropped tables since these will not be TTLed automatically
// and will stay there forever if we don't clean them up manually
co_await max_concurrent_for_each(diff.tables_and_views.local().tables.created, max_concurrent, [this](const schema_ptr& gs) -> future<> {
co_await max_concurrent_for_each(diff.tables_and_views.local().tables.created, max_concurrent, [this] (const schema_ptr& gs) -> future<> {
co_await store_column_mapping(_proxy, gs, false);
});
co_await max_concurrent_for_each(
diff.tables_and_views.local().tables.altered, max_concurrent, [this](const schema_diff_per_shard::altered_schema& altered) -> future<> {
co_await when_all_succeed(store_column_mapping(_proxy, altered.old_schema, true), store_column_mapping(_proxy, altered.new_schema, false));
});
co_await max_concurrent_for_each(diff.tables_and_views.local().tables.dropped, max_concurrent, [this](const schema_ptr& s) -> future<> {
co_await max_concurrent_for_each(diff.tables_and_views.local().tables.altered, max_concurrent, [this] (const schema_diff_per_shard::altered_schema& altered) -> future<> {
co_await when_all_succeed(
store_column_mapping(_proxy, altered.old_schema, true),
store_column_mapping(_proxy, altered.new_schema, false));
});
co_await max_concurrent_for_each(diff.tables_and_views.local().tables.dropped, max_concurrent, [this] (const schema_ptr& s) -> future<> {
co_await drop_column_mapping(_sys_ks.local(), s->id(), s->version());
});
}
@@ -1191,7 +1200,7 @@ future<> schema_applier::finalize_tables_and_views() {
future<> schema_applier::post_commit() {
co_await finalize_tables_and_views();
auto& sharded_db = _proxy.local().get_db();
co_await sharded_db.invoke_on_all([&](replica::database& db) -> future<> {
co_await sharded_db.invoke_on_all([&] (replica::database& db) -> future<> {
auto& notifier = db.get_notifier();
// notify about keyspaces
for (const auto& name : _affected_keyspaces.names.created) {
@@ -1251,8 +1260,8 @@ static future<> execute_do_merge_schema(sharded<service::storage_proxy>& proxy,
co_await ap.post_commit();
}
static future<> do_merge_schema(sharded<service::storage_proxy>& proxy, sharded<service::storage_service>& ss, sharded<db::system_keyspace>& sys_ks,
utils::chunked_vector<mutation> mutations, bool reload) {
static future<> do_merge_schema(sharded<service::storage_proxy>& proxy, sharded<service::storage_service>& ss, sharded<db::system_keyspace>& sys_ks, utils::chunked_vector<mutation> mutations, bool reload)
{
slogger.trace("do_merge_schema: {}", mutations);
schema_applier ap(proxy, ss, sys_ks, reload);
co_await execute_do_merge_schema(proxy, ap, std::move(mutations)).finally([&ap]() {
@@ -1269,22 +1278,22 @@ static future<> do_merge_schema(sharded<service::storage_proxy>& proxy, sharded<
* @throws ConfigurationException If one of metadata attributes has invalid value
* @throws IOException If data was corrupted during transportation or failed to apply fs operations
*/
future<> merge_schema(sharded<db::system_keyspace>& sys_ks, sharded<service::storage_proxy>& proxy, sharded<service::storage_service>& ss,
utils::chunked_vector<mutation> mutations, bool reload) {
future<> merge_schema(sharded<db::system_keyspace>& sys_ks, sharded<service::storage_proxy>& proxy, sharded<service::storage_service>& ss, utils::chunked_vector<mutation> mutations, bool reload)
{
if (this_shard_id() != 0) {
// mutations must be applied on the owning shard (0).
co_await smp::submit_to(0, coroutine::lambda([&, fmuts = freeze(mutations)]() mutable -> future<> {
co_await smp::submit_to(0, coroutine::lambda([&, fmuts = freeze(mutations)] () mutable -> future<> {
co_await merge_schema(sys_ks, proxy, ss, co_await unfreeze_gently(fmuts), reload);
}));
co_return;
}
co_await with_merge_lock([&]() mutable -> future<> {
co_await with_merge_lock([&] () mutable -> future<> {
co_await do_merge_schema(proxy, ss, sys_ks, std::move(mutations), reload);
auto version = co_await get_group0_schema_version(sys_ks.local());
co_await update_schema_version_and_announce(sys_ks, proxy, version);
});
}
} // namespace schema_tables
}
} // namespace db
}

View File

@@ -29,8 +29,8 @@ static logging::logger blogger("boot_strapper");
namespace dht {
future<> boot_strapper::bootstrap(
streaming::stream_reason reason, gms::gossiper& gossiper, service::frozen_topology_guard topo_guard, locator::host_id replace_address) {
future<> boot_strapper::bootstrap(streaming::stream_reason reason, gms::gossiper& gossiper, service::frozen_topology_guard topo_guard,
locator::host_id replace_address) {
blogger.debug("Beginning bootstrap process: sorted_tokens={}", get_token_metadata().sorted_tokens());
sstring description;
if (reason == streaming::stream_reason::bootstrap) {
@@ -41,8 +41,7 @@ future<> boot_strapper::bootstrap(
throw std::runtime_error("Wrong stream_reason provided: it can only be replace or bootstrap");
}
try {
auto streamer = make_lw_shared<range_streamer>(
_db, _stream_manager, _token_metadata_ptr, _abort_source, _tokens, _address, _dr, description, reason, topo_guard);
auto streamer = make_lw_shared<range_streamer>(_db, _stream_manager, _token_metadata_ptr, _abort_source, _tokens, _address, _dr, description, reason, topo_guard);
auto nodes_to_filter = gossiper.get_unreachable_members();
if (reason == streaming::stream_reason::replace) {
nodes_to_filter.insert(std::move(replace_address));
@@ -72,8 +71,7 @@ std::unordered_set<token> boot_strapper::get_random_bootstrap_tokens(const token
}
if (num_tokens == 1) {
blogger.warn(
"Picking random token for a single vnode. You should probably add more vnodes; failing that, you should probably specify the token manually");
blogger.warn("Picking random token for a single vnode. You should probably add more vnodes; failing that, you should probably specify the token manually");
}
auto tokens = get_random_tokens(std::move(tmptr), num_tokens);
@@ -88,8 +86,7 @@ std::unordered_set<token> boot_strapper::get_bootstrap_tokens(token_metadata_ptr
return get_bootstrap_tokens(std::move(tmptr), cfg.initial_token(), cfg.num_tokens(), check);
}
std::unordered_set<token> boot_strapper::get_bootstrap_tokens(
const token_metadata_ptr tmptr, sstring tokens_string, uint32_t num_tokens, check_token_endpoint check) {
std::unordered_set<token> boot_strapper::get_bootstrap_tokens(const token_metadata_ptr tmptr, sstring tokens_string, uint32_t num_tokens, check_token_endpoint check) {
std::unordered_set<sstring> initial_tokens;
try {
boost::split(initial_tokens, tokens_string, boost::is_any_of(sstring(", ")));
@@ -105,8 +102,7 @@ std::unordered_set<token> boot_strapper::get_bootstrap_tokens(
for (auto& token_string : initial_tokens) {
auto token = dht::token::from_sstring(token_string);
if (check && tmptr->get_endpoint(token)) {
throw std::runtime_error(
format("Bootstrapping to existing token {} is not allowed (decommission/removenode the old node first).", token_string));
throw std::runtime_error(format("Bootstrapping to existing token {} is not allowed (decommission/removenode the old node first).", token_string));
}
tokens.insert(token);
}

View File

@@ -26,9 +26,10 @@ static logging::logger logger("range_streamer");
using inet_address = gms::inet_address;
std::unordered_map<locator::host_id, dht::token_range_vector> range_streamer::get_range_fetch_map(
const std::unordered_map<dht::token_range, std::vector<locator::host_id>>& ranges_with_sources,
const std::unordered_set<std::unique_ptr<i_source_filter>>& source_filters, const sstring& keyspace) {
std::unordered_map<locator::host_id, dht::token_range_vector>
range_streamer::get_range_fetch_map(const std::unordered_map<dht::token_range, std::vector<locator::host_id>>& ranges_with_sources,
const std::unordered_set<std::unique_ptr<i_source_filter>>& source_filters,
const sstring& keyspace) {
std::unordered_map<locator::host_id, dht::token_range_vector> range_fetch_map_map;
const auto& topo = _token_metadata_ptr->get_topology();
for (const auto& x : ranges_with_sources) {
@@ -78,8 +79,8 @@ std::unordered_map<locator::host_id, dht::token_range_vector> range_streamer::ge
}
// Must be called from a seastar thread
std::unordered_map<dht::token_range, std::vector<locator::host_id>> range_streamer::get_all_ranges_with_sources_for(
const sstring& keyspace_name, const locator::vnode_effective_replication_map* erm, dht::token_range_vector desired_ranges) {
std::unordered_map<dht::token_range, std::vector<locator::host_id>>
range_streamer::get_all_ranges_with_sources_for(const sstring& keyspace_name, const locator::vnode_effective_replication_map* erm, dht::token_range_vector desired_ranges) {
logger.debug("{} ks={}", __func__, keyspace_name);
auto range_addresses = erm->get_range_host_ids().get();
@@ -113,24 +114,24 @@ std::unordered_map<dht::token_range, std::vector<locator::host_id>> range_stream
}
// Must be called from a seastar thread
std::unordered_map<dht::token_range, std::vector<locator::host_id>> range_streamer::get_all_ranges_with_strict_sources_for(
const sstring& keyspace_name, const locator::vnode_effective_replication_map* erm, dht::token_range_vector desired_ranges, gms::gossiper& gossiper) {
std::unordered_map<dht::token_range, std::vector<locator::host_id>>
range_streamer::get_all_ranges_with_strict_sources_for(const sstring& keyspace_name, const locator::vnode_effective_replication_map* erm, dht::token_range_vector desired_ranges, gms::gossiper& gossiper) {
logger.debug("{} ks={}", __func__, keyspace_name);
SCYLLA_ASSERT(_tokens.empty() == false);
SCYLLA_ASSERT (_tokens.empty() == false);
auto& strat = erm->get_replication_strategy();
// Active ranges
//Active ranges
auto metadata_clone = get_token_metadata().clone_only_token_map().get();
auto range_addresses = strat.get_range_host_ids(metadata_clone).get();
// Pending ranges
//Pending ranges
metadata_clone.update_topology(_address, _dr);
metadata_clone.update_normal_tokens(_tokens, _address).get();
auto pending_range_addresses = strat.get_range_host_ids(metadata_clone).get();
auto pending_range_addresses = strat.get_range_host_ids(metadata_clone).get();
metadata_clone.clear_gently().get();
// Collects the source that will have its range moved to the new node
//Collects the source that will have its range moved to the new node
std::unordered_map<dht::token_range, std::vector<locator::host_id>> range_sources;
logger.debug("keyspace={}, desired_ranges.size={}, range_addresses.size={}", keyspace_name, desired_ranges.size(), range_addresses.size());
@@ -149,12 +150,11 @@ std::unordered_map<dht::token_range, std::vector<locator::host_id>> range_stream
}
std::unordered_set<locator::host_id> new_endpoints(it->second.begin(), it->second.end());
// Due to CASSANDRA-5953 we can have a higher RF then we have endpoints.
// So we need to be careful to only be strict when endpoints == RF
//Due to CASSANDRA-5953 we can have a higher RF then we have endpoints.
//So we need to be careful to only be strict when endpoints == RF
if (old_endpoints.size() == erm->get_replication_factor()) {
std::erase_if(old_endpoints, [&new_endpoints](locator::host_id ep) {
return new_endpoints.contains(ep);
});
std::erase_if(old_endpoints,
[&new_endpoints] (locator::host_id ep) { return new_endpoints.contains(ep); });
if (old_endpoints.size() != 1) {
throw std::runtime_error(format("Expected 1 endpoint but found {:d}", old_endpoints.size()));
}
@@ -163,7 +163,7 @@ std::unordered_map<dht::token_range, std::vector<locator::host_id>> range_stream
}
}
// Validate
//Validate
auto it = range_sources.find(desired_range);
if (it == range_sources.end()) {
throw std::runtime_error(format("No sources found for {}", desired_range));
@@ -176,9 +176,7 @@ std::unordered_map<dht::token_range, std::vector<locator::host_id>> range_stream
locator::host_id source_id = it->second.front();
if (gossiper.is_enabled() && !gossiper.is_alive(source_id)) {
throw std::runtime_error(format("A node required to move the data consistently is down ({}). If you wish to move the data from a potentially "
"inconsistent replica, restart the node with consistent_rangemovement=false",
source_id));
throw std::runtime_error(format("A node required to move the data consistently is down ({}). If you wish to move the data from a potentially inconsistent replica, restart the node with consistent_rangemovement=false", source_id));
}
}
@@ -190,8 +188,12 @@ bool range_streamer::use_strict_sources_for_ranges(const sstring& keyspace_name,
auto nr_nodes_in_ring = get_token_metadata().get_normal_token_owners().size();
bool everywhere_topology = erm.get_replication_strategy().get_type() == locator::replication_strategy_type::everywhere_topology;
// Use strict when number of nodes in the ring is equal or more than RF
auto strict = _db.local().get_config().consistent_rangemovement() && !_tokens.empty() && !everywhere_topology && nr_nodes_in_ring >= rf;
logger.debug("use_strict_sources_for_ranges: ks={}, nr_nodes_in_ring={}, rf={}, strict={}", keyspace_name, nr_nodes_in_ring, rf, strict);
auto strict = _db.local().get_config().consistent_rangemovement()
&& !_tokens.empty()
&& !everywhere_topology
&& nr_nodes_in_ring >= rf;
logger.debug("use_strict_sources_for_ranges: ks={}, nr_nodes_in_ring={}, rf={}, strict={}",
keyspace_name, nr_nodes_in_ring, rf, strict);
return strict;
}
@@ -212,36 +214,34 @@ void range_streamer::add_rx_ranges(const sstring& keyspace_name, std::unordered_
}
// TODO: This is the legacy range_streamer interface, it is add_rx_ranges which adds rx ranges.
future<> range_streamer::add_ranges(const sstring& keyspace_name, locator::static_effective_replication_map_ptr erm, dht::token_range_vector ranges,
gms::gossiper& gossiper, bool is_replacing) {
return seastar::async([this, keyspace_name, ermp = std::move(erm), ranges = std::move(ranges), &gossiper, is_replacing]() mutable {
if (_nr_tx_added) {
throw std::runtime_error("Mixed sending and receiving is not supported");
}
_nr_rx_added++;
auto erm = ermp->maybe_as_vnode_effective_replication_map();
SCYLLA_ASSERT(erm != nullptr);
auto ranges_for_keyspace = !is_replacing && use_strict_sources_for_ranges(keyspace_name, *erm)
? get_all_ranges_with_strict_sources_for(keyspace_name, erm, std::move(ranges), gossiper)
: get_all_ranges_with_sources_for(keyspace_name, erm, std::move(ranges));
future<> range_streamer::add_ranges(const sstring& keyspace_name, locator::static_effective_replication_map_ptr erm, dht::token_range_vector ranges, gms::gossiper& gossiper, bool is_replacing) {
return seastar::async([this, keyspace_name, ermp = std::move(erm), ranges= std::move(ranges), &gossiper, is_replacing] () mutable {
if (_nr_tx_added) {
throw std::runtime_error("Mixed sending and receiving is not supported");
}
_nr_rx_added++;
auto erm = ermp->maybe_as_vnode_effective_replication_map();
SCYLLA_ASSERT(erm != nullptr);
auto ranges_for_keyspace = !is_replacing && use_strict_sources_for_ranges(keyspace_name, *erm)
? get_all_ranges_with_strict_sources_for(keyspace_name, erm, std::move(ranges), gossiper)
: get_all_ranges_with_sources_for(keyspace_name, erm, std::move(ranges));
if (logger.is_enabled(logging::log_level::debug)) {
for (auto& x : ranges_for_keyspace) {
logger.debug("{} : keyspace {} range {} exists on {}", _description, keyspace_name, x.first, x.second);
}
if (logger.is_enabled(logging::log_level::debug)) {
for (auto& x : ranges_for_keyspace) {
logger.debug("{} : keyspace {} range {} exists on {}", _description, keyspace_name, x.first, x.second);
}
}
std::unordered_map<locator::host_id, dht::token_range_vector> range_fetch_map =
get_range_fetch_map(ranges_for_keyspace, _source_filters, keyspace_name);
utils::clear_gently(ranges_for_keyspace).get();
std::unordered_map<locator::host_id, dht::token_range_vector> range_fetch_map = get_range_fetch_map(ranges_for_keyspace, _source_filters, keyspace_name);
utils::clear_gently(ranges_for_keyspace).get();
if (logger.is_enabled(logging::log_level::debug)) {
for (auto& x : range_fetch_map) {
logger.debug("{} : keyspace={}, ranges={} from source={}, range_size={}", _description, keyspace_name, x.second, x.first, x.second.size());
}
if (logger.is_enabled(logging::log_level::debug)) {
for (auto& x : range_fetch_map) {
logger.debug("{} : keyspace={}, ranges={} from source={}, range_size={}", _description, keyspace_name, x.second, x.first, x.second.size());
}
_to_stream.emplace(keyspace_name, std::move(range_fetch_map));
});
}
_to_stream.emplace(keyspace_name, std::move(range_fetch_map));
});
}
future<> range_streamer::stream_async() {
@@ -250,73 +250,73 @@ future<> range_streamer::stream_async() {
_token_metadata_ptr = nullptr;
logger.info("{} starts, nr_ranges_remaining={}", _description, _nr_ranges_remaining);
auto start = lowres_clock::now();
return do_for_each(_to_stream, [this, description = _description](auto& stream) {
return do_for_each(_to_stream, [this, description = _description] (auto& stream) {
const auto& keyspace = stream.first;
auto& ip_range_vec = stream.second;
auto ips = ip_range_vec | std::views::keys | std::ranges::to<std::list>();
// Fetch from or send to peer node in parallel
logger.info("{} with {} for keyspace={} started, nodes_to_stream={}", description, ips, keyspace, ip_range_vec.size());
return parallel_for_each(ip_range_vec, [this, description, keyspace](auto& ip_range) {
auto& source = ip_range.first;
auto& range_vec = ip_range.second;
return seastar::with_semaphore(_limiter, 1, [this, description, keyspace, source, &range_vec]() mutable {
return seastar::async([this, description, keyspace, source, &range_vec]() mutable {
// TODO: It is better to use fiber instead of thread here because
// creating a thread per peer can be some memory in a large cluster.
auto start_time = lowres_clock::now();
unsigned sp_index = 0;
unsigned nr_ranges_streamed = 0;
size_t nr_ranges_total = range_vec.size();
auto do_streaming = [&](dht::token_range_vector&& ranges_to_stream) {
auto sp = stream_plan(_stream_manager.local(), format("{}-{}-index-{:d}", description, keyspace, sp_index++), _reason, _topo_guard);
auto abort_listener = _abort_source.subscribe([&]() noexcept {
sp.abort();
});
_abort_source.check();
logger.info("{} with {} for keyspace={}, streaming [{}, {}) out of {} ranges", description, source, keyspace, nr_ranges_streamed,
nr_ranges_streamed + ranges_to_stream.size(), nr_ranges_total);
auto ranges_streamed = ranges_to_stream.size();
if (_nr_rx_added) {
sp.request_ranges(source, keyspace, std::move(ranges_to_stream), _tables);
} else if (_nr_tx_added) {
sp.transfer_ranges(source, keyspace, std::move(ranges_to_stream), _tables);
}
sp.execute().discard_result().get();
// Update finished percentage
nr_ranges_streamed += ranges_streamed;
_nr_ranges_remaining -= ranges_streamed;
float percentage = _nr_total_ranges == 0 ? 1 : (_nr_total_ranges - _nr_ranges_remaining) / (float)_nr_total_ranges;
_stream_manager.local().update_finished_percentage(_reason, percentage);
logger.info("Finished {} out of {} ranges for {}, finished percentage={}", _nr_total_ranges - _nr_ranges_remaining, _nr_total_ranges,
_reason, percentage);
};
dht::token_range_vector ranges_to_stream;
try {
for (auto it = range_vec.begin(); it < range_vec.end();) {
ranges_to_stream.push_back(*it);
++it;
auto fraction = _db.local().get_config().stream_plan_ranges_fraction();
size_t nr_ranges_per_stream_plan = nr_ranges_total * fraction;
if (ranges_to_stream.size() < nr_ranges_per_stream_plan) {
continue;
} else {
do_streaming(std::exchange(ranges_to_stream, {}));
it = range_vec.erase(range_vec.begin(), it);
}
}
if (ranges_to_stream.size() > 0) {
do_streaming(std::exchange(ranges_to_stream, {}));
range_vec.clear();
}
} catch (...) {
auto t = std::chrono::duration_cast<std::chrono::duration<float>>(lowres_clock::now() - start_time).count();
logger.warn("{} with {} for keyspace={} failed, took {} seconds: {}", description, source, keyspace, t, std::current_exception());
throw;
return parallel_for_each(ip_range_vec, [this, description, keyspace] (auto& ip_range) {
auto& source = ip_range.first;
auto& range_vec = ip_range.second;
return seastar::with_semaphore(_limiter, 1, [this, description, keyspace, source, &range_vec] () mutable {
return seastar::async([this, description, keyspace, source, &range_vec] () mutable {
// TODO: It is better to use fiber instead of thread here because
// creating a thread per peer can be some memory in a large cluster.
auto start_time = lowres_clock::now();
unsigned sp_index = 0;
unsigned nr_ranges_streamed = 0;
size_t nr_ranges_total = range_vec.size();
auto do_streaming = [&] (dht::token_range_vector&& ranges_to_stream) {
auto sp = stream_plan(_stream_manager.local(), format("{}-{}-index-{:d}", description, keyspace, sp_index++),
_reason, _topo_guard);
auto abort_listener = _abort_source.subscribe([&] () noexcept { sp.abort(); });
_abort_source.check();
logger.info("{} with {} for keyspace={}, streaming [{}, {}) out of {} ranges",
description, source, keyspace,
nr_ranges_streamed, nr_ranges_streamed + ranges_to_stream.size(), nr_ranges_total);
auto ranges_streamed = ranges_to_stream.size();
if (_nr_rx_added) {
sp.request_ranges(source, keyspace, std::move(ranges_to_stream), _tables);
} else if (_nr_tx_added) {
sp.transfer_ranges(source, keyspace, std::move(ranges_to_stream), _tables);
}
sp.execute().discard_result().get();
// Update finished percentage
nr_ranges_streamed += ranges_streamed;
_nr_ranges_remaining -= ranges_streamed;
float percentage = _nr_total_ranges == 0 ? 1 : (_nr_total_ranges - _nr_ranges_remaining) / (float)_nr_total_ranges;
_stream_manager.local().update_finished_percentage(_reason, percentage);
logger.info("Finished {} out of {} ranges for {}, finished percentage={}",
_nr_total_ranges - _nr_ranges_remaining, _nr_total_ranges, _reason, percentage);
};
dht::token_range_vector ranges_to_stream;
try {
for (auto it = range_vec.begin(); it < range_vec.end();) {
ranges_to_stream.push_back(*it);
++it;
auto fraction = _db.local().get_config().stream_plan_ranges_fraction();
size_t nr_ranges_per_stream_plan = nr_ranges_total * fraction;
if (ranges_to_stream.size() < nr_ranges_per_stream_plan) {
continue;
} else {
do_streaming(std::exchange(ranges_to_stream, {}));
it = range_vec.erase(range_vec.begin(), it);
}
}
if (ranges_to_stream.size() > 0) {
do_streaming(std::exchange(ranges_to_stream, {}));
range_vec.clear();
}
} catch (...) {
auto t = std::chrono::duration_cast<std::chrono::duration<float>>(lowres_clock::now() - start_time).count();
logger.info("{} with {} for keyspace={} succeeded, took {} seconds", description, source, keyspace, t);
});
});
logger.warn("{} with {} for keyspace={} failed, took {} seconds: {}", description, source, keyspace, t, std::current_exception());
throw;
}
auto t = std::chrono::duration_cast<std::chrono::duration<float>>(lowres_clock::now() - start_time).count();
logger.info("{} with {} for keyspace={} succeeded, took {} seconds", description, source, keyspace, t);
});
});
});
}).finally([this, start] {
auto t = std::chrono::duration_cast<std::chrono::seconds>(lowres_clock::now() - start).count();
@@ -344,4 +344,4 @@ size_t range_streamer::nr_ranges_to_stream() {
return nr_ranges_remaining;
}
} // namespace dht
} // dht

View File

@@ -727,12 +727,7 @@ public:
// now we need one page more to be able to save one for next lap
auto fill_size = align_up(buf1.size(), block_size) + block_size - buf1.size();
// If the underlying stream is already at EOF (e.g. buf1 came from
// cached _next while the previous read_exactly drained the source),
// skip the read_exactly call — it would return empty anyway.
auto buf2 = _input.eof()
? temporary_buffer<char>()
: co_await _input.read_exactly(fill_size);
auto buf2 = co_await _input.read_exactly(fill_size);
temporary_buffer<char> output(buf1.size() + buf2.size());

File diff suppressed because it is too large Load Diff

View File

@@ -33,14 +33,15 @@ size_t hash<locator::endpoint_dc_rack>::operator()(const locator::endpoint_dc_ra
return utils::tuple_hash()(std::tie(v.dc, v.rack));
}
} // namespace std
}
namespace locator {
static logging::logger logger("network_topology_strategy");
network_topology_strategy::network_topology_strategy(replication_strategy_params params, const topology* topo)
: abstract_replication_strategy(params, replication_strategy_type::network_topology) {
network_topology_strategy::network_topology_strategy(replication_strategy_params params, const topology* topo) :
abstract_replication_strategy(params,
replication_strategy_type::network_topology) {
auto opts = _config_options;
logger.debug("options={}", opts);
@@ -64,7 +65,8 @@ network_topology_strategy::network_topology_strategy(replication_strategy_params
if (boost::equals(key, "replication_factor")) {
on_internal_error(rslogger, "replication_factor should have been replaced with a DC:RF mapping by now");
} else {
throw exceptions::configuration_exception(format("'{}' is not a valid option, did you mean (lowercase) 'replication_factor'?", key));
throw exceptions::configuration_exception(format(
"'{}' is not a valid option, did you mean (lowercase) 'replication_factor'?", key));
}
}
@@ -107,8 +109,8 @@ class natural_endpoints_tracker {
, _rf_left(std::min(rf, node_count))
// If there aren't enough racks in this DC to fill the RF, we'll still use at least one node from each rack,
// and the difference is to be filled by the first encountered nodes.
, _acceptable_rack_repeats(rf - rack_count) {
}
, _acceptable_rack_repeats(rf - rack_count)
{}
/**
* Attempts to add an endpoint to the replicas for this datacenter, adding to the endpoints set if successful.
@@ -199,7 +201,8 @@ public:
, _tp(_tm.get_topology())
, _dc_rep_factor(dc_rep_factor)
, _token_owners(_tm.get_datacenter_token_owners())
, _racks(_tm.get_datacenter_racks_token_owners()) {
, _racks(_tm.get_datacenter_racks_token_owners())
{
// not aware of any cluster members
SCYLLA_ASSERT(!_token_owners.empty() && !_racks.empty());
@@ -248,14 +251,16 @@ public:
for (const auto& [dc, rf_data] : dc_rf) {
auto rf = rf_data.count();
if (rf > endpoints_in(dc)) {
throw exceptions::configuration_exception(
seastar::format("Datacenter {} doesn't have enough token-owning nodes for replication_factor={}", dc, rf));
throw exceptions::configuration_exception(seastar::format(
"Datacenter {} doesn't have enough token-owning nodes for replication_factor={}", dc, rf));
}
}
}
};
future<host_id_set> network_topology_strategy::calculate_natural_endpoints(const token& search_token, const token_metadata& tm) const {
future<host_id_set>
network_topology_strategy::calculate_natural_endpoints(
const token& search_token, const token_metadata& tm) const {
natural_endpoints_tracker tracker(tm, _dc_rep_factor);
@@ -280,14 +285,12 @@ void network_topology_strategy::validate_options(const gms::feature_service& fs,
for (auto& c : _config_options) {
if (c.first == sstring("replication_factor")) {
on_internal_error(rslogger, fmt::format("'replication_factor' tag should be unrolled into a list of DC:RF by now."
"_config_options:{}",
_config_options));
"_config_options:{}", _config_options));
}
auto dc = dcs.find(c.first);
if (dc == dcs.end()) {
throw exceptions::configuration_exception(format("Unrecognized strategy option {{{}}} "
"passed to NetworkTopologyStrategy",
this->to_qualified_class_name(c.first)));
"passed to NetworkTopologyStrategy", this->to_qualified_class_name(c.first)));
}
auto racks = dc->second | std::views::keys | std::ranges::to<std::unordered_set<sstring>>();
auto rf = parse_replication_factor(c.second);
@@ -308,8 +311,8 @@ future<tablet_map> network_topology_strategy::allocate_tablets_for_new_table(sch
rslogger.info("Rounding up tablet count from {} to {} for table {}.{}", tablet_count, aligned_tablet_count, s->ks_name(), s->cf_name());
tablet_count = aligned_tablet_count;
}
co_return co_await reallocate_tablets(
std::move(s), std::move(tm), tablet_map(tablet_count, get_consistency() != data_dictionary::consistency_config_option::eventual));
co_return co_await reallocate_tablets(std::move(s), std::move(tm),
tablet_map(tablet_count, get_consistency() != data_dictionary::consistency_config_option::eventual));
}
future<tablet_map> network_topology_strategy::reallocate_tablets(schema_ptr s, token_metadata_ptr tm, tablet_map tablets) const {
@@ -318,15 +321,16 @@ future<tablet_map> network_topology_strategy::reallocate_tablets(schema_ptr s, t
co_await load.populate_with_normalized_load();
co_await load.populate(std::nullopt, s->id());
tablet_logger.debug(
"Allocating tablets for {}.{} ({}): dc_rep_factor={} tablet_count={}", s->ks_name(), s->cf_name(), s->id(), _dc_rep_factor, tablets.tablet_count());
tablet_logger.debug("Allocating tablets for {}.{} ({}): dc_rep_factor={} tablet_count={}", s->ks_name(), s->cf_name(), s->id(), _dc_rep_factor, tablets.tablet_count());
for (tablet_id tb : tablets.tablet_ids()) {
auto tinfo = tablets.get_tablet_info(tb);
tinfo.replicas = co_await reallocate_tablets(s, tm, load, tablets, tb);
if (tablets.has_raft_info()) {
if (!tablets.get_tablet_raft_info(tb).group_id) {
tablets.set_tablet_raft_info(tb, tablet_raft_info{.group_id = raft::group_id{utils::UUID_gen::get_time_UUID()}});
tablets.set_tablet_raft_info(tb, tablet_raft_info {
.group_id = raft::group_id{utils::UUID_gen::get_time_UUID()}
});
}
}
tablets.set_tablet(tb, std::move(tinfo));
@@ -336,8 +340,7 @@ future<tablet_map> network_topology_strategy::reallocate_tablets(schema_ptr s, t
co_return tablets;
}
future<tablet_replica_set> network_topology_strategy::reallocate_tablets(
schema_ptr s, token_metadata_ptr tm, load_sketch& load, const tablet_map& cur_tablets, tablet_id tb) const {
future<tablet_replica_set> network_topology_strategy::reallocate_tablets(schema_ptr s, token_metadata_ptr tm, load_sketch& load, const tablet_map& cur_tablets, tablet_id tb) const {
tablet_replica_set replicas;
// Current number of replicas per dc
std::unordered_map<sstring, size_t> nodes_per_dc;
@@ -361,8 +364,8 @@ future<tablet_replica_set> network_topology_strategy::reallocate_tablets(
if (new_rf && new_rf->is_rack_based()) {
auto diff = diff_racks(old_racks_per_dc[dc], new_rf->get_rack_list());
tablet_logger.debug("reallocate_tablets {}.{} tablet_id={} dc={} old_racks={} add_racks={} del_racks={}", s->ks_name(), s->cf_name(), tb, dc,
old_racks_per_dc[dc], diff.added, diff.removed);
tablet_logger.debug("reallocate_tablets {}.{} tablet_id={} dc={} old_racks={} add_racks={} del_racks={}",
s->ks_name(), s->cf_name(), tb, dc, old_racks_per_dc[dc], diff.added, diff.removed);
if (!diff) {
continue;
@@ -392,18 +395,23 @@ future<tablet_replica_set> network_topology_strategy::reallocate_tablets(
co_return replicas;
}
tablet_replica_set network_topology_strategy::drop_tablets_in_racks(schema_ptr s, token_metadata_ptr tm, load_sketch& load, tablet_id tb,
const tablet_replica_set& cur_replicas, const sstring& dc, const rack_list& racks_to_drop) const {
tablet_replica_set network_topology_strategy::drop_tablets_in_racks(schema_ptr s,
token_metadata_ptr tm,
load_sketch& load,
tablet_id tb,
const tablet_replica_set& cur_replicas,
const sstring& dc,
const rack_list& racks_to_drop) const {
auto& topo = tm->get_topology();
tablet_replica_set filtered;
auto is_rack_to_drop = [&racks_to_drop](const sstring& rack) {
auto is_rack_to_drop = [&racks_to_drop] (const sstring& rack) {
return std::ranges::contains(racks_to_drop, rack);
};
for (const auto& tr : cur_replicas) {
auto& node = topo.get_node(tr.host);
if (node.dc_rack().dc == dc && is_rack_to_drop(node.dc_rack().rack)) {
tablet_logger.debug("drop_tablets_in_rack {}.{} tablet_id={} dc={} rack={} removing replica: {}", s->ks_name(), s->cf_name(), tb, node.dc_rack().dc,
node.dc_rack().rack, tr);
tablet_logger.debug("drop_tablets_in_rack {}.{} tablet_id={} dc={} rack={} removing replica: {}",
s->ks_name(), s->cf_name(), tb, node.dc_rack().dc, node.dc_rack().rack, tr);
load.unload(tr.host, tr.shard, 1, service::default_target_tablet_size);
} else {
filtered.emplace_back(tr);
@@ -412,17 +420,22 @@ tablet_replica_set network_topology_strategy::drop_tablets_in_racks(schema_ptr s
return filtered;
}
tablet_replica_set network_topology_strategy::add_tablets_in_racks(schema_ptr s, token_metadata_ptr tm, load_sketch& load, tablet_id tb,
const tablet_replica_set& cur_replicas, const sstring& dc, const rack_list& racks_to_add) const {
tablet_replica_set network_topology_strategy::add_tablets_in_racks(schema_ptr s,
token_metadata_ptr tm,
load_sketch& load,
tablet_id tb,
const tablet_replica_set& cur_replicas,
const sstring& dc,
const rack_list& racks_to_add) const {
auto nodes = tm->get_datacenter_racks_token_owners_nodes();
auto& dc_nodes = nodes.at(dc);
auto new_replicas = cur_replicas;
for (auto&& rack : racks_to_add) {
for (auto&& rack: racks_to_add) {
host_id min_node;
double min_load = std::numeric_limits<double>::max();
for (auto&& node : dc_nodes.at(rack)) {
for (auto&& node: dc_nodes.at(rack)) {
if (!node.get().is_normal()) {
continue;
}
@@ -437,26 +450,29 @@ tablet_replica_set network_topology_strategy::add_tablets_in_racks(schema_ptr s,
}
if (!min_node) {
throw std::runtime_error(fmt::format("No candidate node in rack {}.{} to allocate tablet replica", dc, rack));
throw std::runtime_error(
fmt::format("No candidate node in rack {}.{} to allocate tablet replica", dc, rack));
}
auto new_replica = tablet_replica{min_node, load.next_shard(min_node, 1, service::default_target_tablet_size)};
new_replicas.push_back(new_replica);
tablet_logger.trace("add_tablet_in_rack {}.{} tablet_id={} dc={} rack={} load={} new_replica={}", s->ks_name(), s->cf_name(), tb.id, dc, rack, min_load,
new_replica);
tablet_logger.trace("add_tablet_in_rack {}.{} tablet_id={} dc={} rack={} load={} new_replica={}",
s->ks_name(), s->cf_name(), tb.id, dc, rack, min_load, new_replica);
}
return new_replicas;
}
future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_ptr s, token_metadata_ptr tm, load_sketch& load, tablet_id tb,
std::map<sstring, std::unordered_set<locator::host_id>>& replicas_per_rack, const tablet_replica_set& cur_replicas, sstring dc, size_t dc_node_count,
size_t dc_rf) const {
std::map<sstring, std::unordered_set<locator::host_id>>& replicas_per_rack,
const tablet_replica_set& cur_replicas,
sstring dc, size_t dc_node_count, size_t dc_rf) const {
static thread_local std::default_random_engine rnd_engine{std::random_device{}()};
auto replicas = cur_replicas;
// all_dc_racks is ordered lexicographically on purpose
auto all_dc_racks = tm->get_datacenter_racks_token_owners_nodes().at(dc) | std::ranges::to<std::map>();
auto all_dc_racks = tm->get_datacenter_racks_token_owners_nodes().at(dc)
| std::ranges::to<std::map>();
// Track all nodes with no replicas on them for this tablet, per rack.
struct node_load {
@@ -465,7 +481,7 @@ future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_p
};
// for sorting in descending load order
// (in terms of load)
auto node_load_cmp = [](const node_load& a, const node_load& b) {
auto node_load_cmp = [] (const node_load& a, const node_load& b) {
return a.load > b.load;
};
@@ -517,7 +533,7 @@ future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_p
// ensure fairness across racks (in particular if rf < number_of_racks)
// by rotating the racks order
auto append_candidate_racks = [&](candidates_list& racks) {
auto append_candidate_racks = [&] (candidates_list& racks) {
if (auto size = racks.size()) {
auto it = racks.begin() + tb.id % size;
std::move(it, racks.end(), std::back_inserter(candidate_racks));
@@ -529,19 +545,20 @@ future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_p
append_candidate_racks(existing_racks);
if (candidate_racks.empty()) {
on_internal_error(tablet_logger, seastar::format("allocate_replica {}.{}: no candidate racks found for dc={} allocated={} rf={}: existing={}",
s->ks_name(), s->cf_name(), dc, dc_node_count, dc_rf, replicas_per_rack));
on_internal_error(tablet_logger,
seastar::format("allocate_replica {}.{}: no candidate racks found for dc={} allocated={} rf={}: existing={}",
s->ks_name(), s->cf_name(), dc, dc_node_count, dc_rf, replicas_per_rack));
}
auto candidate_rack = candidate_racks.begin();
auto allocate_replica = [&](candidates_list::iterator& candidate) {
auto allocate_replica = [&] (candidates_list::iterator& candidate) {
const auto& rack = candidate->rack;
auto& nodes = candidate->nodes;
if (nodes.empty()) {
on_internal_error(tablet_logger, seastar::format("allocate_replica {}.{} tablet_id={}: candidates vector for rack={} is empty for allocating "
"tablet replicas in dc={} allocated={} rf={}",
s->ks_name(), s->cf_name(), tb.id, rack, dc, dc_node_count, dc_rf));
on_internal_error(tablet_logger,
seastar::format("allocate_replica {}.{} tablet_id={}: candidates vector for rack={} is empty for allocating tablet replicas in dc={} allocated={} rf={}",
s->ks_name(), s->cf_name(), tb.id, rack, dc, dc_node_count, dc_rf));
}
auto host_id = nodes.back().host;
auto replica = tablet_replica{host_id, load.next_shard(host_id, 1, service::default_target_tablet_size)};
@@ -549,13 +566,13 @@ future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_p
auto inserted = replicas_per_rack[node.dc_rack().rack].insert(host_id).second;
// Sanity check that a node is not used more than once
if (!inserted) {
on_internal_error(tablet_logger, seastar::format("allocate_replica {}.{} tablet_id={}: allocated replica={} node already used when allocating "
"tablet replicas in dc={} allocated={} rf={}: replicas={}",
s->ks_name(), s->cf_name(), tb.id, replica, dc, dc_node_count, dc_rf, replicas));
on_internal_error(tablet_logger,
seastar::format("allocate_replica {}.{} tablet_id={}: allocated replica={} node already used when allocating tablet replicas in dc={} allocated={} rf={}: replicas={}",
s->ks_name(), s->cf_name(), tb.id, replica, dc, dc_node_count, dc_rf, replicas));
}
nodes.pop_back();
tablet_logger.trace("allocate_replica {}.{} tablet_id={}: allocated tablet replica={} dc={} rack={}: nodes remaining in rack={}", s->ks_name(),
s->cf_name(), tb.id, replica, node.dc_rack().dc, node.dc_rack().rack, nodes.size());
tablet_logger.trace("allocate_replica {}.{} tablet_id={}: allocated tablet replica={} dc={} rack={}: nodes remaining in rack={}",
s->ks_name(), s->cf_name(), tb.id, replica, node.dc_rack().dc, node.dc_rack().rack, nodes.size());
if (nodes.empty()) {
candidate = candidate_racks.erase(candidate);
} else {
@@ -566,8 +583,7 @@ future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_p
}
if (tablet_logger.is_enabled(log_level::trace)) {
if (candidate != candidate_racks.end()) {
tablet_logger.trace("allocate_replica {}.{} tablet_id={}: next rack={} nodes={}", s->ks_name(), s->cf_name(), tb.id, candidate->rack,
candidate->nodes.size());
tablet_logger.trace("allocate_replica {}.{} tablet_id={}: next rack={} nodes={}", s->ks_name(), s->cf_name(), tb.id, candidate->rack, candidate->nodes.size());
} else {
tablet_logger.trace("allocate_replica {}.{} tablet_id={}: no candidate racks left", s->ks_name(), s->cf_name(), tb.id);
}
@@ -575,15 +591,15 @@ future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_p
return replica;
};
tablet_logger.debug("allocate_replica {}.{} tablet_id={}: allocating tablet replicas in dc={} allocated={} rf={}", s->ks_name(), s->cf_name(), tb.id, dc,
dc_node_count, dc_rf);
tablet_logger.debug("allocate_replica {}.{} tablet_id={}: allocating tablet replicas in dc={} allocated={} rf={}",
s->ks_name(), s->cf_name(), tb.id, dc, dc_node_count, dc_rf);
for (size_t remaining = dc_rf - dc_node_count; remaining; --remaining) {
co_await coroutine::maybe_yield();
if (candidate_rack == candidate_racks.end()) {
on_internal_error(tablet_logger, format("allocate_replica {}.{} tablet_id={}: ran out of candidates for allocating tablet replicas in dc={} "
"allocated={} rf={}: remaining={}",
s->ks_name(), s->cf_name(), tb.id, dc, dc_node_count, dc_rf, remaining));
on_internal_error(tablet_logger,
format("allocate_replica {}.{} tablet_id={}: ran out of candidates for allocating tablet replicas in dc={} allocated={} rf={}: remaining={}",
s->ks_name(), s->cf_name(), tb.id, dc, dc_node_count, dc_rf, remaining));
}
replicas.emplace_back(allocate_replica(candidate_rack));
}
@@ -592,9 +608,9 @@ future<tablet_replica_set> network_topology_strategy::add_tablets_in_dc(schema_p
}
tablet_replica_set network_topology_strategy::drop_tablets_in_dc(schema_ptr s, const locator::topology& topo, load_sketch& load, tablet_id tb,
const tablet_replica_set& cur_replicas, sstring dc, size_t dc_node_count, size_t dc_rf) const {
tablet_logger.debug("drop_tablets_in_dc {}.{} tablet_id={}: deallocating tablet replicas in dc={} allocated={} rf={}", s->ks_name(), s->cf_name(), tb.id,
dc, dc_node_count, dc_rf);
const tablet_replica_set& cur_replicas,
sstring dc, size_t dc_node_count, size_t dc_rf) const {
tablet_logger.debug("drop_tablets_in_dc {}.{} tablet_id={}: deallocating tablet replicas in dc={} allocated={} rf={}", s->ks_name(), s->cf_name(), tb.id, dc, dc_node_count, dc_rf);
// Leave dc_rf replicas in dc, effectively deallocating in reverse order,
// to maintain replica pairing between the base table and its materialized views.
@@ -613,7 +629,8 @@ tablet_replica_set network_topology_strategy::drop_tablets_in_dc(schema_ptr s, c
return filtered;
}
sstring network_topology_strategy::sanity_check_read_replicas(const effective_replication_map& erm, const host_id_vector_replica_set& read_replicas) const {
sstring network_topology_strategy::sanity_check_read_replicas(const effective_replication_map& erm,
const host_id_vector_replica_set& read_replicas) const {
const auto& topology = erm.get_topology();
struct rf_node_count {
@@ -646,4 +663,4 @@ sstring network_topology_strategy::sanity_check_read_replicas(const effective_re
using registry = class_registrator<abstract_replication_strategy, network_topology_strategy, replication_strategy_params, const topology*>;
static registry registrator("org.apache.cassandra.locator.NetworkTopologyStrategy");
static registry registrator_short_name("NetworkTopologyStrategy");
} // namespace locator
}

File diff suppressed because it is too large Load Diff

View File

@@ -26,16 +26,12 @@
struct node_printer {
const locator::node* v;
node_printer(const locator::node* n) noexcept
: v(n) {
}
node_printer(const locator::node* n) noexcept : v(n) {}
};
template <>
struct fmt::formatter<node_printer> {
constexpr auto parse(format_parse_context& ctx) {
return ctx.begin();
}
constexpr auto parse(format_parse_context& ctx) { return ctx.begin(); }
auto format(const node_printer& np, fmt::format_context& ctx) const {
const locator::node* node = np.v;
auto out = fmt::format_to(ctx.out(), "node={}", fmt::ptr(node));
@@ -47,9 +43,7 @@ struct fmt::formatter<node_printer> {
};
static auto lazy_backtrace() {
return seastar::value_of([] {
return current_backtrace();
});
return seastar::value_of([] { return current_backtrace(); });
}
namespace locator {
@@ -57,12 +51,11 @@ namespace locator {
static logging::logger tlogger("topology");
thread_local const endpoint_dc_rack endpoint_dc_rack::default_location = {
.dc = locator::production_snitch_base::default_dc,
.rack = locator::production_snitch_base::default_rack,
.dc = locator::production_snitch_base::default_dc,
.rack = locator::production_snitch_base::default_rack,
};
node::node(const locator::topology* topology, locator::host_id id, endpoint_dc_rack dc_rack, state state, shard_id shard_count, bool excluded,
this_node is_this_node, node::idx_type idx, bool draining)
node::node(const locator::topology* topology, locator::host_id id, endpoint_dc_rack dc_rack, state state, shard_id shard_count, bool excluded, this_node is_this_node, node::idx_type idx, bool draining)
: _topology(topology)
, _host_id(id)
, _dc_rack(std::move(dc_rack))
@@ -71,11 +64,10 @@ node::node(const locator::topology* topology, locator::host_id id, endpoint_dc_r
, _excluded(excluded)
, _draining(draining)
, _is_this_node(is_this_node)
, _idx(idx) {
}
, _idx(idx)
{}
node_holder node::make(const locator::topology* topology, locator::host_id id, endpoint_dc_rack dc_rack, state state, shard_id shard_count, bool excluded,
node::this_node is_this_node, node::idx_type idx, bool draining) {
node_holder node::make(const locator::topology* topology, locator::host_id id, endpoint_dc_rack dc_rack, state state, shard_id shard_count, bool excluded, node::this_node is_this_node, node::idx_type idx, bool draining) {
return std::make_unique<node>(topology, std::move(id), std::move(dc_rack), std::move(state), shard_count, excluded, is_this_node, idx, draining);
}
@@ -85,22 +77,14 @@ node_holder node::clone() const {
std::string node::to_string(node::state s) {
switch (s) {
case state::none:
return "none";
case state::bootstrapping:
return "bootstrapping";
case state::replacing:
return "replacing";
case state::normal:
return "normal";
case state::being_decommissioned:
return "being_decommissioned";
case state::being_removed:
return "being_removed";
case state::being_replaced:
return "being_replaced";
case state::left:
return "left";
case state::none: return "none";
case state::bootstrapping: return "bootstrapping";
case state::replacing: return "replacing";
case state::normal: return "normal";
case state::being_decommissioned: return "being_decommissioned";
case state::being_removed: return "being_removed";
case state::being_replaced: return "being_replaced";
case state::left: return "left";
}
__builtin_unreachable();
}
@@ -117,19 +101,21 @@ future<> topology::clear_gently() noexcept {
}
topology::topology(shallow_copy, config cfg)
: _shard(this_shard_id())
, _cfg(cfg)
, _sort_by_proximity(true) {
: _shard(this_shard_id())
, _cfg(cfg)
, _sort_by_proximity(true)
{
// constructor for shallow copying of token_metadata_impl
}
topology::topology(config cfg)
: _shard(this_shard_id())
, _cfg(cfg)
, _sort_by_proximity(!cfg.disable_proximity_sorting)
, _random_engine(std::random_device{}()) {
tlogger.trace("topology[{}]: constructing using config: endpoint={} id={} dc={} rack={}", fmt::ptr(this), cfg.this_endpoint, cfg.this_host_id,
cfg.local_dc_rack.dc, cfg.local_dc_rack.rack);
: _shard(this_shard_id())
, _cfg(cfg)
, _sort_by_proximity(!cfg.disable_proximity_sorting)
, _random_engine(std::random_device{}())
{
tlogger.trace("topology[{}]: constructing using config: endpoint={} id={} dc={} rack={}", fmt::ptr(this),
cfg.this_endpoint, cfg.this_host_id, cfg.local_dc_rack.dc, cfg.local_dc_rack.rack);
add_node(cfg.this_host_id, cfg.local_dc_rack, node::state::none);
}
@@ -145,7 +131,8 @@ topology::topology(topology&& o) noexcept
, _dc_racks(std::move(o._dc_racks))
, _sort_by_proximity(o._sort_by_proximity)
, _datacenters(std::move(o._datacenters))
, _random_engine(std::move(o._random_engine)) {
, _random_engine(std::move(o._random_engine))
{
SCYLLA_ASSERT(_shard == this_shard_id());
tlogger.trace("topology[{}]: move from [{}]", fmt::ptr(this), fmt::ptr(&o));
@@ -166,18 +153,16 @@ topology& topology::operator=(topology&& o) noexcept {
void topology::set_host_id_cfg(host_id this_host_id) {
if (_cfg.this_host_id) {
on_internal_error(tlogger,
fmt::format("topology[{}] set_host_id_cfg can be caller only once current id {} new id {}", fmt::ptr(this), _cfg.this_host_id, this_host_id));
on_internal_error(tlogger, fmt::format("topology[{}] set_host_id_cfg can be caller only once current id {} new id {}", fmt::ptr(this), _cfg.this_host_id, this_host_id));
}
if (_nodes.size() != 1) {
on_internal_error(tlogger, fmt::format("topology[{}] set_host_id_cfg called while nodes size is greater than 1", fmt::ptr(this)));
on_internal_error(tlogger, fmt::format("topology[{}] set_host_id_cfg called while nodes size is greater than 1", fmt::ptr(this)));
}
if (!_this_node) {
on_internal_error(tlogger, fmt::format("topology[{}] set_host_id_cfg called while _this_nodes is null", fmt::ptr(this)));
on_internal_error(tlogger, fmt::format("topology[{}] set_host_id_cfg called while _this_nodes is null", fmt::ptr(this)));
}
if (_this_node->host_id()) {
on_internal_error(
tlogger, fmt::format("topology[{}] set_host_id_cfg called while _this_nodes has non null id {}", fmt::ptr(this), _this_node->host_id()));
on_internal_error(tlogger, fmt::format("topology[{}] set_host_id_cfg called while _this_nodes has non null id {}", fmt::ptr(this), _this_node->host_id()));
}
remove_node(*_this_node);
@@ -218,8 +203,7 @@ const node& topology::add_node(node_holder nptr) {
if (nptr->topology() != this) {
if (nptr->topology()) {
on_fatal_internal_error(tlogger,
seastar::format("topology[{}]: {} belongs to different topology={}", fmt::ptr(this), node_printer(node), fmt::ptr(node->topology())));
on_fatal_internal_error(tlogger, seastar::format("topology[{}]: {} belongs to different topology={}", fmt::ptr(this), node_printer(node), fmt::ptr(node->topology())));
}
nptr->set_topology(this);
}
@@ -235,8 +219,7 @@ const node& topology::add_node(node_holder nptr) {
try {
if (is_configured_this_node(*node)) {
if (_this_node) {
on_internal_error(tlogger,
seastar::format("topology[{}]: {}: local node already mapped to {}", fmt::ptr(this), node_printer(node), node_printer(this_node())));
on_internal_error(tlogger, seastar::format("topology[{}]: {}: local node already mapped to {}", fmt::ptr(this), node_printer(node), node_printer(this_node())));
}
locator::node& n = *_nodes.back();
n._is_this_node = node::this_node::yes;
@@ -255,25 +238,14 @@ const node& topology::add_node(node_holder nptr) {
return *node;
}
void topology::update_node(node& node, std::optional<host_id> opt_id, std::optional<endpoint_dc_rack> opt_dr, std::optional<node::state> opt_st,
std::optional<shard_id> opt_shard_count) {
void topology::update_node(node& node, std::optional<host_id> opt_id, std::optional<endpoint_dc_rack> opt_dr, std::optional<node::state> opt_st, std::optional<shard_id> opt_shard_count) {
tlogger.debug("topology[{}]: update_node: {}: to: host_id={} dc={} rack={} state={} shard_count={}, at {}", fmt::ptr(this), node_printer(&node),
seastar::value_of([&] {
return opt_id ? format("{}", *opt_id) : "unchanged";
}),
seastar::value_of([&] {
return opt_dr ? format("{}", opt_dr->dc) : "unchanged";
}),
seastar::value_of([&] {
return opt_dr ? format("{}", opt_dr->rack) : "unchanged";
}),
seastar::value_of([&] {
return opt_st ? format("{}", *opt_st) : "unchanged";
}),
seastar::value_of([&] {
return opt_shard_count ? format("{}", *opt_shard_count) : "unchanged";
}),
lazy_backtrace());
opt_id ? format("{}", *opt_id) : "unchanged",
opt_dr ? format("{}", opt_dr->dc) : "unchanged",
opt_dr ? format("{}", opt_dr->rack) : "unchanged",
opt_st ? format("{}", *opt_st) : "unchanged",
opt_shard_count ? format("{}", *opt_shard_count) : "unchanged",
lazy_backtrace());
bool changed = false;
if (opt_id) {
@@ -285,8 +257,7 @@ void topology::update_node(node& node, std::optional<host_id> opt_id, std::optio
on_internal_error(tlogger, seastar::format("This node host_id is already set: {}: new host_id={}", node_printer(&node), *opt_id));
}
if (_nodes_by_host_id.contains(*opt_id)) {
on_internal_error(tlogger, seastar::format("Cannot update node host_id: {}: new host_id already exists: {}", node_printer(&node),
node_printer(find_node(*opt_id))));
on_internal_error(tlogger, seastar::format("Cannot update node host_id: {}: new host_id already exists: {}", node_printer(&node), node_printer(find_node(*opt_id))));
}
changed = true;
} else {
@@ -471,11 +442,11 @@ const node* topology::find_node(node::idx_type idx) const noexcept {
return _nodes.at(idx).get();
}
const node& topology::add_or_update_endpoint(
host_id id, std::optional<endpoint_dc_rack> opt_dr, std::optional<node::state> opt_st, std::optional<shard_id> shard_count) {
tlogger.trace("topology[{}]: add_or_update_endpoint: host_id={} dc={} rack={} state={} shards={}, at {}", fmt::ptr(this), id,
opt_dr.value_or(endpoint_dc_rack{}).dc, opt_dr.value_or(endpoint_dc_rack{}).rack, opt_st.value_or(node::state::none), shard_count,
lazy_backtrace());
const node& topology::add_or_update_endpoint(host_id id, std::optional<endpoint_dc_rack> opt_dr, std::optional<node::state> opt_st, std::optional<shard_id> shard_count)
{
tlogger.trace("topology[{}]: add_or_update_endpoint: host_id={} dc={} rack={} state={} shards={}, at {}", fmt::ptr(this),
id, opt_dr.value_or(endpoint_dc_rack{}).dc, opt_dr.value_or(endpoint_dc_rack{}).rack, opt_st.value_or(node::state::none), shard_count,
lazy_backtrace());
auto* n = find_node(id);
if (n) {
@@ -483,10 +454,14 @@ const node& topology::add_or_update_endpoint(
return *n;
}
return add_node(id, opt_dr.value_or(endpoint_dc_rack::default_location), opt_st.value_or(node::state::none), shard_count.value_or(0));
return add_node(id,
opt_dr.value_or(endpoint_dc_rack::default_location),
opt_st.value_or(node::state::none),
shard_count.value_or(0));
}
bool topology::remove_endpoint(locator::host_id host_id) {
bool topology::remove_endpoint(locator::host_id host_id)
{
auto node = find_node(host_id);
tlogger.debug("topology[{}]: remove_endpoint: host_id={}: {}", fmt::ptr(this), host_id, node_printer(node));
// Do not allow removing yourself from the topology
@@ -527,7 +502,7 @@ void topology::do_sort_by_proximity(locator::host_id address, host_id_vector_rep
locator::host_id id;
int distance;
};
auto host_infos = addresses | std::views::transform([&](locator::host_id id) {
auto host_infos = addresses | std::views::transform([&] (locator::host_id id) {
const auto& loc1 = get_location(id);
return info{id, distance(address, loc, id, loc1)};
}) | std::ranges::to<utils::small_vector<info, host_id_vector_replica_set::internal_capacity()>>();
@@ -589,12 +564,11 @@ std::unordered_set<locator::host_id> topology::get_all_host_ids() const {
return ids;
}
std::unordered_map<sstring, std::unordered_set<host_id>> topology::get_datacenter_host_ids() const {
std::unordered_map<sstring, std::unordered_set<host_id>>
topology::get_datacenter_host_ids() const {
std::unordered_map<sstring, std::unordered_set<host_id>> ret;
for (auto& [dc, nodes] : _dc_nodes) {
ret[dc] = nodes | std::views::transform([](const node& n) {
return n.host_id();
}) | std::ranges::to<std::unordered_set>();
ret[dc] = nodes | std::views::transform([] (const node& n) { return n.host_id(); }) | std::ranges::to<std::unordered_set>();
}
return ret;
}

View File

@@ -15,7 +15,6 @@ from typing import Any, Optional
import asyncio
import contextlib
import glob
import hashlib
import json
import logging
import os
@@ -365,14 +364,12 @@ async def start_node(executable: PathLike, cluster_workdir: PathLike, addr: str,
llvm_profile_file = f"{addr}-%m.profraw"
scylla_workdir = f"{addr}"
logfile = f"{addr}.log"
socket = maintenance_socket_path(cluster_workdir, addr)
command = [
"env",
f"LLVM_PROFILE_FILE={llvm_profile_file}",
f"SCYLLA_HOME={os.path.realpath(os.getcwd())}", # We assume that the script has Scylla's `conf/` as its filesystem neighbour.
os.path.realpath(executable),
f"--workdir={scylla_workdir}",
f"--maintenance-socket={socket}",
"--ring-delay-ms=0",
"--developer-mode=yes",
"--memory=1G",
@@ -394,7 +391,6 @@ async def start_node(executable: PathLike, cluster_workdir: PathLike, addr: str,
f"--authenticator=PasswordAuthenticator",
f"--authorizer=CassandraAuthorizer",
] + list(extra_opts)
training_logger.info(f"Using maintenance socket {socket}")
return await run(['bash', '-c', fr"""exec {shlex.join(command)} >{q(logfile)} 2>&1"""], cwd=cluster_workdir)
async def start_cluster(executable: PathLike, addrs: list[str], cpusets: Optional[list[str]], workdir: PathLike, cluster_name: str, extra_opts: list[str]) -> list[Process]:
@@ -437,25 +433,16 @@ async def start_cluster(executable: PathLike, addrs: list[str], cpusets: Optiona
procs.append(proc)
await wait_for_node(proc, addrs[i], timeout)
except:
await stop_cluster(procs, addrs, cluster_workdir=workdir)
await stop_cluster(procs, addrs)
raise
return procs
async def stop_cluster(procs: list[Process], addrs: list[str], cluster_workdir: PathLike) -> None:
async def stop_cluster(procs: list[Process], addrs: list[str]) -> None:
"""Stops a Scylla cluster started with start_cluster().
Doesn't return until all nodes exit, even if stop_cluster() is cancelled.
"""
await clean_gather(*[cancel_process(p, timeout=60) for p in procs])
_cleanup_short_sockets(cluster_workdir, addrs)
def _cleanup_short_sockets(cluster_workdir: PathLike, addrs: list[str]) -> None:
"""Remove short maintenance socket files created in /tmp."""
for addr in addrs:
try:
os.unlink(maintenance_socket_path(cluster_workdir, addr))
except OSError:
pass
async def wait_for_port(addr: str, port: int) -> None:
await bash(fr'until printf "" >>/dev/tcp/{addr}/{port}; do sleep 0.1; done 2>/dev/null')
@@ -466,17 +453,12 @@ async def merge_profraw(directory: PathLike) -> None:
await bash(fr"llvm-profdata merge {q(directory)}/*.profraw -output {q(directory)}/prof.profdata")
def maintenance_socket_path(cluster_workdir: PathLike, addr: str) -> str:
"""Return the maintenance socket path for a node.
"""Returns the absolute path of the maintenance socket for a given node.
Returns a short deterministic path in /tmp (derived from an MD5 hash of
the natural ``<cluster_workdir>/<addr>/cql.m`` path) to stay within the
Unix domain socket length limit.
The same path is passed to Scylla via ``--maintenance-socket`` in
``start_node()``.
With ``maintenance_socket: workdir`` in scylla.yaml the socket lives at
``<node-workdir>/cql.m``, i.e. ``<cluster_workdir>/<addr>/cql.m``.
"""
natural = os.path.realpath(f"{cluster_workdir}/{addr}/cql.m")
path_hash = hashlib.md5(natural.encode()).hexdigest()[:12]
return os.path.join(tempfile.gettempdir(), f'pgo-{path_hash}.m')
return os.path.realpath(f"{cluster_workdir}/{addr}/cql.m")
async def setup_cassandra_user(workdir: PathLike, addr: str) -> None:
"""Create the ``cassandra`` superuser via the maintenance socket.
@@ -543,7 +525,7 @@ async def with_cluster(executable: PathLike, workdir: PathLike, cpusets: Optiona
yield addrs, procs
finally:
training_logger.info(f"Stopping the cluster in {workdir}")
await stop_cluster(procs, addrs, cluster_workdir=workdir)
await stop_cluster(procs, addrs)
training_logger.info(f"Stopped the cluster in {workdir}")
################################################################################

File diff suppressed because it is too large Load Diff

View File

@@ -3253,13 +3253,10 @@ private:
// sequentially because the rows from repair follower 1 to
// repair master might reduce the amount of missing data
// between repair master and repair follower 2.
auto working_hashes = master.working_row_hashes().get();
repair_hash_set set_diff = get_set_diff(master.peer_row_hash_sets(node_idx), working_hashes);
repair_hash_set set_diff = get_set_diff(master.peer_row_hash_sets(node_idx), master.working_row_hashes().get());
// Request missing sets from peer node
if (rlogger.is_enabled(logging::log_level::debug)) {
rlogger.debug("Before get_row_diff to node {}, local={}, peer={}, set_diff={}",
node, working_hashes.size(), master.peer_row_hash_sets(node_idx).size(), set_diff.size());
}
rlogger.debug("Before get_row_diff to node {}, local={}, peer={}, set_diff={}",
node, master.working_row_hashes().get().size(), master.peer_row_hash_sets(node_idx).size(), set_diff.size());
// If we need to pull all rows from the peer. We can avoid
// sending the row hashes on wire by setting needs_all_rows flag.
auto needs_all_rows = repair_meta::needs_all_rows_t(set_diff.size() == master.peer_row_hash_sets(node_idx).size());
@@ -3272,9 +3269,7 @@ private:
master.get_row_diff(std::move(set_diff), needs_all_rows, node, node_idx, dst_cpu_id);
ns.state = repair_state::get_row_diff_finished;
}
if (rlogger.is_enabled(logging::log_level::debug)) {
rlogger.debug("After get_row_diff node {}, hash_sets={}", master.myhostid(), master.working_row_hashes().get().size());
}
rlogger.debug("After get_row_diff node {}, hash_sets={}", master.myhostid(), master.working_row_hashes().get().size());
} catch (...) {
rlogger.warn("repair[{}]: get_row_diff: got error from node={}, keyspace={}, table={}, range={}, error={}",
_shard_task.global_repair_id.uuid(), node, _shard_task.get_keyspace(), _cf_name, _range, std::current_exception());

File diff suppressed because it is too large Load Diff

View File

@@ -1622,14 +1622,14 @@ future<> segment_manager_impl::do_recovery(replica::database& db) {
size_t next_file_id = 0;
for (auto file_id : found_file_ids) {
if (file_id != next_file_id) {
throw std::runtime_error(fmt::format("Missing log segment file(s) detected during recovery: file {} missing", _file_mgr.get_file_path(next_file_id).string()));
throw std::runtime_error(fmt::format("Missing log segment file(s) detected during recovery: file {} missing", _file_mgr.get_file_path(next_file_id)));
}
next_file_id++;
}
// populate index from all segments. keep the latest record for each key.
for (auto file_id : found_file_ids) {
logstor_logger.info("Recovering segments from file {}: {}%", _file_mgr.get_file_path(file_id).string(), (file_id + 1) * 100 / found_file_ids.size());
logstor_logger.info("Recovering segments from file {}: {}%", _file_mgr.get_file_path(file_id), (file_id + 1) * 100 / found_file_ids.size());
co_await max_concurrent_for_each(segments_in_file(file_id), 32,
[this, &db] (log_segment_id seg_id) {
return recover_segment(db, seg_id);

View File

@@ -4860,14 +4860,13 @@ table::query(schema_ptr query_schema,
}
std::optional<full_position> last_pos;
if (querier_opt) {
if (querier_opt->current_position()) {
last_pos.emplace(*querier_opt->current_position());
}
if (!saved_querier || (!querier_opt->are_limits_reached() && !qs.builder.is_short_read())) {
co_await querier_opt->close();
querier_opt = {};
}
if (querier_opt && querier_opt->current_position()) {
last_pos.emplace(*querier_opt->current_position());
}
if (!saved_querier || (querier_opt && !querier_opt->are_limits_reached() && !qs.builder.is_short_read())) {
co_await querier_opt->close();
querier_opt = {};
}
if (saved_querier) {
*saved_querier = std::move(querier_opt);

View File

@@ -22,12 +22,12 @@ static logging::logger slogger("schema_registry");
static thread_local schema_registry registry;
schema_version_not_found::schema_version_not_found(table_schema_version v)
: std::runtime_error{format("Schema version {} not found", v)} {
}
: std::runtime_error{format("Schema version {} not found", v)}
{ }
schema_version_loading_failed::schema_version_loading_failed(table_schema_version v)
: std::runtime_error{format("Failed to load schema version {}", v)} {
}
: std::runtime_error{format("Failed to load schema version {}", v)}
{ }
schema_registry_entry::~schema_registry_entry() {
if (_schema) {
@@ -39,7 +39,8 @@ schema_registry_entry::schema_registry_entry(table_schema_version v, schema_regi
: _state(state::INITIAL)
, _version(v)
, _registry(r)
, _sync_state(sync_state::NOT_SYNCED) {
, _sync_state(sync_state::NOT_SYNCED)
{
_erase_timer.set_callback([this] {
slogger.debug("Dropping {}", _version);
SCYLLA_ASSERT(!_schema);
@@ -70,8 +71,8 @@ void schema_registry::attach_table(schema_registry_entry& e) noexcept {
e.set_table(table.weak_from_this());
} catch (const replica::no_such_column_family&) {
if (slogger.is_enabled(seastar::log_level::debug)) {
slogger.debug("No table for schema version {} of {}.{}: {}", e._version, e.get_schema()->ks_name(), e.get_schema()->cf_name(),
seastar::current_backtrace());
slogger.debug("No table for schema version {} of {}.{}: {}", e._version,
e.get_schema()->ks_name(), e.get_schema()->cf_name(), seastar::current_backtrace());
}
// ignore
}
@@ -220,7 +221,7 @@ future<schema_ptr> schema_registry_entry::start_loading(async_schema_loader load
_state = state::LOADING;
slogger.trace("Loading {}", _version);
// Move to background.
(void)f.then_wrapped([self = shared_from_this(), this](future<extended_frozen_schema>&& f) {
(void)f.then_wrapped([self = shared_from_this(), this] (future<extended_frozen_schema>&& f) {
_loader = {};
if (_state != state::LOADING) {
slogger.trace("Loading of {} aborted", _version);
@@ -293,8 +294,8 @@ schema_registry& local_schema_registry() {
}
global_schema_ptr::global_schema_ptr(const global_schema_ptr& o)
: global_schema_ptr(o.get()) {
}
: global_schema_ptr(o.get())
{ }
global_schema_ptr::global_schema_ptr(global_schema_ptr&& o) noexcept {
auto current = this_shard_id();
@@ -331,15 +332,15 @@ schema_ptr global_schema_ptr::get() const {
}
global_schema_ptr::global_schema_ptr(const schema_ptr& ptr)
: _cpu_of_origin(this_shard_id()) {
: _cpu_of_origin(this_shard_id()) {
// _ptr must always have an associated registry entry,
// if ptr doesn't, we need to load it into the registry.
auto ensure_registry_entry = [](const schema_ptr& s) {
auto ensure_registry_entry = [] (const schema_ptr& s) {
schema_registry_entry* e = s->registry_entry();
if (e) {
return s;
} else {
return local_schema_registry().get_or_load(s->version(), [&s](table_schema_version) -> extended_frozen_schema {
return local_schema_registry().get_or_load(s->version(), [&s] (table_schema_version) -> extended_frozen_schema {
return extended_frozen_schema(s);
});
}

View File

@@ -952,8 +952,6 @@ class sstring:
@staticmethod
def to_hex(data, size):
if size == 0:
return ''
inf = gdb.selected_inferior()
return bytes(inf.read_memory(data, size)).hex()
@@ -976,8 +974,6 @@ class sstring:
return self.ref['u']['external']['str']
def as_bytes(self):
if len(self) == 0:
return b''
inf = gdb.selected_inferior()
return bytes(inf.read_memory(self.data(), len(self)))
@@ -5640,8 +5636,6 @@ class scylla_sstable_summary(gdb.Command):
self.inf = gdb.selected_inferior()
def to_hex(self, data, size):
if size == 0:
return ''
return bytes(self.inf.read_memory(data, size)).hex()
def invoke(self, arg, for_tty):
@@ -5653,10 +5647,6 @@ class scylla_sstable_summary(gdb.Command):
sst = seastar_lw_shared_ptr(arg).get().dereference()
else:
sst = arg
ms_version = int(gdb.parse_and_eval('sstables::sstable_version_types::ms'))
if int(sst['_version']) >= ms_version:
gdb.write("sstable uses ms format (trie-based index); summary is not populated.\n")
return
summary = seastar_lw_shared_ptr(sst['_components']['_value']).get().dereference()['summary']
gdb.write("header: {}\n".format(summary['header']))

View File

@@ -910,7 +910,7 @@ future<> storage_service::merge_topology_snapshot(raft_snapshot snp) {
frozen_muts_to_apply.push_back(co_await freeze_gently(mut));
} else {
co_await for_each_split_mutation(std::move(mut), max_size, [&] (mutation m) -> future<> {
frozen_muts_to_apply.push_back(co_await freeze_gently(m));
frozen_muts_to_apply.push_back(co_await freeze_gently(mut));
});
}
}

View File

@@ -221,16 +221,10 @@ private:
sst->set_sstable_level(0);
auto units = co_await sst_manager.dir_semaphore().get_units(1);
sstables::sstable_open_config cfg {
.unsealed_sstable = true,
.ignore_component_digest_mismatch = db.get_config().ignore_component_digest_mismatch(),
};
co_await sst->load(table.get_effective_replication_map()->get_sharder(*table.schema()), cfg);
co_await table.add_new_sstable_and_update_cache(sst, [&sst_manager, sst] (sstables::shared_sstable loading_sst) -> future<> {
if (loading_sst == sst) {
auto writer_cfg = sst_manager.configure_writer(loading_sst->get_origin());
co_await loading_sst->seal_sstable(writer_cfg.backup);
}
});
co_await table.add_sstable_and_update_cache(sst);
}
future<>
@@ -301,8 +295,7 @@ private:
sstables::sstable_state::normal,
sstables::sstable::component_basename(
_table.schema()->ks_name(), _table.schema()->cf_name(), descriptor.version, gen, descriptor.format, it->first),
sstables::sstable_stream_sink_cfg{.last_component = std::next(it) == components.cend(),
.leave_unsealed = true});
sstables::sstable_stream_sink_cfg{.last_component = std::next(it) == components.cend()});
auto out = co_await sstable_sink->output(foptions, stream_options);
input_stream src(co_await [this, &it, sstable, f = files.at(it->first)]() -> future<input_stream<char>> {

View File

@@ -65,8 +65,9 @@ struct send_info {
mutation_fragment_v1_stream reader;
noncopyable_function<void(size_t)> update;
send_info(netw::messaging_service& ms_, streaming::plan_id plan_id_, lw_shared_ptr<replica::table> tbl_, reader_permit permit_,
dht::token_range_vector ranges_, locator::host_id id_, uint32_t dst_cpu_id_, stream_reason reason_, service::frozen_topology_guard topo_guard_,
noncopyable_function<void(size_t)> update_fn)
dht::token_range_vector ranges_, locator::host_id id_,
uint32_t dst_cpu_id_, stream_reason reason_, service::frozen_topology_guard topo_guard_,
noncopyable_function<void(size_t)> update_fn)
: ms(ms_)
, plan_id(plan_id_)
, cf_id(tbl_->schema()->id())
@@ -78,13 +79,12 @@ struct send_info {
, ranges(std::move(ranges_))
, prs(dht::to_partition_ranges(ranges))
, reader(cf->make_streaming_reader(cf->schema(), std::move(permit_), prs, gc_clock::now()))
, update(std::move(update_fn)) {
, update(std::move(update_fn))
{
}
future<bool> has_relevant_range_on_this_shard() {
return do_with(false, ranges.begin(), [this](bool& found_relevant_range, dht::token_range_vector::iterator& ranges_it) {
auto stop_cond = [this, &found_relevant_range, &ranges_it] {
return ranges_it == ranges.end() || found_relevant_range;
};
return do_with(false, ranges.begin(), [this] (bool& found_relevant_range, dht::token_range_vector::iterator& ranges_it) {
auto stop_cond = [this, &found_relevant_range, &ranges_it] { return ranges_it == ranges.end() || found_relevant_range; };
return do_until(std::move(stop_cond), [this, &found_relevant_range, &ranges_it] {
dht::token_range range = *ranges_it++;
if (!found_relevant_range) {
@@ -113,112 +113,93 @@ struct send_info {
};
future<> send_mutation_fragments(lw_shared_ptr<send_info> si) {
return si->reader.has_more_fragments().then([si](bool there_is_more) {
if (!there_is_more) {
// The reader contains no data
sslog.info("[Stream #{}] Skip sending ks={}, cf={}, reader contains no data, with new rpc streaming", si->plan_id, si->cf->schema()->ks_name(),
si->cf->schema()->cf_name());
return make_ready_future<>();
}
return si->estimate_partitions().then([si](size_t estimated_partitions) {
sslog.info("[Stream #{}] Start sending ks={}, cf={}, estimated_partitions={}, with new rpc streaming", si->plan_id, si->cf->schema()->ks_name(),
si->cf->schema()->cf_name(), estimated_partitions);
return si->ms
.make_sink_and_source_for_stream_mutation_fragments(
si->reader.schema()->version(), si->plan_id, si->cf_id, estimated_partitions, si->reason, si->topo_guard, si->id)
.then_unpack([si](rpc::sink<frozen_mutation_fragment, stream_mutation_fragments_cmd> sink, rpc::source<int32_t> source) mutable {
auto got_error_from_peer = make_lw_shared<bool>(false);
auto table_is_dropped = make_lw_shared<bool>(false);
return si->reader.has_more_fragments().then([si] (bool there_is_more) {
if (!there_is_more) {
// The reader contains no data
sslog.info("[Stream #{}] Skip sending ks={}, cf={}, reader contains no data, with new rpc streaming",
si->plan_id, si->cf->schema()->ks_name(), si->cf->schema()->cf_name());
return make_ready_future<>();
}
return si->estimate_partitions().then([si] (size_t estimated_partitions) {
sslog.info("[Stream #{}] Start sending ks={}, cf={}, estimated_partitions={}, with new rpc streaming", si->plan_id, si->cf->schema()->ks_name(), si->cf->schema()->cf_name(), estimated_partitions);
return si->ms.make_sink_and_source_for_stream_mutation_fragments(si->reader.schema()->version(), si->plan_id, si->cf_id, estimated_partitions, si->reason, si->topo_guard, si->id).then_unpack([si] (rpc::sink<frozen_mutation_fragment, stream_mutation_fragments_cmd> sink, rpc::source<int32_t> source) mutable {
auto got_error_from_peer = make_lw_shared<bool>(false);
auto table_is_dropped = make_lw_shared<bool>(false);
auto source_op = [source, got_error_from_peer, table_is_dropped, si]() mutable -> future<> {
return repeat([source, got_error_from_peer, table_is_dropped, si]() mutable {
return source().then([source, got_error_from_peer, table_is_dropped, si](
std::optional<std::tuple<int32_t>> status_opt) mutable {
if (status_opt) {
auto status = std::get<0>(*status_opt);
if (status == -1) {
*got_error_from_peer = true;
} else if (status == -2) {
*got_error_from_peer = true;
*table_is_dropped = true;
}
sslog.debug("Got status code from peer={}, plan_id={}, cf_id={}, status={}", si->id, si->plan_id, si->cf_id, status);
// we've got an error from the other side, but we cannot just abandon rpc::source we
// need to continue reading until EOS since this will signal that no more work
// is left and rpc::source can be destroyed. The sender closes connection immediately
// after sending the status, so EOS should arrive shortly.
return stop_iteration::no;
} else {
return stop_iteration::yes;
}
});
});
}();
auto source_op = [source, got_error_from_peer, table_is_dropped, si] () mutable -> future<> {
return repeat([source, got_error_from_peer, table_is_dropped, si] () mutable {
return source().then([source, got_error_from_peer, table_is_dropped, si] (std::optional<std::tuple<int32_t>> status_opt) mutable {
if (status_opt) {
auto status = std::get<0>(*status_opt);
if (status == -1) {
*got_error_from_peer = true;
} else if (status == -2) {
*got_error_from_peer = true;
*table_is_dropped = true;
}
sslog.debug("Got status code from peer={}, plan_id={}, cf_id={}, status={}", si->id, si->plan_id, si->cf_id, status);
// we've got an error from the other side, but we cannot just abandon rpc::source we
// need to continue reading until EOS since this will signal that no more work
// is left and rpc::source can be destroyed. The sender closes connection immediately
// after sending the status, so EOS should arrive shortly.
return stop_iteration::no;
} else {
return stop_iteration::yes;
}
});
});
}();
auto sink_op = [sink, si, got_error_from_peer]() mutable -> future<> {
mutation_fragment_stream_validator validator(*(si->reader.schema()));
return do_with(std::move(sink), std::move(validator),
[si, got_error_from_peer](rpc::sink<frozen_mutation_fragment, stream_mutation_fragments_cmd>& sink,
mutation_fragment_stream_validator& validator) {
return repeat([&sink, &validator, si, got_error_from_peer]() mutable {
return si->reader().then(
[&sink, &validator, si, s = si->reader.schema(), got_error_from_peer](mutation_fragment_opt mf) mutable {
if (*got_error_from_peer) {
return make_exception_future<stop_iteration>(std::runtime_error("Got status error code from peer"));
}
if (mf) {
if (!validator(mf->mutation_fragment_kind())) {
return make_exception_future<stop_iteration>(std::runtime_error(
format("Stream reader mutation_fragment validator failed, previous={}, current={}",
validator.previous_mutation_fragment_kind(), mf->mutation_fragment_kind())));
}
frozen_mutation_fragment fmf = freeze(*s, *mf);
auto size = fmf.representation().size();
si->update(size);
return sink(fmf, stream_mutation_fragments_cmd::mutation_fragment_data).then([] {
return stop_iteration::no;
});
} else {
if (!validator.on_end_of_stream()) {
return make_exception_future<stop_iteration>(
std::runtime_error(format("Stream reader mutation_fragment validator failed on "
"end_of_stream, previous={}, current=end_of_stream",
validator.previous_mutation_fragment_kind())));
}
return make_ready_future<stop_iteration>(stop_iteration::yes);
}
});
})
.then([&sink]() mutable {
return sink(frozen_mutation_fragment(bytes_ostream()), stream_mutation_fragments_cmd::end_of_stream);
})
.handle_exception([&sink](std::exception_ptr ep) mutable {
// Notify the receiver the sender has failed
return sink(frozen_mutation_fragment(bytes_ostream()), stream_mutation_fragments_cmd::error)
.then([ep = std::move(ep)]() mutable {
return make_exception_future<>(std::move(ep));
});
})
.finally([&sink]() mutable {
return sink.close();
});
});
}();
return when_all_succeed(std::move(source_op), std::move(sink_op)).then_unpack([got_error_from_peer, table_is_dropped, si] {
if (*got_error_from_peer) {
if (*table_is_dropped) {
sslog.info("[Stream #{}] Skipped streaming the dropped table {}.{}", si->plan_id, si->cf->schema()->ks_name(),
si->cf->schema()->cf_name());
} else {
throw std::runtime_error(
format("Peer failed to process mutation_fragment peer={}, plan_id={}, cf_id={}", si->id, si->plan_id, si->cf_id));
}
auto sink_op = [sink, si, got_error_from_peer] () mutable -> future<> {
mutation_fragment_stream_validator validator(*(si->reader.schema()));
return do_with(std::move(sink), std::move(validator), [si, got_error_from_peer] (rpc::sink<frozen_mutation_fragment, stream_mutation_fragments_cmd>& sink, mutation_fragment_stream_validator& validator) {
return repeat([&sink, &validator, si, got_error_from_peer] () mutable {
return si->reader().then([&sink, &validator, si, s = si->reader.schema(), got_error_from_peer] (mutation_fragment_opt mf) mutable {
if (*got_error_from_peer) {
return make_exception_future<stop_iteration>(std::runtime_error("Got status error code from peer"));
}
if (mf) {
if (!validator(mf->mutation_fragment_kind())) {
return make_exception_future<stop_iteration>(std::runtime_error(format("Stream reader mutation_fragment validator failed, previous={}, current={}",
validator.previous_mutation_fragment_kind(), mf->mutation_fragment_kind())));
}
});
frozen_mutation_fragment fmf = freeze(*s, *mf);
auto size = fmf.representation().size();
si->update(size);
return sink(fmf, stream_mutation_fragments_cmd::mutation_fragment_data).then([] { return stop_iteration::no; });
} else {
if (!validator.on_end_of_stream()) {
return make_exception_future<stop_iteration>(std::runtime_error(format("Stream reader mutation_fragment validator failed on end_of_stream, previous={}, current=end_of_stream",
validator.previous_mutation_fragment_kind())));
}
return make_ready_future<stop_iteration>(stop_iteration::yes);
}
});
}).then([&sink] () mutable {
return sink(frozen_mutation_fragment(bytes_ostream()), stream_mutation_fragments_cmd::end_of_stream);
}).handle_exception([&sink] (std::exception_ptr ep) mutable {
// Notify the receiver the sender has failed
return sink(frozen_mutation_fragment(bytes_ostream()), stream_mutation_fragments_cmd::error).then([ep = std::move(ep)] () mutable {
return make_exception_future<>(std::move(ep));
});
}).finally([&sink] () mutable {
return sink.close();
});
});
}();
return when_all_succeed(std::move(source_op), std::move(sink_op)).then_unpack([got_error_from_peer, table_is_dropped, si] {
if (*got_error_from_peer) {
if (*table_is_dropped) {
sslog.info("[Stream #{}] Skipped streaming the dropped table {}.{}", si->plan_id, si->cf->schema()->ks_name(), si->cf->schema()->cf_name());
} else {
throw std::runtime_error(format("Peer failed to process mutation_fragment peer={}, plan_id={}, cf_id={}", si->id, si->plan_id, si->cf_id));
}
}
});
});
});
});
}
future<> stream_transfer_task::execute() {
@@ -226,55 +207,46 @@ future<> stream_transfer_task::execute() {
auto cf_id = this->cf_id;
auto id = session->peer;
auto& sm = session->manager();
auto table_dropped = co_await streaming::with_table_drop_silenced(sm.db(), sm.mm(), cf_id, [this, &sm, cf_id, plan_id, id](const table_id&) {
auto table_dropped = co_await streaming::with_table_drop_silenced(sm.db(), sm.mm(), cf_id, [this, &sm, cf_id, plan_id, id] (const table_id &) {
auto dst_cpu_id = session->dst_cpu_id;
sslog.debug("[Stream #{}] stream_transfer_task: cf_id={}", plan_id, cf_id);
sort_and_merge_ranges();
auto reason = session->get_reason();
auto topo_guard = session->topo_guard();
return sm.container()
.invoke_on_all([plan_id, cf_id, id, dst_cpu_id, ranges = this->_ranges, reason, topo_guard](stream_manager& sm) mutable {
auto tbl = sm.db().find_column_family(cf_id).shared_from_this();
return sm.db()
.obtain_reader_permit(*tbl, "stream-transfer-task", db::no_timeout, {})
.then([&sm, tbl, plan_id, cf_id, id, dst_cpu_id, ranges = std::move(ranges), reason, topo_guard](reader_permit permit) mutable {
auto si = make_lw_shared<send_info>(sm.ms(), plan_id, tbl, std::move(permit), std::move(ranges), id, dst_cpu_id, reason,
topo_guard, [&sm, plan_id, id](size_t sz) {
sm.update_progress(plan_id, id, streaming::progress_info::direction::OUT, sz);
});
return si->has_relevant_range_on_this_shard()
.then([si, plan_id, cf_id](bool has_relevant_range_on_this_shard) {
if (!has_relevant_range_on_this_shard) {
sslog.debug("[Stream #{}] stream_transfer_task: cf_id={}: ignore ranges on shard={}", plan_id, cf_id,
this_shard_id());
return make_ready_future<>();
}
return send_mutation_fragments(std::move(si));
})
.finally([si] {
return si->reader.close();
});
});
})
.then([this, plan_id, cf_id, id, &sm] {
sslog.debug("[Stream #{}] SEND STREAM_MUTATION_DONE to {}, cf_id={}", plan_id, id, cf_id);
return ser::streaming_rpc_verbs::send_stream_mutation_done(&sm.ms(), id, plan_id, _ranges, cf_id, session->dst_cpu_id)
.handle_exception([plan_id, id](auto ep) {
sslog.warn("[Stream #{}] stream_transfer_task: Fail to send STREAM_MUTATION_DONE to {}: {}", plan_id, id, ep);
std::rethrow_exception(ep);
});
})
.then([this, id, plan_id] {
_mutation_done_sent = true;
sslog.debug("[Stream #{}] GOT STREAM_MUTATION_DONE Reply from {}", plan_id, id);
})
.handle_exception([plan_id, id, &sm](std::exception_ptr ep) {
sslog.warn("[Stream #{}] stream_transfer_task: Fail to send to {}: {}", plan_id, id, ep);
utils::get_local_injector().inject("stream_mutation_fragments_table_dropped", [&sm]() {
sm.db().find_column_family(table_id::create_null_id());
});
std::rethrow_exception(ep);
return sm.container().invoke_on_all([plan_id, cf_id, id, dst_cpu_id, ranges=this->_ranges, reason, topo_guard] (stream_manager& sm) mutable {
auto tbl = sm.db().find_column_family(cf_id).shared_from_this();
return sm.db().obtain_reader_permit(*tbl, "stream-transfer-task", db::no_timeout, {}).then([&sm, tbl, plan_id, cf_id, id, dst_cpu_id, ranges=std::move(ranges), reason, topo_guard] (reader_permit permit) mutable {
auto si = make_lw_shared<send_info>(sm.ms(), plan_id, tbl, std::move(permit), std::move(ranges), id, dst_cpu_id, reason, topo_guard, [&sm, plan_id, id] (size_t sz) {
sm.update_progress(plan_id, id, streaming::progress_info::direction::OUT, sz);
});
return si->has_relevant_range_on_this_shard().then([si, plan_id, cf_id] (bool has_relevant_range_on_this_shard) {
if (!has_relevant_range_on_this_shard) {
sslog.debug("[Stream #{}] stream_transfer_task: cf_id={}: ignore ranges on shard={}",
plan_id, cf_id, this_shard_id());
return make_ready_future<>();
}
return send_mutation_fragments(std::move(si));
}).finally([si] {
return si->reader.close();
});
});
}).then([this, plan_id, cf_id, id, &sm] {
sslog.debug("[Stream #{}] SEND STREAM_MUTATION_DONE to {}, cf_id={}", plan_id, id, cf_id);
return ser::streaming_rpc_verbs::send_stream_mutation_done(&sm.ms(), id, plan_id, _ranges,
cf_id, session->dst_cpu_id).handle_exception([plan_id, id] (auto ep) {
sslog.warn("[Stream #{}] stream_transfer_task: Fail to send STREAM_MUTATION_DONE to {}: {}", plan_id, id, ep);
std::rethrow_exception(ep);
});
}).then([this, id, plan_id] {
_mutation_done_sent = true;
sslog.debug("[Stream #{}] GOT STREAM_MUTATION_DONE Reply from {}", plan_id, id);
}).handle_exception([plan_id, id, &sm] (std::exception_ptr ep) {
sslog.warn("[Stream #{}] stream_transfer_task: Fail to send to {}: {}", plan_id, id, ep);
utils::get_local_injector().inject("stream_mutation_fragments_table_dropped", [&sm] () {
sm.db().find_column_family(table_id::create_null_id());
});
std::rethrow_exception(ep);
});
});
// If the table is dropped during streaming, we can ignore the
// errors and make the stream successful. This allows user to

View File

@@ -62,11 +62,7 @@ SEASTAR_TEST_CASE(test_index_doesnt_flood_cache_in_small_partition_workload) {
// cfg.db_config->index_cache_fraction.set(1.0);
return do_with_cql_env_thread([] (cql_test_env& e) {
// We disable compactions because they cause confusing cache mispopulations.
// We disable compression because the sstable writer targets a specific
// (*compressed* data file size : summary file size) ratio,
// so the number of keys per index page becomes hard to control,
// and might be arbitrarily large.
e.execute_cql("CREATE TABLE ks.t(pk blob PRIMARY KEY) WITH compaction = { 'class' : 'NullCompactionStrategy' } AND compression = {'sstable_compression': ''};").get();
e.execute_cql("CREATE TABLE ks.t(pk blob PRIMARY KEY) WITH compaction = { 'class' : 'NullCompactionStrategy' };").get();
auto insert_query = e.prepare("INSERT INTO ks.t(pk) VALUES (?)").get();
auto select_query = e.prepare("SELECT * FROM t WHERE pk = ?").get();
@@ -158,11 +154,7 @@ SEASTAR_TEST_CASE(test_index_is_cached_in_big_partition_workload) {
// cfg.db_config->index_cache_fraction.set(0.0);
return do_with_cql_env_thread([] (cql_test_env& e) {
// We disable compactions because they cause confusing cache mispopulations.
// We disable compression because the sstable writer targets a specific
// (*compressed* data file size : summary file size) ratio,
// so the number of keys per index page becomes hard to control,
// and might be arbitrarily large.
e.execute_cql("CREATE TABLE ks.t(pk bigint, ck bigint, v blob, primary key (pk, ck)) WITH compaction = { 'class' : 'NullCompactionStrategy' } AND compression = {'sstable_compression': ''};").get();
e.execute_cql("CREATE TABLE ks.t(pk bigint, ck bigint, v blob, primary key (pk, ck)) WITH compaction = { 'class' : 'NullCompactionStrategy' };").get();
auto insert_query = e.prepare("INSERT INTO ks.t(pk, ck, v) VALUES (?, ?, ?)").get();
auto select_query = e.prepare("SELECT * FROM t WHERE pk = ? AND ck = ?").get();

View File

@@ -23,11 +23,8 @@
#include "test/lib/tmpdir.hh"
#include "test/lib/random_utils.hh"
#include "test/lib/exception_utils.hh"
#include "test/lib/limiting_data_source.hh"
#include "utils/io-wrappers.hh"
#include <seastar/util/memory-data-source.hh>
using namespace encryption;
static tmpdir dir;
@@ -598,113 +595,6 @@ SEASTAR_TEST_CASE(test_encrypted_data_source_simple) {
co_await test_random_data_source(sizes);
}
// Reproduces the production deadlock where encrypted SSTable component downloads
// got stuck during restore. The encrypted_data_source::get() caches a block in
// _next, then on the next call bypasses input_stream::read()'s _eof check and
// calls input_stream::read_exactly() — which does NOT check _eof when _buf is
// empty. This causes a second get() on the underlying source after EOS.
//
// In production the underlying source was chunked_download_source whose get()
// hung forever. Here we simulate it with a strict source that fails the test.
//
// The fix belongs in seastar's input_stream::read_exactly(): check _eof before
// calling _fd.get(), consistent with read(), read_up_to(), and consume().
static future<> test_encrypted_source_copy(size_t plaintext_size) {
testlog.info("test_encrypted_source_copy: plaintext_size={}", plaintext_size);
key_info info{"AES/CBC", 256};
auto k = ::make_shared<symmetric_key>(info);
// Step 1: Encrypt the plaintext into memory buffers
auto plaintext = generate_random<char>(plaintext_size);
std::vector<temporary_buffer<char>> encrypted_bufs;
{
data_sink sink(make_encrypted_sink(create_memory_sink(encrypted_bufs), k));
co_await sink.put(plaintext.clone());
co_await sink.close();
}
// Flatten encrypted buffers into a single contiguous buffer
size_t encrypted_total = 0;
for (const auto& b : encrypted_bufs) {
encrypted_total += b.size();
}
temporary_buffer<char> encrypted(encrypted_total);
size_t pos = 0;
for (const auto& b : encrypted_bufs) {
std::copy(b.begin(), b.end(), encrypted.get_write() + pos);
pos += b.size();
}
// Step 2: Create a data source from the encrypted data that fails on
// post-EOS get() — simulating a source like chunked_download_source
// that would hang forever in this situation.
class strict_memory_source final : public limiting_data_source_impl {
bool _eof = false;
public:
strict_memory_source(temporary_buffer<char> data, size_t chunk_size)
: limiting_data_source_impl(
data_source(std::make_unique<util::temporary_buffer_data_source>(std::move(data))),
chunk_size) {}
future<temporary_buffer<char>> get() override {
BOOST_REQUIRE_MESSAGE(!_eof,
"get() called on source after it already returned EOS — "
"this is the production deadlock: read_exactly() does not "
"check _eof before calling _fd.get()");
auto buf = co_await limiting_data_source_impl::get();
_eof = buf.empty();
co_return buf;
}
};
// Step 3: Wrap in encrypted_data_source and drain via consume() —
// the exact code path used by seastar::copy() which is what
// sstables_loader_helpers::download_sstable() calls.
// Try multiple chunk sizes to hit different alignment scenarios.
for (size_t chunk_size : {1ul, 7ul, 4096ul, 8192ul, encrypted_total, encrypted_total + 1}) {
if (chunk_size == 0) continue;
auto src = data_source(make_encrypted_source(
data_source(std::make_unique<strict_memory_source>(encrypted.clone(), chunk_size)), k));
auto in = input_stream<char>(std::move(src));
// consume() is what seastar::copy() uses internally. It calls
// encrypted_data_source::get() via _fd.get() until EOF.
size_t total_decrypted = 0;
co_await in.consume([&total_decrypted](temporary_buffer<char> buf) {
total_decrypted += buf.size();
return make_ready_future<consumption_result<char>>(continue_consuming{});
});
co_await in.close();
BOOST_REQUIRE_EQUAL(total_decrypted, plaintext_size);
}
}
SEASTAR_TEST_CASE(test_encrypted_source_copy_8k) {
co_await test_encrypted_source_copy(8192);
}
SEASTAR_TEST_CASE(test_encrypted_source_copy_4k) {
co_await test_encrypted_source_copy(4096);
}
SEASTAR_TEST_CASE(test_encrypted_source_copy_small) {
co_await test_encrypted_source_copy(100);
}
SEASTAR_TEST_CASE(test_encrypted_source_copy_12k) {
co_await test_encrypted_source_copy(12288);
}
SEASTAR_TEST_CASE(test_encrypted_source_copy_unaligned) {
co_await test_encrypted_source_copy(8193);
}
SEASTAR_TEST_CASE(test_encrypted_source_copy_1byte) {
co_await test_encrypted_source_copy(1);
}
SEASTAR_TEST_CASE(test_encrypted_data_source_fuzzy) {
std::mt19937_64 rand_gen(std::random_device{}());

View File

@@ -691,7 +691,7 @@ class TesterAlternator(BaseAlternator):
random.choice(nodes_for_maintenance).compact()
except NodetoolError as exc:
error_message = str(exc)
valid_errors = ["ConnectException", "Connection refused", "status code 404 Not Found"]
valid_errors = ["ConnectException", "status code 404 Not Found"]
if not any(err in error_message for err in valid_errors):
raise

File diff suppressed because it is too large Load Diff

View File

@@ -353,7 +353,7 @@ class TestSchemaManagement(Tester):
logger.debug("Restarting node2")
node2.start(wait_for_binary_proto=True)
session2 = self.patient_exclusive_cql_connection(node2)
session2 = self.patient_cql_connection(node2)
read_barrier(session2)
rows = session.execute(SimpleStatement("SELECT * FROM cf", consistency_level=ConsistencyLevel.ALL))
@@ -382,7 +382,7 @@ class TestSchemaManagement(Tester):
logger.debug("Restarting node2")
node2.start(wait_for_binary_proto=True)
session2 = self.patient_exclusive_cql_connection(node2)
session2 = self.patient_cql_connection(node2)
read_barrier(session2)
session.execute(SimpleStatement("INSERT INTO cf (p, v) VALUES (2, '2')", consistency_level=ConsistencyLevel.ALL))

View File

@@ -808,16 +808,7 @@ async def test_index_requires_rf_rack_valid_keyspace(manager: ManagerClient):
# Create a table with tablets and no indexes, then add a GSI - the update should fail
table_name = unique_table_name()
# The server waits 10s for schema agreement after creating a table,
# which may not be enough after a sequence of rapid schema changes
# on a multi-node cluster (see SCYLLADB-1135). Retry if needed.
for attempt in range(2):
try:
create_table_with_index(alternator, table_name, index_type=None, initial_tablets='1')
break
except ClientError as e:
if 'schema agreement' not in str(e) or attempt == 1:
raise
create_table_with_index(alternator, table_name, index_type=None, initial_tablets='1')
with pytest.raises(ClientError, match=expected_err_update_add_gsi):
alternator.meta.client.update_table(
TableName=table_name,

View File

@@ -44,7 +44,6 @@ run_in_dev:
- dtest/bypass_cache_test
- dtest/auth_roles_test
- dtest/audit_test
- audit/test_audit
- dtest/commitlog_test
- dtest/cfid_test
- dtest/rebuild_test

View File

@@ -352,9 +352,14 @@ async def test_node_operation_during_view_building(manager: ManagerClient, opera
rack_layout = ["rack1", "rack2", "rack3"]
property_file = [{"dc": "dc1", "rack": rack} for rack in rack_layout]
servers = await manager.servers_add(node_count, config={"enable_tablets": "true"},
cmdline=cmdline_loggers,
property_file=property_file)
servers = [
await manager.server_add(
config={"enable_tablets": "true"},
cmdline=cmdline_loggers,
property_file=server_property_file,
)
for server_property_file in property_file
]
cql, _ = await manager.get_ready_cql(servers)
await manager.disable_tablet_balancing()

View File

@@ -7,42 +7,54 @@
*/
#include "limiting_data_source.hh"
#include <seastar/core/iostream.hh>
#include <seastar/core/temporary_buffer.hh>
#include <cstdint>
using namespace seastar;
future<temporary_buffer<char>> limiting_data_source_impl::do_get() {
uint64_t size = std::min(_limit, _buf.size());
auto res = _buf.share(0, size);
_buf.trim_front(size);
return make_ready_future<temporary_buffer<char>>(std::move(res));
}
class limiting_data_source_impl final : public data_source_impl {
data_source _src;
size_t _limit;
temporary_buffer<char> _buf;
future<temporary_buffer<char>> do_get() {
uint64_t size = std::min(_limit, _buf.size());
auto res = _buf.share(0, size);
_buf.trim_front(size);
return make_ready_future<temporary_buffer<char>>(std::move(res));
}
public:
limiting_data_source_impl(data_source&& src, size_t limit)
: _src(std::move(src))
, _limit(limit)
{}
limiting_data_source_impl::limiting_data_source_impl(data_source&& src, size_t limit) : _src(std::move(src)), _limit(limit) {
}
limiting_data_source_impl(limiting_data_source_impl&&) noexcept = default;
limiting_data_source_impl& operator=(limiting_data_source_impl&&) noexcept = default;
future<temporary_buffer<char>> limiting_data_source_impl::get() {
if (_buf.empty()) {
virtual future<temporary_buffer<char>> get() override {
if (_buf.empty()) {
_buf.release();
return _src.get().then([this] (auto&& buf) {
_buf = std::move(buf);
return do_get();
});
}
return do_get();
}
virtual future<temporary_buffer<char>> skip(uint64_t n) override {
if (n < _buf.size()) {
_buf.trim_front(n);
return do_get();
}
n -= _buf.size();
_buf.release();
return _src.get().then([this](auto&& buf) {
return _src.skip(n).then([this] (auto&& buf) {
_buf = std::move(buf);
return do_get();
});
}
return do_get();
}
future<temporary_buffer<char>> limiting_data_source_impl::skip(uint64_t n) {
if (n < _buf.size()) {
_buf.trim_front(n);
return do_get();
}
n -= _buf.size();
_buf.release();
return _src.skip(n).then([this](auto&& buf) {
_buf = std::move(buf);
return do_get();
});
}
};
data_source make_limiting_data_source(data_source&& src, size_t limit) {
return data_source{std::make_unique<limiting_data_source_impl>(std::move(src), limit)};

View File

@@ -8,25 +8,13 @@
#pragma once
#include <seastar/core/iostream.hh>
#include <seastar/core/temporary_buffer.hh>
#include <stddef.h>
namespace seastar {
class limiting_data_source_impl : public seastar::data_source_impl {
seastar::data_source _src;
size_t _limit;
seastar::temporary_buffer<char> _buf;
seastar::future<seastar::temporary_buffer<char>> do_get();
class data_source;
public:
limiting_data_source_impl(seastar::data_source&& src, size_t limit);
limiting_data_source_impl(limiting_data_source_impl&&) noexcept = default;
limiting_data_source_impl& operator=(limiting_data_source_impl&&) noexcept = default;
seastar::future<seastar::temporary_buffer<char>> get() override;
seastar::future<seastar::temporary_buffer<char>> skip(uint64_t n) override;
};
}
/// \brief Creates an data_source from another data_source but returns its data in chunks not bigger than a given limit
///

View File

@@ -60,7 +60,6 @@ class ManagerClient:
self.con_gen = con_gen
self.ccluster: Optional[CassandraCluster] = None
self.cql: Optional[CassandraSession] = None
self.exclusive_clusters: List[CassandraCluster] = []
# A client for communicating with ScyllaClusterManager (server)
self.sock_path = sock_path
self.client_for_asyncio_loop = {asyncio.get_running_loop(): UnixRESTClient(sock_path)}
@@ -114,9 +113,6 @@ class ManagerClient:
def driver_close(self) -> None:
"""Disconnect from cluster"""
for cluster in self.exclusive_clusters:
cluster.shutdown()
self.exclusive_clusters.clear()
if self.ccluster is not None:
logger.debug("shutting down driver")
safe_driver_shutdown(self.ccluster)
@@ -138,12 +134,9 @@ class ManagerClient:
hosts = await wait_for_cql_and_get_hosts(cql, servers, time() + 60)
return cql, hosts
async def get_cql_exclusive(self, server: ServerInfo, auth_provider: Optional[AuthProvider] = None):
cluster = self.con_gen([server.ip_addr], self.port, self.use_ssl,
auth_provider if auth_provider else self.auth_provider,
WhiteListRoundRobinPolicy([server.ip_addr]))
self.exclusive_clusters.append(cluster)
cql = cluster.connect()
async def get_cql_exclusive(self, server: ServerInfo):
cql = self.con_gen([server.ip_addr], self.port, self.use_ssl, self.auth_provider,
WhiteListRoundRobinPolicy([server.ip_addr])).connect()
await wait_for_cql_and_get_hosts(cql, [server], time() + 60)
return cql

View File

@@ -1394,11 +1394,7 @@ class ScyllaCluster:
f"the test must drop all keyspaces it creates.")
for server in itertools.chain(self.running.values(), self.stopped.values()):
server.write_log_marker(f"------ Ending test {name} ------\n")
# Only close log files when the cluster is dirty (will be destroyed).
# If the cluster is clean and will be reused, keep the log file open
# so that write_log_marker() and take_log_savepoint() work in the
# next test's before_test().
if self.is_dirty and not server.log_file.closed:
if not server.log_file.closed:
server.log_file.close()
async def server_stop(self, server_id: ServerNum, gracefully: bool) -> None:

View File

@@ -4,7 +4,7 @@
"""
GDB helper functions for `scylla_gdb` tests.
They should be loaded to GDB by "-x {dir}/gdb_utils.py}",
when loaded, they can be run in gdb e.g. `$get_sstables()`
when loaded, they can be run in gdb e.g. `python get_sstables()`
Depends on helper functions injected to GDB by `scylla-gdb.py` script.
(sharded, for_each_table, seastar_lw_shared_ptr, find_sstables, find_vptrs, resolve,
@@ -15,65 +15,39 @@ import gdb
import uuid
class get_schema(gdb.Function):
"""Finds and returns a schema pointer."""
def __init__(self):
super(get_schema, self).__init__('get_schema')
def invoke(self):
db = sharded(gdb.parse_and_eval('::debug::the_database')).local()
table = next(for_each_table(db))
return seastar_lw_shared_ptr(table['_schema']).get()
def get_schema():
"""Execute GDB commands to get schema information."""
db = sharded(gdb.parse_and_eval('::debug::the_database')).local()
table = next(for_each_table(db))
ptr = seastar_lw_shared_ptr(table['_schema']).get()
print('schema=', ptr)
class get_sstable(gdb.Function):
"""Finds and returns an sstable pointer."""
def __init__(self):
super(get_sstable, self).__init__('get_sstable')
def invoke(self):
return next(find_sstables())
def get_sstables():
"""Execute GDB commands to get sstables information."""
sst = next(find_sstables())
print(f"sst=(sstables::sstable *)", sst)
class get_task(gdb.Function):
def get_task():
"""
Finds and returns a Scylla fiber task.
Some commands need a task to work on. The following fixture finds one.
Because we stopped Scylla while it was idle, we don't expect to find
any ready task with get_local_tasks(), but we can find one with a
find_vptrs() loop. I noticed that a nice one (with multiple tasks chained
to it for "scylla fiber") is one from http_server::do_accept_one.
"""
def __init__(self):
super(get_task, self).__init__('get_task')
def invoke(self):
for obj_addr, vtable_addr in find_vptrs():
name = resolve(vtable_addr, startswith='vtable for seastar::continuation')
if name and 'do_accept_one' in name:
return obj_addr.cast(gdb.lookup_type('uintptr_t'))
for obj_addr, vtable_addr in find_vptrs():
name = resolve(vtable_addr, startswith='vtable for seastar::continuation')
if name and 'do_accept_one' in name:
print(f"task={obj_addr.cast(gdb.lookup_type('uintptr_t'))}")
break
class get_coroutine(gdb.Function):
"""
Finds and returns a coroutine frame.
Prints COROUTINE_NOT_FOUND if the coroutine is not present.
"""
def __init__(self):
super(get_coroutine, self).__init__('get_coroutine')
def invoke(self):
target = 'service::topology_coordinator::run() [clone .resume]'
for obj_addr, vtable_addr in find_vptrs():
name = resolve(vtable_addr)
if name and name.strip() == target:
return obj_addr.cast(gdb.lookup_type('uintptr_t'))
print("COROUTINE_NOT_FOUND")
# Register the functions in GDB
get_schema()
get_sstable()
get_task()
get_coroutine()
def get_coroutine():
"""Similar to get_task(), but looks for a coroutine frame."""
target = 'service::topology_coordinator::run() [clone .resume]'
for obj_addr, vtable_addr in find_vptrs():
name = resolve(vtable_addr)
if name and name.strip() == target:
print(f"coroutine_config={obj_addr.cast(gdb.lookup_type('uintptr_t'))}")

View File

@@ -7,6 +7,7 @@ Each only checks that the command does not fail - but not what it does or return
"""
import pytest
import re
from test.scylla_gdb.conftest import execute_gdb_command
@@ -22,6 +23,20 @@ pytestmark = [
),
]
@pytest.fixture(scope="module")
def schema(gdb_cmd):
"""
Returns pointer to schema of the first table it finds
Even without any user tables, we will always have system tables.
"""
result = execute_gdb_command(gdb_cmd, full_command="python get_schema()").stdout
match = re.search(r"schema=\s*(0x[0-9a-fA-F]+)", result)
schema_pointer = match.group(1) if match else None
return schema_pointer
@pytest.mark.parametrize(
"command",
[
@@ -30,17 +45,21 @@ pytestmark = [
"schema (const schema *)", # `schema` requires type-casted pointer
],
)
def test_schema(gdb_cmd, command):
result = execute_gdb_command(gdb_cmd, f"{command} $get_schema()")
def test_schema(gdb_cmd, command, schema):
assert schema, "Failed to find schema of any table"
result = execute_gdb_command(gdb_cmd, f"{command} {schema}")
assert result.returncode == 0, (
f"GDB command {command} failed. stdout: {result.stdout} stderr: {result.stderr}"
)
def test_generate_object_graph(gdb_cmd, request):
def test_generate_object_graph(gdb_cmd, schema, request):
assert schema, "Failed to find schema of any table"
tmpdir = request.config.getoption("--tmpdir")
result = execute_gdb_command(
gdb_cmd, f"generate-object-graph -o {tmpdir}/og.dot -d 2 -t 10 $get_schema()"
gdb_cmd, f"generate-object-graph -o {tmpdir}/og.dot -d 2 -t 10 {schema}"
)
assert result.returncode == 0, (
f"GDB command `generate-object-graph` failed. stdout: {result.stdout} stderr: {result.stderr}"

View File

@@ -7,6 +7,7 @@ Each only checks that the command does not fail - but not what it does or return
"""
import pytest
import re
from test.scylla_gdb.conftest import execute_gdb_command
@@ -23,6 +24,16 @@ pytestmark = [
]
@pytest.fixture(scope="module")
def sstable(gdb_cmd):
"""Finds sstable"""
result = execute_gdb_command(gdb_cmd, full_command="python get_sstables()").stdout
match = re.search(r"(\(sstables::sstable \*\) 0x)([0-9a-f]+)", result)
sstable_pointer = match.group(0).strip() if match else None
return sstable_pointer
@pytest.mark.parametrize(
"command",
[
@@ -30,8 +41,10 @@ pytestmark = [
"sstable-index-cache",
],
)
def test_sstable(gdb_cmd, command):
result = execute_gdb_command(gdb_cmd, f"{command} $get_sstable()")
def test_sstable(gdb_cmd, command, sstable):
assert sstable, "No sstable was found"
result = execute_gdb_command(gdb_cmd, f"{command} {sstable}")
assert result.returncode == 0, (
f"GDB command {command} failed. stdout: {result.stdout} stderr: {result.stderr}"
)

View File

@@ -6,6 +6,8 @@ Tests for commands, that need a some task to work on.
Each only checks that the command does not fail - but not what it does or returns.
"""
import re
import pytest
from test.scylla_gdb.conftest import execute_gdb_command
@@ -23,25 +25,59 @@ pytestmark = [
]
def test_coroutine_frame(gdb_cmd):
@pytest.fixture(scope="module")
def task(gdb_cmd):
"""
Finds a Scylla fiber task using a `find_vptrs()` loop.
Since Scylla is freshbooted, `get_local_tasks()` returns nothing.
Nevertheless, a `find_vptrs()` scan can still discover the first task
skeleton created by `http_server::do_accept_one` (often the earliest
“Scylla fiber” to appear).
"""
result = execute_gdb_command(gdb_cmd, full_command="python get_task()").stdout
match = re.search(r"task=(\d+)", result)
task = match.group(1) if match else None
return task
@pytest.fixture(scope="module")
def coroutine_task(gdb_cmd, scylla_server):
"""
Finds a coroutine task, similar to the `task` fixture.
This fixture executes the `coroutine_config` script in GDB to locate a
specific coroutine task.
"""
result = execute_gdb_command(gdb_cmd, full_command="python get_coroutine()").stdout
match = re.search(r"coroutine_config=\s*(.*)", result)
if not match:
# See https://github.com/scylladb/scylladb/issues/22501
pytest.skip("Failed to find coroutine task. Skipping test.")
return match.group(1).strip()
def test_coroutine_frame(gdb_cmd, coroutine_task):
"""
Offsets the pointer by two words to shift from the outer coroutine frame
to the inner `seastar::task`, as required by `$coro_frame`, which expects
a `seastar::task*`.
"""
assert coroutine_task, "No coroutine task was found"
result = execute_gdb_command(
gdb_cmd, full_command="p *$coro_frame($get_coroutine() + 16)"
gdb_cmd, full_command=f"p *$coro_frame({coroutine_task} + 16)"
)
if "COROUTINE_NOT_FOUND" in result.stdout:
# See https://github.com/scylladb/scylladb/issues/22501
pytest.skip("Failed to find coroutine task. Skipping test.")
assert result.returncode == 0, (
f"GDB command `coro_frame` failed. stdout: {result.stdout} stderr: {result.stderr}"
)
def test_fiber(gdb_cmd):
result = execute_gdb_command(gdb_cmd, "fiber $get_task()")
def test_fiber(gdb_cmd, task):
assert task, f"No task was found using `find_vptrs()`"
result = execute_gdb_command(gdb_cmd, f"fiber {task}")
assert result.returncode == 0, (
f"GDB command `fiber` failed. stdout: {result.stdout} stderr: {result.stderr}"
)

View File

@@ -10,7 +10,6 @@
#include <seastar/core/seastar.hh>
#include <seastar/core/coroutine.hh>
#include <seastar/coroutine/parallel_for_each.hh>
#include <seastar/util/closeable.hh>
#include "init.hh"
#include "supervisor.hh"
#include "directories.hh"

View File

@@ -350,6 +350,7 @@ utils::gcp::storage::client::impl::send_with_retry(const std::string& path, cons
co_await authorize(req, scope);
}
auto content = co_await util::read_entire_stream_contiguous(_in);
auto error_msg = get_gcp_error_message(std::string_view(content));
gcp_storage.debug("Got unexpected response status: {}, content: {}", rep._status, content);
co_await coroutine::return_exception_ptr(std::make_exception_ptr(httpd::unexpected_status_error(rep._status)));
}
@@ -628,7 +629,7 @@ future<> utils::gcp::storage::client::object_data_sink::remove_upload() {
co_return;
}
gcp_storage.debug("Removing incomplete upload {}:{} ({})", _bucket, _object_name, _session_path);
gcp_storage.debug("Removing incomplete upload {}:{} ()", _bucket, _object_name, _session_path);
auto res = co_await _impl->send_with_retry(_session_path
, GCP_OBJECT_SCOPE_READ_WRITE

View File

@@ -1583,7 +1583,7 @@ void reclaim_timer::report() const noexcept {
if (_memory_released > 0) {
auto bytes_per_second =
static_cast<float>(_memory_released) / std::chrono::duration_cast<std::chrono::duration<float>>(_duration).count();
timing_logger.log(info_level, "- reclamation rate = {:.3f} MiB/s", bytes_per_second / MiB);
timing_logger.log(info_level, "- reclamation rate = {} MiB/s", format("{:.3f}", bytes_per_second / MiB));
}
if (_debug_enabled) {