TraceLoop

Platform

One pipeline. Every signal. Correlated by design.

Most observability stacks are three products glued together with hope. TraceLoop ingests logs, metrics and traces into a single store with one clock, one query language and one identity model — so correlation is a property of the system, not a feature request.

Capabilities

Eight pillars, one platform

Each pillar is production-grade on its own. Together they answer the only question that matters at 3am: what changed, what broke, and what do we do next?

Application Performance

Golden signals, automatically

TraceLoop derives latency, traffic, error and saturation metrics for every endpoint directly from trace data. Service dashboards exist before you write a single query.

  • Per-endpoint p50/p95/p99 with deploy markers overlaid on every chart
  • Error grouping that clusters stack traces into issues, with trace exemplars attached
  • Saturation signals linked to the exact pods and queries causing back-pressure
  • Continuous profiling hooks to see which line of code the latency lives on

checkout p99

142ms

▼ 8ms

auth p99

37ms

▼ 3ms

payments p99

58ms

▲ 4ms

search p99

203ms

▼ 31ms

service map

checkout-platform · dependency topology · live

2 DEGRADED
edge-lb api-gateway checkout-svc auth-svc payments-svc postgres-01 redis-cache kafka-events

Infrastructure Monitoring

From bare metal to serverless, one topology

TraceLoop maps every workload — VMs, Kubernetes pods, Lambda-style functions, managed databases — and keeps the map current as your autoscaler churns through instances.

  • Auto-discovered topology that follows workloads across nodes and regions
  • CPU, memory, disk and network saturation with noisy-neighbour detection
  • Kubernetes-native views: deployments, replicas, restarts, OOM kills, evictions
  • Cost attribution per service, team and environment from cloud billing feeds

How It Works

From zero to correlated in four steps

No professional-services engagement, no six-week onboarding. Most teams are investigating their first incident on TraceLoop the same afternoon.

01

Point an SDK or collector at TraceLoop

Use our agent, or stay pure OpenTelemetry. One endpoint, one token, mTLS by default. First spans appear in under five minutes.

02

Topology and dashboards build themselves

TraceLoop infers the service map, golden signals and dependency health from live traffic. No YAML, no dashboard JSON, no config sprint.

03

Set SLOs and let alerts earn trust

Define objectives on the SLIs we detect, tune burn-rate windows, and route alerts with the traces, logs and deploys already attached.

04

Investigate on one timeline

When something breaks, the incident view has already correlated the deploy, the anomaly, the traces and the logs. You just decide the fix.

ingest volume

GB/day · last 14 days · after adaptive sampling

d-14d-10d-5today

adaptive sampling

traces kept by policy · last 24h

ACTIVE
errors & anomalies100%
slow (> 2× p95)100%
healthy baseline traffic2.5%

Every interesting trace kept; storage down 62% versus head sampling.

Security & residency

Data stays where you say it stays: UK and EU regions, customer-managed encryption keys, field-level redaction of PII before storage, immutable audit trails and SSO/SCIM for every seat. ISO 27001 certified, SOC 2 Type II audited, GDPR by design.

Predictable pricing model

No per-host penalties for autoscaling, no per-seat tax on read-only stakeholders. You pay for retained telemetry and the queries you run — and adaptive sampling usually shrinks that bill by 40–70% before you negotiate anything.

Ready to collapse eight tools into one?

Explore the platform in depth, read the docs, or talk to an engineer who has actually carried the pager.