Foundational Principles

We build foundational design principles and frameworks for AI-human interaction. Our research lab translates high-level insights into practical patterns and solutions that prioritize user control, clarity, and effective collaboration between humans and AI agents.

Foundational PrinciplesFoundational Principles

Research to Design Pipeline

A collaborative design process that transforms raw research into practical design guidance and reusable patterns.

01
Framing the inquiry
Research Framing

Define the phenomenon that you want to explore, not the feature or product.

"How might X change the way people Y in a world where Z is true?"
"How do operators build trust in agent decisions during incident response?"
  • Capture context: who, where, when, stakes.
  • Define time horizon (e.g. 5, 10, 20, years)
Deliverable
  • Research brief (scope, goals, assumptions)
  • A short intent statement: "This inquiry explores... in order to inform design decisions about... in tomorrow's world."
02
Research: Mapping the Present & Emerging Signals
Field input / Ground truth

Build a grounded understanding of what's already happening and what's starting to happen.

  • Desk research: academic papers, industry reports, patents, standards, policy, expert interviews.
  • Foresight inputs: horizon scanning, weak signals, trends, wildcards, tensions
Deliverable
  • Evidence map:
    • Current practices & pain points
    • Emerging technologies / norms
  • Insight clusters: 5-8 thematic clusters (e.g., "delegated decisions," "opacity of automation," "new forms of social risk")
03
Synthesis: From Signals to Principles
Conceptual modeling

Transform raw findings into conceptual frameworks and actionable design principles.

  • Identify recurring tensions and design trade-offs
  • Draft principle statements grounded in evidence
  • Map principles to interaction patterns and heuristics
Deliverable
  • Principle cards with rationale, applicability, and known limitations
  • Pattern mapping matrix (principle → pattern → component)
04
Test the Bridge: Design Heuristics & applicable methods
Validation

Validate each pattern through heuristic evaluation, usability testing, and expert review to ensure the bridge between research and design guidance is sound.

  • Heuristic walkthroughs against real agent workflows
  • Expert panel review with domain specialists
  • Gap analysis: does the pattern address the original insight?
Deliverable
  • Evaluation report with findings and recommendations
  • Refined patterns with annotated revisions
05
Prototype & Iterate the validation
Implementation testing

Patterns are implemented in interactive prototypes and tested with real users, iterating until they meet our quality bar for clarity, effectiveness, and adoptability.

  • Build interactive prototypes embodying the pattern
  • Run usability sessions with target users
  • Iterate on both design and documentation
Deliverable
  • Validated prototype with test findings
  • Final pattern specification ready for documentation
06
Update Documentation & Contribute
Publication

Validated patterns are published to the Hax pattern library with full documentation, code examples, and usage guidelines. The library evolves as new research emerges.

  • Write pattern documentation with rationale and examples
  • Publish to the Hax pattern library
  • Tag with relevant themes for discoverability
Deliverable
  • Published pattern with code samples and usage guidelines
  • Changelog entry and contribution record

Case Studies

Real-world applications of our foundational principles in enterprise and research contexts.

Case Study 01

Agent Transparency in Change Impact Assessment, Verification and Testing

InfrastructureChange management

Building transparent AI systems that assess infrastructure changes, verify modifications, conduct automated testing, and manage approval workflows — all while maintaining clear visibility into agent decision-making and human oversight.

Problem

Infrastructure changes carry high risk, but manual impact assessment, testing, and approval processes create bottlenecks. Organizations struggle to balance automation speed with safety and accountability, often lacking visibility into what AI agents are actually evaluating and why certain changes get flagged.

Design principles applied

TraceabilityControlClarity

Case Study 02

Designing for AI Transparency in Enterprise Agentic Composites

Multi-AgentEnterprise

When multiple agents collaborate within a composite system, understanding who did what — and why — becomes critical. This case study explores transparency design patterns for multi-agent workflows in enterprise settings.

Problem

Multi-agent systems create opaque decision chains where audit trails, decision attribution, and user-facing explanations must maintain clarity without overwhelming cognitive load. Users lose trust when they can't trace outcomes to specific agents.

Design principles applied

TransparencyExplainabilityAudit

Case Study 03

Multi-Agent Cascades: Guardrails for Chain Reactions

CascadesSafety

When agents trigger other agents, cascading effects can quickly move beyond human oversight. This study maps the interaction patterns of multi-agent cascades and proposes design guardrails to keep humans meaningfully in the loop.

Problem

Cascading agent actions can amplify errors, create unintended consequences, and move beyond human oversight. Without circuit breakers, approval gates, and progressive disclosure, organizations risk losing control over automated workflows.

Design principles applied

Human-in-the-LoopGuardrailsControl