Research & Development

The Science Behind Nika

We're not just building another CLI tool. We're researching new approaches to make AI workflows safer, more predictable, and genuinely useful for developers.

Note: This is ongoing research. Not everything described here will make it into v1.0. We're sharing our thinking openly to gather feedback and find collaborators.

Active Research

Epistemic Awareness

Making AI Know What It Knows

A framework for AI systems to understand their own knowledge boundaries, detect hallucination risks, and signal uncertainty in real-time.

Hallucination PreventionUncertainty QuantificationRuntime Signals
Exploration Phase

Antifragile Workflows

Systems That Get Stronger From Stress

Inspired by Nassim Taleb's work, we're exploring how AI workflows can become more robust through exposure to failures, not despite them.

ResilienceSelf-HealingChaos Engineering
Implemented

Scope Isolation

The 3D Context Architecture

A novel approach to managing AI agent context across three dimensions: DAG position, transcript history, and state exposure.

Context WindowsAgent IsolationSecurity
Design Phase

The SHAKA System

Smart Hybrid Advisory Kernel Agent

A runtime sidecar that observes, analyzes, and proposes optimizations without ever executing. "SHAKA proposes. NIKA disposes."

Runtime AdvisorCost OptimizationQuality Gates
Implemented

DAG Execution Engine

Deterministic Workflow Orchestration

Directed Acyclic Graphs for predictable, parallel AI workflow execution. Maximum control with automatic parallelization.

Parallel ProcessingDeterministicProduction-Ready
Active Research

Context Engineering

Token Optimization for AI Agents

Advanced context window management: observation masking, trajectory compression, and smart token allocation based on latest research.

Token OptimizationCost ReductionMemory Management
Implemented

Multi-Provider Orchestration

One Workflow, Any LLM

Seamless switching between Claude, GPT-4, Gemini, and local models. No vendor lock-in, intelligent routing, cost optimization.

Vendor AgnosticClaudeGPT-4GeminiOllama
Active Research

Bounded Rationality

AI That Knows Its Limits

Herbert Simon's satisficing principle applied to AI agents. Find good-enough solutions fast, rather than exhaustively searching for optimal ones.

Herbert SimonSatisficingCognitive LimitsBudget Constraints
Design Phase

Graceful Degradation

Workflows That Bend, Never Break

When components fail, maintain core functionality. Model fallbacks, provider switching, and automatic recovery paths.

Fallback StrategiesProvider SwitchingResilience
Implemented

Declarative Intent

Describe What, Not How

YAML-first philosophy: declare your desired outcome, let the engine handle execution. 60% less code than imperative frameworks.

YAML-FirstIntent-DrivenLow-CodeComposable
Exploration Phase

Chaos Engineering

Break Things on Purpose

Netflix-inspired resilience testing for AI workflows. Inject failures, test fallbacks, validate recovery before production breaks.

Fault InjectionResilience TestingNetflixChaos Monkey
Design Phase

Self-Healing Agents

Autonomous Error Recovery

AI workflows that detect failures and fix themselves. Runtime signals trigger automatic healing actions without human intervention.

Auto-RecoverySHAKA IntegrationAutonomousProactive
Design Phase

Observability-Driven Development

If You Can't Observe It, You Can't Debug It

Traces, spans, metrics, and structured logging for every agent. OpenTelemetry-compatible. Debug non-deterministic AI like never before.

OpenTelemetryTracesMetricsDebugging

Interested in our research? Want to contribute?