Chaos EngineeringSimplified

Build resilient systems through intelligent fault injection, automated analysis, and comprehensive insights. Our platform makes chaos engineering accessible to teams of all sizes.

What is Chaos Engineering?

Chaos Engineering is the discipline of experimenting on a system to build confidence in the system's capability to withstand turbulent conditions in production. It involves deliberately introducing failures to uncover weaknesses before they manifest as outages.

Benefits:

  • Improved system reliability
  • Faster incident response
  • Increased confidence in deployments
  • Better understanding of system behavior

Key Principles:

  • Hypothesize about steady state
  • Vary real-world events
  • Run experiments in production
  • Minimize blast radius
How Our Platform Works
Our AI-powered platform automates the entire chaos engineering workflow

1. Upload & Analyze

Upload your Kubernetes YAML files and our AI analyzes them for potential vulnerabilities and failure points using advanced pattern recognition.

2. AI Planning

Our reinforcement learning algorithms generate intelligent fault injection plans tailored to your specific infrastructure and risk tolerance.

3. Safe Execution

Execute controlled chaos experiments with built-in safety mechanisms, automated rollbacks, and real-time monitoring.

4. Insights & Reports

Get comprehensive analysis with actionable insights, performance metrics, and recommendations for improving system resilience.

Detailed Process Breakdown

Phase 1: Infrastructure Analysis

Upload your Kubernetes manifests (YAML files) containing deployments, services, pods, and configurations. Our platform performs deep analysis to identify:

  • • Resource constraints and limits
  • • Service dependencies and communication patterns
  • • Health check configurations
  • • Security contexts and permissions
  • • Network policies and exposure points

Phase 2: Vulnerability Detection

Our AI algorithms scan for common failure patterns and vulnerabilities:

High Priority
  • • Missing resource limits
  • • No health checks
  • • Single points of failure
Medium Priority
  • • Suboptimal configurations
  • • Missing redundancy
  • • Network vulnerabilities

Phase 3: Intelligent Planning

Based on the analysis, our RL-powered system generates targeted chaos experiments:

CPU/Memory Stress

Test resource limits and scaling behavior

Pod Termination

Verify restart policies and resilience

Network Faults

Test latency, packet loss, and timeouts

Phase 4: Controlled Execution

Execute experiments with built-in safety measures:

  • • Gradual rollout with blast radius control
  • • Real-time monitoring and automatic circuit breakers
  • • Instant rollback capabilities
  • • Comprehensive logging and metrics collection

Phase 5: Analysis & Insights

Generate actionable insights from experiment results:

  • • Performance impact analysis
  • • Recovery time measurements
  • • System behavior patterns
  • • Recommendations for improvements
  • • Compliance and audit reports
Technical Architecture & Safety

Core Technologies

Kubernetes
Native integration
LitmusChaos
Fault injection engine
Prometheus
Metrics collection
Python/FastAPI
Backend services
React/Next.js
Modern web interface

Safety Mechanisms

Automated rollback on anomalies
Blast radius limitation
Real-time health monitoring
Configurable safety thresholds
Audit logging and compliance
Getting Started
Ready to improve your system's resilience? Here's how to begin:

Quick Start

Upload your first YAML files and see results in under 5 minutes

Safe by Design

Built-in safety mechanisms ensure experiments don't cause outages

Continuous Learning

AI algorithms improve recommendations based on your results

Frequently Asked Questions

Is chaos engineering safe for production?

Yes, when done correctly. Our platform includes multiple safety mechanisms including blast radius control, automated rollbacks, and real-time monitoring to ensure experiments don't cause outages.

What types of systems can I test?

Currently, we support Kubernetes-based applications. Support for other container orchestrators and cloud services is planned for future releases.

How does the AI planning work?

Our reinforcement learning algorithms analyze your infrastructure patterns, previous experiment results, and industry best practices to generate targeted fault injection plans.

Can I customize the experiments?

Yes, while our AI provides intelligent defaults, you can review, modify, and approve all experiments before execution to match your specific requirements and risk tolerance.