GPU Observability Platform — Now in Early Access

We explain why your
LLM is slow and expensive

Vendor-neutral AI runtime intelligence that correlates GPU silicon diagnostics with LLM inference performance. From DCGM symptoms to root causes — in seconds, not hours.

ceptua-agent — gpu-node-07
$ ceptua diagnose --cluster prod-inference-01
[agent] Collecting GPU telemetry via DCGM/NVML...
[agent] Instrumenting vLLM inference pipeline...
⚠ ALERT Token latency P99 spike: 2.4s → 8.7s on GPU:3
[root-cause] Correlating silicon metrics → kernel execution → token latency
✗ ROOT CAUSE GPU:3 HBM thermal throttle (93°C) → SM clock drop 40% → KV-cache eviction → recompute overhead
✓ RECOMMENDATION Redistribute KV-cache shards to GPU:0,1,2. Estimated recovery: <200ms P99

GPU monitoring tells you what.
Not why.

Existing tools show you utilization percentages and temperature readings. They can't tell you why your inference costs doubled overnight or why token latency spiked for 12 minutes at 3 AM.

🔍

Symptoms Without Diagnosis

DCGM tells you GPU utilization hit 98%. It doesn't tell you whether that's healthy saturation or a memory thrashing loop burning cycles without producing tokens.

🔗

Disconnected Telemetry Silos

GPU metrics live in Prometheus. Inference logs live in your application stack. Cost data lives in spreadsheets. Nobody connects silicon behavior to business outcomes.

🔒

Cloud-Locked Tooling

Datadog and cloud-native monitoring don't deploy to sovereign infrastructure, on-premise GPU clusters, or air-gapped environments where your most sensitive workloads run.

The correlation layer
nobody else built

Ceptua AI connects four layers that have never been unified in a single platform — from silicon physics to business impact.

When your LLM slows down, the problem could be anywhere: a thermal throttle on one GPU die, a KV-cache eviction pattern in your inference engine, a misconfigured batch scheduler, or a memory bandwidth bottleneck. Ceptua traces the causal chain across all four layers to identify the actual root cause — and tells you exactly what to fix.

GPU Silicon  —  NVML / DCGM / amdsmi Layer 1
Kernel Execution  —  SM Clocks / Memory BW Layer 2
Inference Engine  —  vLLM / Triton / TGI Layer 3
Business Outcome  —  $/token · P99 Latency Layer 4

Built for GPU operators who
need answers, not dashboards

Real-Time GPU Agent

Lightweight Python agent collects 50+ GPU metrics via DCGM and NVML at sub-second intervals. Deployed as a sidecar with zero inference overhead.

NVIDIA
🧠

LLM SDK Instrumentation

Drop-in SDK hooks into vLLM and Triton inference pipelines to capture token generation timing, KV-cache utilization, batch scheduling, and request queuing.

All Engines
🔬

Heuristic Root Cause Engine

Pattern-matching engine correlates GPU silicon events with inference anomalies to surface actionable root causes — not just alerts.

Core
📊

Custom Analytics Dashboard

Purpose-built React dashboard with correlated timelines, GPU topology views, and cost attribution. No Grafana dependency.

Core
🔔

Intelligent Alerting

Threshold and pattern-based alerts with context. "GPU:3 throttling → 40% latency increase" beats "GPU temperature high."

Core
🏗️

Multi-Vendor Roadmap

Hardware Abstraction Layer designed for vendor-neutral observability. NVIDIA today, AMD MI300X on the roadmap — same platform, same insights.

Coming Soon

Designed for sovereign &
on-premise deployment

Every component runs inside your perimeter. No data leaves your infrastructure. No cloud callbacks. No vendor lock-in.

◆ NVIDIA GPU (DCGM / NVML)
◆ AMD GPU (amdsmi / RDC) — planned
↓   GPU telemetry stream   ↓
⬡ Ceptua GPU Agent (Python)
⬡ LLM SDK (vLLM · Triton)
↓   Redis Streams   ↓
▣ FastAPI Backend
▣ TimescaleDB (gpu_metrics_raw)
↓   Correlation   ↓
★ Root Cause Engine (Heuristic)
★ Alert Evaluator (Isolated Process)
↓   Presentation   ↓
● React Dashboard (Next.js + Recharts)
● REST API + Webhook Integrations

Runs where your GPUs run

Purpose-built for sovereign cloud, on-premise GPU clusters, and air-gapped environments across APAC and the Middle East.

🏛️

Sovereign Cloud

Deploys within national data sovereignty boundaries. No external telemetry egress.

  • Full data residency compliance
  • Air-gap capable architecture
  • Tenant isolation from day one
🏗️

On-Premise GPU Clusters

Helm chart or Docker Compose deployment on bare-metal and private cloud GPU infrastructure.

  • NVIDIA DGX / HGX compatible
  • No internet dependency
  • Sub-5-minute agent deployment
🔐

Security-First Design

Built with enterprise security requirements as deployment prerequisites, not afterthoughts.

  • API key authentication + RBAC
  • tenant_id isolation on all data paths
  • SOC 2 readiness roadmap
📡

Shadow Mode Deployment

Run alongside existing DCGM installations with zero interference. Validate before committing.

  • Read-only GPU telemetry collection
  • Side-by-side with existing monitoring
  • Prove value before production cutover
50+
GPU Metrics Collected
<1s
Telemetry Interval
0%
Inference Overhead
4
Correlation Layers

Sovereign GPU operators across
APAC and the Middle East

Stop guessing.
Start diagnosing.

We're onboarding select GPU operators for shadow-mode deployment. Run Ceptua alongside your existing DCGM stack — zero risk, full visibility.