Hydrogen Safety System Business
Business development for innovative hydrogen leakage detection technology
Overview
As part of TU/e's Innovation & Entrepreneurship program, I led the business development for an innovative hydrogen leakage detection technology. The project involved transforming cutting-edge research into a viable business model through systematic market validation and customer discovery.
Working with a team of engineers who developed a novel sensor technology capable of detecting hydrogen leaks with unprecedented accuracy, I focused on identifying market opportunities, validating customer needs, and developing a go-to-market strategy.
The Challenge
The hydrogen economy is rapidly expanding, but safety concerns remain a significant barrier to adoption. Current detection methods have critical limitations:
- Hydrogen is highly flammable with a wide explosive range (4-75% in air)
- Colorless and odorless, making leaks impossible to detect without sensors
- Existing sensors have slow response times and limited accuracy
- High false positive rates lead to costly production interruptions
Our challenge was to validate whether the market would adopt a new detection technology and identify the most valuable customer segments.
Solution
Market Validation Process
Customer Discovery
Conducted in-depth interviews with industry leaders:
- • Tata Steel - Production safety managers
- • Shell - Hydrogen infrastructure team
- • Air Liquide - Industrial gas specialists
- • Port of Rotterdam - H2 hub developers
- • BMW - Hydrogen vehicle engineers
Market Segmentation
Identified primary customer segments:
- • Industrial hydrogen production
- • Chemical processing plants
- • Hydrogen refueling stations
- • Transportation & logistics
- • Research laboratories
Value Proposition Development
Through 6 iterations based on customer feedback, we refined our value proposition:
"Prevent catastrophic hydrogen incidents with real-time, ultra-sensitive leak detection that reduces false alarms by 90% while meeting stringent safety regulations."
Response Time
< 1 second
Detection Range
10 ppm - 4%
False Positives
-90% reduction
Technical Implementation
Business Model Development
Revenue Model
Go-to-Market Strategy
- 1. Partner with safety certification bodies
- 2. Pilot programs with industry leaders
- 3. Leverage safety regulations compliance
- 4. Build channel partnerships
- 5. Expand internationally via distributors
Key Partnerships
- • TÜV/DNV - Safety certification
- • System integrators - Installation
- • Insurance companies - Risk reduction
- • Industry associations - Market access
- • Research institutes - Validation
Project Details
- Role
- Business Developer
- Context
- University Entrepreneurship Course
- Timeline
- Nov 2024 - Apr 2025
- Client
- TU/e Innovation Space
Tech Stack
Business Tools
Impact
Key Achievements
Validation Results
- • 87% of interviewed companies expressed strong interest
- • 3 Letters of Intent from major industrial players
- • Identified €120B addressable market in Europe
- • Validated willingness to pay above €2,500/unit
- • Confirmed critical need for faster, more accurate detection
Business Model Iterations
Customer Interviews
Seed Funding Interest
Next Steps
Based on the validation results, the project is moving forward with:
- • Technical prototype development with TU/e labs
- • Pilot program with Shell hydrogen facilities
- • Seed funding round targeting €2M
- • Team expansion (CTO and sales lead)
- • IP protection and certification process