01. No job history
If a run fails overnight, there is no single timeline. AI scientists start each morning reconstructing events from logs and chat threads.
See every GPU, every workload, every failure — across all your clusters. Chamber diagnoses issues and helps resolve them in seconds, so your ML team moves faster with fewer blockers.
Built by engineers and product leads from
Advanced search and filtering across all workloads
| Name | Status | Class | Project | User | GPU | Count | Submitted | Cost | |
|---|---|---|---|---|---|---|---|---|---|
| llama-ft-v2 | RUNNING | RESERVED | LLM Research | H100 SXM | 64 | 2/27/2026 | $2,340 | ||
| bge-embed-109 | RUNNING | ELASTIC | Embeddings | H100 SXM | 8 | 2/27/2026 | $412 | ||
| vit-pretrain-l16 | RUNNING | RESERVED | Vision | H100 SXM | 16 | 2/27/2026 | $890 | ||
| whisper-ft-v3 | RUNNING | ELASTIC | Speech | H100 SXM | 4 | 2/27/2026 | $156 | ||
| codegen-sft-13b | RUNNING | RESERVED | Code Gen | H100 SXM | 32 | 2/26/2026 | $4,120 | ||
| clip-align-xl | QUEUED | ELASTIC | Multimodal | H100 SXM | 32 | 2/27/2026 | — | ||
| reward-model-v4 | QUEUED | ELASTIC | RLHF | H100 SXM | 8 | 2/27/2026 | — | ||
| reward-train | FAILEDWhy? | ELASTIC | RLHF | H100 SXM | 8 | 2/26/2026 | $86 | ||
| dpo-align-7b | FAILED | RESERVED | Alignment | H100 SXM | 16 | 2/24/2026 | $1,240 | ||
| gpt-neo-eval | COMPLETED | ELASTIC | Evaluation | H100 SXM | 4 | 2/26/2026 | $58 | ||
| t5-summary-v2 | COMPLETED | ELASTIC | Summarization | H100 SXM | 8 | 2/26/2026 | $445 | ||
| bert-cls-ft | COMPLETED | RESERVED | NLP Prod | H100 SXM | 8 | 2/25/2026 | $310 | ||
| mistral-merge | COMPLETED | RESERVED | LLM Research | H100 SXM | 4 | 2/24/2026 | $124 |
The GPU Debugging Tax
If a run fails overnight, there is no single timeline. AI scientists start each morning reconstructing events from logs and chat threads.
Logs, metrics, and events live in different tools. You lose hours proving whether slowdown is data, model code, or infrastructure.
Experiment tracking shows model behavior, infra tools show cluster behavior. AI scientists cannot quickly correlate both when throughput drops.
How Chamber Works
Chamber is AI-native GPU workload observability built for experiment-heavy ML teams. Auto-discover resources, explain failures in plain English, and help AI scientists move from broken runs to fixes quickly.
Auto-discover every GPU and workload across your clusters so researchers can find any run instantly, across teams and environments.
GPUs
256
Active Jobs
89
Clusters
4
AI-powered analysis explains failures, queue delays, and bottlenecks in plain English with technical context.
OOM on gpu-23 caused by memory fragmentation during concurrent data loading. Prefetch factor of 4 exceeds available device memory under current batch size.
Recommended Fix
Reduce prefetch_factor from 4 → 2 and set pin_memory=False
AI-powered analysis explains failures, infrastructure events, and performance bottlenecks in plain English.
Before Chamber
47%
avg utilization
With Chamber
89%
avg utilization
AI-powered analysis explains failures, infrastructure events, and performance bottlenecks in plain English.
Feature Walkthrough
01.Workload Explorer
Automatically discover workloads and keep full history across clusters. Filter by status, user, GPU type, framework, and AI-detected bottlenecks.

02.AI Root Cause Analysis
Analyze events, pod data, metrics, and logs in one path. Get root-cause summaries and prioritized fix recommendations for the run that failed.

03.Chambie AI Agent
Use natural language in UI, Slack, or CLI to find failed jobs, queue bottlenecks, and utilization patterns with context already applied.

04.Automatic Dashboards
Track queue depths, wait times, failure trends, and utilization so AI scientists and MLEs can see where experimentation is getting blocked.

05.Notifications
Slack alerts, scheduled reports, incident workflows, and programmable API/CLI/Python SDK integrations for AI infra operations.

06.Cost Forecasting
Break down spend by cluster, team, and workload to remove waste from failed or stalled training and reinvest in productive experiments.

07.Advanced Orchestration
Ready for more? Run more workloads across every cluster on every cloud, Chamber's advanced Orchestration and infrastructure management. Optimize your usage to get the most ROI on every GPU dollar spent.

Feature Walkthrough

Workload Explorer
Automatically discover workloads and keep full history across clusters. Filter by status, user, GPU type, framework, and AI-detected bottlenecks.
How It Works
One Helm command deploys our agent to your K8s cluster to begin automatically discovering resources, workloads, and teams — works with any Kubernetes setup.
$ helm install chamber chamber/agent \
--set cluster=prod-east
✓ Agent deployed. Discovering resources...
GPUs: 128 | Teams: 6 | Workloads: 43No configuration, no instrumentation. Start searching your workload history immediately. Monitor team, cluster, and org level dashboards to understand where GPU capacity is being used, utilization, and cost using out-of-the-box dashboards.
GPU Utilization
87%
Active Jobs
43
Queue Depth
12
Chamber’s AI begins analyzing your workloads, detecting bottlenecks, and delivering insights you’d otherwise spend hours finding manually.
train-llm-742 failed: GPU memory fragmentation
OOM restart loop detected on gpu-23. Memory fragmentation caused by concurrent data loader allocation patterns. Recommended fix: reduce prefetch factor from 4 to 2.
Run workloads wherever there’s available capacity — across teams, clusters, and cloud providers. More utilization, less waste.
3 queued → rerouting to idle capacity
1 queued → rerouting to idle capacity
Who It's For
AI Researchers & MLEs
Never miss a failure. Understand root causes in seconds. Correlate model performance with infrastructure health.
Platform Engineers
Auto-discovery means zero instrumentation. Give your researchers self-serve visibility without custom tooling.
Engineering Managers
Team-level metrics, queue depths, and bottleneck detection so you can allocate resources where they’re needed.
Executives & Finance
Cost tracking, usage forecasting, and executive dashboards across your entire GPU fleet.
FAQ
Management software improves ROI through better workload placement and cleanup. Engineers get GPU availability when they need it, while decision-makers gain visibility into cluster usage and make informed capacity decisions.
By minimizing idle time through intelligent workload placement and improving efficiency. High-priority jobs run immediately while lower-priority work automatically resumes when resources free up.
Minutes. One Helm command deploys the Chamber agent to your Kubernetes cluster. It automatically discovers GPUs, workloads, and teams with zero configuration or instrumentation required. Dashboards populate immediately.
Chamber's AI analyzes logs, pod events, and metrics to explain why a job failed or slowed down. Instead of manually correlating across tools, you get a plain-English summary with the root cause and recommended fix.
Chambie is Chamber's conversational AI assistant. Ask questions in natural language via the UI, Slack, or CLI to find failed jobs, identify queue bottlenecks, check utilization patterns, and get actionable answers with full infrastructure context.
Yes. Chamber correlates infrastructure telemetry with experiment tracking data so you can see when throughput drops or loss plateaus are caused by GPU issues, memory pressure, or infrastructure events rather than model problems.
Yes. Chamber supports multi-cloud and multi-cluster deployments. Workloads can be routed to available capacity across your entire fleet, whether on-prem, AWS, GCP, Azure, or hybrid environments.
Chamber works with any Kubernetes-based GPU cluster, including on-prem, cloud (AWS, GCP, Azure), and hybrid setups. We support NVIDIA GPUs across all major architectures.
AI researchers get instant failure explanations and workload history. Platform engineers get auto-discovery without custom tooling. Engineering managers see team-level bottlenecks and queue depths. Executives get cost tracking and utilization dashboards across the fleet.
Chamber integrates with Slack, email, and custom webhooks for alerts, scheduled reports, and incident workflows. It also provides a programmable API, CLI, and Python SDK for automation.
Yes. Chamber runs within your infrastructure. We only collect anonymized telemetry—your models, datasets, and code never leave your environment.
See how Chamber helps your researchers and engineers spend more time shipping.