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Beta: LLM Observability is now GA
MODERN OBSERVABILITY & SECURITY · OPENTELEMETRY NATIVE

See inside any stack.
Full-stack observability.

See inside any stack, any app, at any scale, anywhere. Monitor metrics, traces, and logs across your entire infrastructure. Built on OpenTelemetry and Prometheus. No vendor lock-in, ever.

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aiAxonIQ SentinelLIVE RADAR

MODE: KERNEL SOCKET DISCOVERY

100% Full-Stack
aiAxonIQ Sentinel Owl
eBPF
AI RCA
RUM
Kernel Vision

Autonomous Sentinel

Continuously observing kernel sockets, client sessions, message streams, and agent tools.

axonIQagent · axonIQzerocode (eBPF Core)

Zero-Code Linux Kernel Observability

Kernel-level auto-discovery of microservices, TCP/UDP sockets, gRPC calls, and database transactions with zero application re-compilation.

CPU Overhead< 0.3%
Code Changes0 lines
Kernel Probe Latency0.28ms
Live Telemetry Inspector
Target: checkout-service:8080 -> postgres:5432
10:04:12.019PASS[kprobe/sys_enter_connect]Intercepted TCP socket 10.244.2.14:8080 -> 10.244.3.8:5432
10:04:12.022INFO[axonIQzerocode]Auto-synthesized OTLP span: "SELECT * FROM orders WHERE id = $1"
10:04:12.025PASS[topology/mesh]Postgres service node registered in dynamic dependency graph
Full OpenTelemetry & Prometheus compatibility
Built in the open, on standards and infrastructure you already trust
OpenTelemetryClickHouseApache KafkaPrometheusOpenSearchPostgreSQLRedisQdrantDockerKubernetesOpenLLMetrygRPCOpenTelemetryClickHouseApache KafkaPrometheusOpenSearchPostgreSQLRedisQdrantDockerKubernetesOpenLLMetrygRPC

The problem

The bill keeps growing.
The outage still takes all night.

Most teams did not choose a fragmented stack. It accumulated, a tool per signal, a vendor per contract, an agent per host, and every one of them is now load-bearing.

Every incident starts with a tab hunt

Metrics in one tool, traces in another, logs in a third. Correlating them is manual, it happens at 3am, and it is the part of an outage that takes the longest.

The bill scales faster than the traffic

Per-host and per-seat pricing turns growth into a procurement conversation, and proprietary agents mean the instrumentation you paid to write does not leave with you.

AI spend is invisible until the invoice

Model calls are the fastest-growing line item in most engineering budgets and the least instrumented. A runaway prompt is discovered by finance, not by monitoring.

The answer

One pipeline. Every signal. No black boxes.

Logs, metrics, traces and LLM calls travel the same durable path into the same store, so correlating them is a query rather than a project. Every layer is a technology you can read about, benchmark, and run yourself.

Instrument & IngestOTLP + Prometheus + axonIQzerocode

HTTP, gRPC, remote-write and zero-code eBPF tracing with <1% CPU overhead. Instrument with open SDKs or instant kernel-level capture.

Transport & CollectionApache Kafka + axonIQagent

One durable, replayable pipeline for every signal, paired with an intelligent edge collector for hosts and AI runtimes.

StoreClickHouse + OpenSearch

Columnar storage with materialized-view rollups; BM25 full-text search over logs.

Run itCloud or your cluster

The same stack, self-hosted with Docker Compose or Kubernetes whenever you want it.

Correlation is built in

A trace links to its own logs and metrics because they arrived together, not because someone configured a join.

Leaving costs you nothing

Open SDKs in, open formats out. The instrumentation you write here keeps working anywhere it is pointed.

Production Architecture in Action

Engineered for the hardest observability challenges

Explore how aiAxonIQ combines zero-code eBPF kernel instrumentation, streaming Kafka pipelines, real user monitoring, and Model Context Protocol (MCP) agents to defend reliability.

aiAxonIQ Unified Control Plane

Closed-Loop Telemetry & Autonomous Agent Action

Synchronized telemetry pipeline connecting kernel-level eBPF probes, streaming message buffers, ClickHouse analytics, and AI agent execution.

3.2M/s
Event Velocity
Ingested per node
< 0.3%
Kernel Overhead
eBPF CPU ceiling
25 MCP
Agent Tools
Model Context Protocol
LIVE TELEMETRY STREAM
PASS
ACTOR:Master Observability Core
ACTION:synchronize_telemetry_lifecycle
TARGET:k8s + ebpf + kafka + clickhouse + mcp
LATENCY:11.4ms
Estate-wide telemetry synchronized. Zero lost spans, eBPF probes verified safe, 25 MCP agent tools armed.

The product

Three jobs, done properly

Tracing, log search and AI spend are where platforms are usually slow, expensive or missing, and under them, eleven surfaces reading the same data.

Explore the full platform

Kernel telemetry with eBPF zero-code

Capture HTTP, gRPC, database, and Redis socket calls directly from the Linux kernel using safe eBPF kprobes. Zero SDK modifications, zero container restarts, and sub-0.3% CPU overhead.

Explore axonIQzerocode

Keep every trace, not a sample

Store spans in ClickHouse columnar storage with materialized-view rollups, so dashboards stay fast over high-volume telemetry, and the trace you need at 3am is still there, fully correlated with its logs.

Explore APM & Tracing

Real user monitoring & Web Vitals

Measure Core Web Vitals (LCP, INP, CLS) across actual browser sessions. Session replay with client-side text masking correlates user UI hiccups directly to backend distributed spans.

Explore RUM

AI insights & MCP agent tools

Connect Claude Code, Cursor, and autonomous engineering agents directly to your telemetry plane over the Model Context Protocol (2026-07-28 spec) with 25 secure, cost-guarded tools.

Explore MCP Server

Real-time metric pipelines

Ship metrics over OTLP or Prometheus remote-write into ClickHouse columnar storage. Materialized-view rollups keep aggregations fast over high-volume telemetry.

Learn more
  • Prometheus remote_write compatible ingestion
  • ClickHouse storage with 1-minute and 1-hour rollups
  • Multi-dimensional labels and aggregations
  • Kafka-backed pipeline: durable and replayable
CPU Utilization
All nodes · Last 1 hour
node-01node-02
Avg
62%
Max
90%
P95
85%

AI that shows its working

It tells you why, not just that

Detection is the easy half. The expensive part of an incident is the twenty minutes spent deciding which of forty graphs mattered, so that is the part the models work on.

Root cause, ranked and evidenced

Signals that moved together at onset are correlated into candidate causes, ordered by confidence, each one linked back to the traces, logs and metrics it came from. Never a single unexplained verdict.

Anomalies found statistically

Z-score and IQR detectors over your own baselines, plus Prophet forecasting for capacity planning. Methods you can name, argue with, and tune.

Ask in English, get SQL

Natural-language querying compiles to a query you can read before it runs, and retrieval over your own runbooks suggests the next step rather than inventing one.

Root cause analysis
INC-4182 · checkout error rate · 3 signals correlated
Analysed 12s ago
Connection pool exhaustion, payments-db86%
pool_wait_ms p99 ×147 CrashLoopBackOffdeploy 4m before onset
Upstream provider latency41%
charge_latency p95 ×2.1
Node memory pressure18%
ip-10-0-3-08 at 88%

Ranked hypotheses with the signals behind each. Every candidate links back to the traces, logs and metrics it was derived from.

Integrations

It already works with your stack

If it speaks OpenTelemetry or Prometheus remote-write, it works, every major language, framework and cloud, with no proprietary agent to install.

Explore all integrations
OpenTelemetry
Prometheus
Grafana Agent
Kubernetes
Docker
AWS
GCP
Node.js
Python
Java
Go
.NET
PostgreSQL
Redis
Kafka

For the enterprise

Built multi-tenant. Not retrofitted.

Isolation, roles and audit trails are properties of the architecture rather than a tier that unlocks them. The controls a security review asks about are the same ones the free plan runs on.

Certifications, sub-processors and the current security posture are documented rather than badged.

Tenant isolation at ingest

Separation is enforced where data arrives, not filtered at query time. Per-tenant rate limits included.

RBAC with four roles

Owner, admin, editor and viewer, with team invites. SSO and SAML on the Enterprise plan.

Immutable audit log

Every tenant action recorded append-only, so a reliability or security review has something to read.

Runs in your own cluster

The same stack via Docker Compose or Kubernetes. Data residency becomes a deployment choice, not a negotiation.

For developers

Your first trace, in about two minutes

Open standards all the way down. Instrument with the OpenTelemetry SDK you would use anyway, point it at aiAxonIQ, and keep the instrumentation if you ever leave.

Install

npm install @opentelemetry/api @opentelemetry/auto-instrumentations-node

Configure

export OTEL_EXPORTER_OTLP_ENDPOINT="https://app.aiaxoniq.com/otlp"
export OTEL_EXPORTER_OTLP_HEADERS="x-license-key=YOUR_LICENSE_KEY"
export OTEL_SERVICE_NAME="my-service"

Run

node --require @opentelemetry/auto-instrumentations-node/register your-app.js

It is --require rather than an import at the top of your entry file: the hook has to install instrumentation before your application modules resolve. An import runs after the modules it needs to patch are already loaded, and produces an app that starts cleanly and emits nothing.

Full instrumentation guides, ingest endpoints and troubleshooting live in the SDK documentation.