HBF Scientific Lab

University · research institute · industry

Collaborate with HBF Network

Join us in turning proton–boron-11 research into experimental results — from model review to the first laboratory prototype.

24-month programme Proposed non-fusion first milestone University supervision sought Scope to be agreed jointly

Who we are

HBF Network is an early-stage research initiative with a long-term goal: a hydrogen–boron (p–¹¹B) fusion power system that converts fusion energy directly into electricity. We are seeking university, research-institute, industry and funding partners for a 24-month research programme focused on the first experimental milestone.

Our immediate goal is to investigate direct charged-particle energy conversion — recovering energy from charged particles as electricity — and develop an experimental prototype supported by physics-based modelling, AI, computer vision and controlled automation.

Our computational foundation is already in place: seven interactive research laboratories, presented on this website. We are now looking for partners to review these models, sharpen the research questions and build an independently evaluated experimental programme together.

Four connected areas

The programme covers four connected areas. Partners do not need to cover all of them — expertise in any one is a valuable starting point.

01

Physics and energy conversion

Model particle behaviour, evaluate conversion concepts and compare predictions with experimental measurements.

02

AI and machine learning

Explore faster modelling, design optimisation and experiment selection, with clearly defined baselines and uncertainty.

03

Computer vision

Develop calibrated imaging methods for alignment, diagnostics and repeatable measurement.

04

Robotics and automation

Evaluate controlled positioning and automated workflows that improve experimental consistency.

The proposed first milestone

A non-fusion experimental demonstrator under university supervision. Its purpose would be to evaluate the proposed subsystem and establish reliable measurement methods. Results would guide the scope of subsequent fusion-relevant research.

Partners

What we welcome

Partners who can contribute scientific expertise, experimental capabilities or research support.

Potential collaborations include academic mentorship, joint research projects, model validation, access to suitable facilities, instrumentation development and jointly prepared funding applications. Student and thesis projects may also be explored where they meet the participating institutions' academic requirements.

HBF Network

What we contribute

HBF would contribute its existing research software, modelling work, data-analysis tools, technical documentation and project coordination.

Together, we would define a research question that supports both the project's development and the partner's scientific interests.

The proposed 24-month programme

The programme would progress through four phases.

  1. Months 1–6 Scope and review

    Agree the research scope, review the models, define evaluation criteria and prepare funding proposals.

  2. Months 7–12 Build and first measurements

    Develop the experimental setup and collect initial prototype measurements.

  3. Months 13–18 Refine and evaluate independently

    Refine the approach, assess repeatability and arrange independent evaluation.

  4. Months 19–24 Consolidate and define the next stage

    Consolidate the findings, prepare appropriate research outputs and define the next development stage.

Scope and schedule are agreed jointly with partners, and experimental work is planned around available funding and facilities. Responsibilities, costs, intellectual property, data access and publication are agreed in writing before work begins.

What we aim to produce

Reproducible models
Computational models that any research group can run and check for themselves.
Documented experimental results
Measurements recorded with their methods, calibration and conditions, so they can be compared against the model predictions that preceded them.
A clear assessment of technical limitations
An honest, documented assessment of what works, what does not yet work and what is needed next.
A credible foundation for follow-on research
Evidence and methods at a standard that supports the next funding stage and the next set of research questions.

Where the current work stands

The computational foundation is live on this website. The seven laboratories contain the models, and the method reference documents the equations, data sources and scope of each one.

The case study shows the verification standard we work to: the plasma equilibrium solver compared point by point with a separately written reference code, with measured accuracy and the steps to reproduce every figure. Independent review and experimental validation of the models are central goals of the collaboration.

Discuss a collaboration

If your group's expertise aligns with this work

We would welcome a conversation about a shared research question and a practical first contribution. Contact HBF Network to introduce your group and request the full 24-month research proposal.

Hardip Bhesaniya · info@hbfnetwork.de

Request the proposal Review the current work