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Beta: LLM Observability is now GA

For Site Reliability Engineers

Hit your SLOs.
Without burning out.

Automated Service Level Objectives, error budget tracking, and predictive multi-window burn-rate alerts: computed directly from your production traces and telemetry.

topology.aiaxoniq.net/sre/architecture-flow
OTLP 1.3 · ClickHouse 24.8
Real-Time Observability Fabric(Site Reliability Engineers Deployment Profile)
In-Flight: 142,800 evt/sKernel Overhead: < 0.28%Latency: 4.2ms p99
1. Telemetry Sources100% OTel
Kubernetes & eBPF48 Nodes

Zero-overhead kernel probes for TCP, HTTP/2, and DNS latency without application restarts.

eBPF socket tracing · 0.2% CPU
Services & Envoy MeshOTLP/gRPC

Automatic span injection with W3C baggage propagation across polyglot microservice runtimes.

120+ active services · W3C TraceContext
LLM Agents & MCPGenAI OTel

Tracks token consumption, prompt drift, model invocation latency, and tool execution trees.

Claude Code / Cursor tool traces
2. Unified Engine CoreClickHouse 24.8
Columnar Storage Engine12.4x zstd

Single ClickHouse backend for logs, traces, metrics, and profiles with zero storage silos.

Compression: 12.4:1Rollups: Materialized Views
Trace-to-Log Correlator< 8ms P99

Indexes span IDs directly into log metadata, eliminating manual grep during production outages.

Join Latency: 4.8msIndex: MinMax Skipping
Statistical ML & AnomalyProphet + Z-Score

Continuous IQR & seasonal forecasting to alert on statistical anomalies before customers report errors.

Precision: 98.4%False Alarms: < 0.5%
3. Autonomous ActionClosed-Loop
Instant Incident RCARAG Runbooks

Correlates telemetry with git commit history and engineering runbooks to draft instant post-mortems.

Exact code commit pinpointed
Incident DispatcherMulti-Target

Routes rich incident cards with trace IDs, flamegraphs, and error frequencies directly into Slack and PagerDuty.

Slack, PagerDuty, OpsGenie, Webhook
Autonomous RemediationSealed Write

Human-confirmed operator actions: traffic shedding, canister isolation, and canary rollbacks.

Zero unsupervised production writes
Topology Inspector:ClickHouse 24.8 Columnar Storage Cluster
Click any node above to inspect pipeline telemetry specs
Architecture: Site Reliability Engineers Production Topology
Zero Vendor Lock-In·Standard on all aiAxonIQ plans

Problem & Solution

The challenges every site reliability engineers faces

And how aiAxonIQ solves them with unified telemetry.

✕
The Problem

SLO Blindness & Static Thresholds

Service Level Objectives defined in static spreadsheets or forgotten wiki pages with zero real-time visibility into error budget consumption, leaving teams blindsided when monthly SLAs are breached.

aiAxonIQ Solution

Real-time multi-window, multi-burn-rate SLO alerting computed directly from production traces and Prometheus metrics. Receive proactive notifications when 2% or 5% of error budgets burn before customer impact occurs.

Explore SLOs & Error Budgets
✕
The Problem

Chaotic Post-Mortem Reconstruction

Reconstructing the exact sequence of events during high-severity incidents requires days of combing through disjointed Slack channels, Grafana screenshots, and ephemeral console logs.

aiAxonIQ Solution

Automated AI incident summaries assemble complete timeline reconstructions, correlating latency spikes, deployment rollouts, and anomaly clusters into an exportable root-cause dossier.

Explore AI Insights
✕
The Problem

Unsustainable On-Call Load

Repeated non-actionable pages and flaky threshold alerts trigger severe on-call fatigue, causing critical production degradations to be ignored or delayed in triage.

aiAxonIQ Solution

Z-score anomaly detection, rolling baseline silences, and flap damping cut false alarms by up to 85%, ensuring that every page represents a genuine threat to service reliability.

Explore Alerting

Execution Flow

How it works in practice

Your improved workflow from ingestion to resolution, step by step.

1
SLO Burn Alert
Multi-window burn-rate algorithm catches fast and slow budget burns before SLA breach.
2
Context Assembled
Correlated traces, anomaly baselines, and deployment markers grouped automatically.
3
Root Cause Pinpointed
Identify downstream database locks, dependency timeouts, or container memory throttling.
4
Budget Restored
Real-time SLO health gauges verify service stabilization and error budget recovery.

Why it works

Reliability Engineering You Can Quantify

Modern distributed architectures cannot rely on simplistic uptime pings. aiAxonIQ continuously computes availability, latency percentiles (p50, p95, p99), and custom query SLIs over 7, 14, 28, and 90-day rolling evaluation periods. Our AI engine can even draft recommended SLO targets based on historical baseline telemetry, bridging the gap between business agreements and technical metrics.

Multi-window multi-burn-rate alertingAI-assisted SLO generation from baseline history7, 14, 28, and 90-day rolling evaluation windowsAutomated postmortem timeline exports