HOPN Lab 路 research agenda

Trustworthy AI under constraint.

How do we build AI systems that organizations can trust, audit and afford to run themselves?

HOPN Lab studies AI systems that stay reliable, private and verifiable under real-world constraints: limited compute, no cloud access, sensitive data, regulated domains and physical safety. Our work is organized as three layers (Route, Ground, Assure), one foundation program and one physical-world track.

This page describes our research agenda. Status labels show what is planned, in progress or complete.

Why this work

Constraint is the research question

Frontier labs optimize capability at scale. Few groups own the question of verified deployment under constraint.

Europe makes constraint a requirement

GDPR, the EU AI Act and data sovereignty make constraint a requirement, not a weakness.

Protocols and relationships are public

We publish our protocols and raw logs, and we disclose our commercial relationships.

Interactive walkthrough

Five short pictures. No scores. Click a step, then try the live Graph RAG demo.

ConceptualHOPN Lab architectureFoundation: private and efficient AIRouteCompose modelsGroundProve the sourceAssureCheck quality firstPhysicalSame stack, real worldClick a block to open that program
View as table
Architecture blocks
ProgramQuestionDirection
RouteHow do we compose many models and providers behind one reliable interface?Policy-driven routing across cost, latency, privacy and quality
GroundWhat does the system know, and how do we prove where it came from?Provenance-first knowledge graphs
AssureHow do we know each output is good enough, at runtime, before it ships?Quality orchestration with contracts and service levels
FoundationWhat quality per watt and per euro is possible when data never leaves the organization?Private and efficient AI
PhysicalHow do Route, Ground and Assure apply where errors have physical consequences?Verified physical autonomy

Five programs

Each page is one question, the planned work, and the metrics we will report later.

In progress

Route 路 Track A

How do we compose many models and providers behind one reliable interface?

Open Route

In progress

Ground 路 Track B

What does the system know, and how do we prove where it came from?

Open Ground

Planned

Assure 路 Track C

How do we know each output is good enough, at runtime, before it ships?

Open Assure

In progress

Foundation 路 Track F

What quality per watt and per euro is possible when data never leaves the organization?

Open Foundation

Planned

Physical 路 Track D

How do Route, Ground and Assure apply where errors have physical consequences?

Open Physical

Projects mapped to programs

Public project names only. Physical-track hardware names stay private until positioning is set.

Project to program mapping
ProjectRouteGroundAssureFoundationPhysicalRole
AI-PassYesNoNoNoNoInfrastructure layer for the other tracks
TEAOAYesNoNoNoNoTrust model for orchestration
SLDE-AFT and offline LoRA extractionNoYesNoYesNoCorroborated extraction feeding the knowledge graph
SemvecNoYesNoNoNoTemporal and versioned memory
ServAlignNoNoYesNoNoConstraints and policy as machine-checkable objects
Invoice automationYesYesYesNoNoShared testbed
SovraNoYesNoYesNoCompute-spectrum efficiency, private RAG, graph pruning

Twelve-month plan

AI-Pass submission
In progress
Quality orchestration charter and shared invoice benchmark
Planned
Simulation baseline with fault injection (ROS 2, Gazebo)
Planned
Graph-pruning study
Planned
First quality-routing results
Planned
View as table
Roadmap
ItemProgramMonthsStatus
AI-Pass submissionroute0 to 2In progress
Quality orchestration charter and shared invoice benchmarkassure0 to 3Planned
Simulation baseline with fault injection (ROS 2, Gazebo)physical0 to 3Planned
Graph-pruning studyground3 to 6Planned
First quality-routing resultsassure3 to 6Planned

Full roadmap 路 How we publish

Talk to us

Buyers, students and funders: write a short note. We reply from contact@ehopn.com. Or open the live demo first.