MonitoredMode::set calls onModeChange on every round start, so the span was
created whether or not the mode moved. A node with a steady mode therefore
emitted one mode_change per round carrying mode_old == mode_new, which a live
sweep confirmed on every round of both instrumented builds. The round span's
own consensus_mode attribute is still written on every call, since that is
where the round learns the mode it is running in.
accept.apply was a plain SpanGuard, so it never became the ambient span of
doAccept. The spans the function goes on to create inherited the activated
accept span instead and came out as accept.apply's siblings, while running
inside its own time window. Every guard was scoped before the SpanGuard split,
so this restores the hierarchy that design had.
Scoped now, so the hierarchy follows the call flow. Drops the parent-context
fallback arm with it: the accept context is captured only while the accept span
is live, and that span is a child of the round context, so an invalid accept
context implies an invalid round context and both arms returned an empty guard.
Only SpanGuard carried addEvent(name, attrs), so a call site holding a scoped
guard could not record an event attribute. Forwarding overload, with the no-op
twin in the telemetry-disabled stub, so a span can be converted between scoped
and unscoped without dropping the attributes on its events.
SetRuntimeContextStorage() writes a process-global shared_ptr that every log
line reads through RuntimeContext::GetCurrent(). Neither side is atomic, and
assigning the wrapper destroys it and placement-news a replacement over the
same buffer, so a concurrent reader could make a virtual call through an
indeterminate vptr. Install it in main() while the process is still
single-threaded instead, and drop the member that held it.
Gated on the telemetry section being enabled. Only that one key is read
here, because parsing the whole section can throw on a contradictory TLS
combination and that error belongs where it already reports.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
unl_expiry_days subtracted two NetClock time points, whose rep is uint32_t, so
the subtraction wrapped before the duration_cast ran. A list expired by one day
read about +49709 days. The panel is green above 30 while its own description
promises red at expiry, so an expired validator list rendered healthy.
daysUntil() widens both endpoints to int64_t first, which makes the wrap
impossible rather than checked for. It deliberately does not clamp at zero: a
negative reading is the signal that expiry has passed. A config-listed list,
which uses time_point::max(), now reports positive infinity, because any finite
sentinel could not be told apart from the wrap this removes. -1 keeps its
existing meaning of no published list fetched.
The sweep counter told a second story it could not support. It counted every
entry the 1-minute sweep evicted, including acquisitions that had already
completed or failed and were merely still in the map. Those were counted when
they ended, so the metric buried the wasteful case in ordinary cleanup while
the runbook, the reference doc and the panel description all described only the
unfinished population. It now counts what those three already claimed.
isComplete()/isFailed() are used rather than isDone(), which is protected on
TimeoutCounter and not callable here.
jobQueue, jobStart and jobFinish take their name as std::string const&, so this
header has to provide <string> itself. The rpc hooks moved to string_view and
the include went with them, which include-cleaner reports as an error.
Resolved five files.
PerfLogImp.cpp: PerfLog now takes its method names as string_view, so the
methods map stores the map key rather than a char const*. Kept this branch's
scoped lock so the OTel recording still runs after methodsMutex is released,
and kept both the NetworkOPs and metric-macro includes.
PeerImp.h: took develop's earlier `protected:`, which also covers
processLedgerRequest, and kept recordGetObjectMetrics inside it. Dropped the
comment naming one test, since four test files now rely on that access.
TMGetObjectByHash_test.cpp: kept this branch's suite. It already runs develop's
three bound cases (limit+1, limit, limit-1) as testReplyLimit, plus the charge
and hit/miss cases. develop's extracted PeerTest.h stays, used by its four new
overlay tests.
ordering.txt: regenerated. Both perflog edges are real, to xrpl.server and to
xrpl.telemetry.
.cspell.config.yaml: kept both added words.
Resolved src/libxrpl/tx/applySteps.cpp. calculateBaseFee now returns
std::expected<XRPAmount, TER>, so invokePreclaim rejects the transaction when
the fee cannot be computed. Kept that inside this branch's preclaimTer wrapper,
so the returned error also reaches the span's ter_result attribute.
MetricsRegistry did two jobs. It owned the OTel metrics pipeline, and it
registered the observable gauges whose callbacks read live application
services. The second job is what made the whole class xrpld-tier, so the
pipeline's lifecycle -- the recording() gate and the stop() teardown that
closes a use-after-free window -- could not be unit-tested in xrpl_tests.
Split it in two:
- xrpl::telemetry::MetricsRegistry (libxrpl) owns the exporter, provider,
meter, the 16 synchronous instruments, recording(), stop(), and the
record*/increment* methods.
- xrpl::telemetry::AppMetricGauges (xrpld) owns the 19 observable gauges
and their callbacks, holding a reference to the core and to the
ServiceRegistry.
MetricMacros.h and ValidationTracker move with the core. The macros need
only recording() and meter(), both core members; the core holds a tracker
by value, and a libxrpl header cannot include one from src/.
ApplicationImp owns both objects and sequences them. The core is built in
the member-init list, so every synchronous instrument exists before any
subsystem can record one. The gauges are armed once overlay_ exists, the
last service their callbacks read. Shutdown detaches the gauge callbacks
before the core drops the provider, and each shutdown step is isolated so
a failure in one cannot skip the others.
That detach call is new. detachCallbacks() had no callers, and the flag it
sets is read by the gauge callbacks but can no longer be written by the
core, so the caller now has to make the ordering explicit.
The telemetry module links xrpl.libxrpl.core and xrpl.libxrpl.protocol
PUBLIC: ValidationTracker.h takes a LedgerIndex and MetricMacros.h takes a
ServiceRegistry, both in interfaces a consumer compiles against.
Adds a MetricsRegistry gtest that drives an enabled core with telemetry on
and pins the recording() gate, stop() leaving the registry inert, and
stop() being idempotent. The libxrpl test tree no longer depends on
xrpld.telemetry at all, and the two CMake workarounds that compiled xrpld
sources into xrpl_tests are gone.
Documentation and dashboard source links follow the code to their new
paths, split between the two classes by which one now defines each metric.
