Research Projects

Resilience Starts in Testing

We develop and test technologies that make energy and mobility resilient in the lab, in simulations, and in real-world operation. This turns research into the foundation for a secure energy transition.

The Why

Knowledge Creates Security

For us, research is not an end in itself, but a prerequisite for energy sovereignty, technological progress, and stable systems.

For Impact.

Our research creates value for the economy, environment, and society—today and tomorrow.

For Independence.

Development of technologies that make energy and mobility systems more resilient, efficient, and sovereign.

For Security.

Only systems that work reliably under extreme conditions secure tomorrow's supply.

For Progress.

Connecting research with practice for measurable improvements instead of theory.

The How

Holistic and Practical

HDC connects research, development, and application, implementing both in a scientifically sound and industrial manner.

Systemic

We think of energy and mobility as a complete system: from simulation to control.

Integrated

We combine software, hardware, and manufacturing under one roof.

Application-Oriented & Transfer-Focused

We develop and test on real test benches, prototypes, and projects so that research shows immediate impact.

Cooperative

We ensure depth and relevance through collaboration with universities, research institutions, and industry partners.

What We Research

For Systems That Endure

Our focus lies in areas crucial for the future of energy and mobility: stability, efficiency, and connectivity.

Resilient Hydrogen and Power Grids

Development of grid structures that balance fluctuations, prevent bottlenecks, and guarantee supply even under high volatility.

Sector Coupling & System Integration

Exploring the interaction of electricity, heat, and mobility for efficient overall systems and intelligent resource use.

Safety and Stability Concepts

Development of predictive operational strategies to protect critical and military infrastructures from failures, attacks, and external disruptions.

Efficiency & Multi-Objective Optimization

Technological and economic solutions that combine resilience, costs, emissions, and feasibility.

Connectivity of Components

Optimization between all system elements to ensure smooth operations, faster responses, and maximum stability.

Simulation & Predictive Control

Optimization of energy flows using digital models and real-time data for predictive control.

Research & Development Projects

THORIUM – Further Development & Predictive Operational Strategy

  • Development of predictive operational strategies

  • Simulation and resilience optimization

  • Integration of renewable energy flows



Partner: UniBW M, LEC GmbH, TU Graz

Hydrogen Operation in Combined Heat and Power (CHP) Plants

  • Operation of CHP plants in pure hydrogen mode

  • Development of an exhaust gas recirculation system to increase efficiency

  • Testing of predictive control strategies

  • Connection to THORIUM for optimized energy management



Partner: UniBW M, Industry Partner

Brake Test Bench

  • Measurement and evaluation of particle emissions

  • Impact on lung cells and the environment

  • Data basis for low-emission materials



Partner: UniBW M ( MORE), Industry Partner

Funded Projects

Pre-Chamber Spark Plug

  • Efficiency improvement & cost optimization

  • In-house additive manufacturing

  • Validation on real test benches



Partner: Hochschule Esslingen, HDC Industries, Industry Partner
Funding: Innovation Voucher Bavaria

SENTINEL – Resilient Energy Infrastructures

  • Simulation & system integration

  • Stability analyses for decentralized grids

  • Resilience enhancement through real-time monitoring



Partner: SENTINEL Consortium (EU Funding)

INDY – Energy Independent and Efficient Deployable Military Camps

  • Simulation of complex energy systems

  • Predictive control strategies

  • Real-time data and system integration

  • Optimization of energy flows



Partner: INDY Consortium (EU Funding)

From Research to Practice

Project findings flow directly into the further development of our technologies: from energy control with the THORIUM software to the optimization of hardware components like the pre-chamber spark plug.



Simulations, tests, and predictive models generate knowledge that immediately translates into practice. This turns research data into real progress for resilient, efficient, and secure energy and mobility systems.

Strategic Deep Dive

The white paper shows why energy is a security-relevant factor and how resilient systems strengthen the state, industry, and defense.



Contents at a Glance:

  • Resilience as a security policy task

  • Strategic approaches & international best practices

  • Recommendations for action for the state, critical infrastructure, and the military

Research thrives on exchange

Young Talent & Knowledge Transfer

We specifically promote young talent and supervise, together with universities, theses that connect theory and practice. The goal is to transfer knowledge into real developments early on.

One example: the simulation of a combined heat and power plant in hydrogen operation as a bachelor's thesis in our R&D department.

Outlook

Keeping an Eye on the Future

We think ahead and continuously develop technologies into more powerful, secure, and resilient systems.

With EU initiatives and user feedback, we actively shape the next generation of resilient energy and mobility systems.

In Focus:

  • Smart sector coupling
  • Simulation of hydrogen processes
  • Integration of sustainable heat strategies
  • New methods for energy flow optimization
  • Central control and protection functions for complex microgrids
  • Approaches to signature reduction

Cooperation Drives Progress

Are you working on similar topics?
We are open to partnerships in energy, mobility, and resilience—scientifically, as a subcontractor, or in joint projects.
Let's find out what's possible.