Thermal Storage

Certificate Course - Energy Engineering - EE.3.4.I26

Date Jun 9, 2027
Duration 1 day
Location on campus - Karlsruhe
Language English
ECTS upon request
Cost 990 €

Course prerequisites - Knowledge in basics of thermodynamics is helpful.

Discover what this course is all about

Fundamentals

Understanding the underlying physical phenomena related to hydrogen systems and the principles of hydrogen safety engineering, including relevant technical sub-systems.

Technology

Becoming acquainted with state-of-the-art technologies for hydrogen production, storage, transport, and utilization.

Applications

Understanding the concept of a hydrogen economy, including the associated technologies and overall system efficiencies.

What you´ll explore

  • The cross-cutting issue of hydrogen as an energy carrier and the concept of a hydrogen economy are introduced.

  • The chemical and physical properties of hydrogen are explained.

  • Details of established and high-potential future technologies for hydrogen production, storage, distribution, and energy applications (besides fuel cells) are provided.

  • Systems such as hydrogen-driven cars, refueling stations, and energy storage applications are characterized in terms of efficiency and costs.

Your key takeaways

Participants:

  • Gain knowledge of technologies of hydrogen generation, storage, transport and usage as well as security aspects and future developments through to a hydrogen economy (current and future H2 production techniques, storage and transport techniques; energy consumption of H2 in combustion engines; cells for H2 – creation, fuel cells for cars; charging stations and H2 storage media; safety regulations when handling H2).

  • Gain additional insights into the framework conditions for security technology when handling H2 and technical subsystems.

Taught by recognized experts in Thermal Storage

Benefit from the knowledge of leading specialists with extensive experience in research and industry. Their deep expertise guarantees a course of outstanding academic and practical quality.

Dr.-Ing. Marc Linder

Dr.-Ing. Marc Linder is an engineer specialized in energy and process engineering, educated at the University of Stuttgart (Dipl.-Ing.). He earned his doctorate on automotive cooling systems based on metal hydrides and his habilitation on gas–solid reactions for energy storage and conversion. Since 2011, he has led the Thermochemical Systems group at DLR Stuttgart, after roles as project leader and researcher in hydrogen storage and energy systems.

Dr. Klarissa Niedermeier

Dr.-Ing. Klarissa Niedermeier is a process engineer and researcher at the Karlsruhe Institute of Technology (KIT), working at the Institute for Thermal Energy Technology and Safety (ITES). She leads research in high-temperature thermal energy storage, particularly liquid-metal-based systems, and coordinates activities in the KIT Karlsruhe Liquid Metal Laboratory (KALLA). Her work focuses on sustainable energy transformation, thermal storage concepts for industrial applications, and the development of pilot-scale demonstrators and related technologies.

Who should attend

This certificate course is designed for professionals seeking a structured introduction to the integration of energy systems and e-mobility within the context of sustainable energy transition.

  • Engineers and technical professionals in the energy, automotive, electrical, and manufacturing industries who are involved in or preparing for projects related to e-mobility, charging infrastructure, and integrated energy systems
  • Energy consultants, planners, and project managers working on renewable energy integration, smart charging solutions, and sector coupling strategies
  • Professionals in utilities, grid operation, transportation, and infrastructure sectors seeking to understand the interaction between electric mobility, energy efficiency, and modern power systems
  • Experts in sustainability, mobility, and public administration who need a solid technical and economic understanding of e-mobility integration and its impact on energy networks and climate goals
  • Researchers and academics aiming to deepen their knowledge of energy efficiency methodologies, electric mobility systems, and current research trends in integrated energy solutions
  • Professionals who want a coherent overview from the fundamentals of energy system integration to practical applications, evaluation methods, and the opportunities and challenges of large-scale e-mobility deployment

  

Advance your career with KIT-level expertise

Benefit from the reputation of the Karlsruhe Institute of Technology (KIT) while gaining practical skills, flexible learning opportunities, and a recognized certificate to support your long-term professional growth.

Flexibility

Gain focused expertise in a specific field without committing to a full degree program, allowing you to build relevant knowledge efficiently and integrate learning seamlessly into your professional routine.

Relevance

Benefit from high-quality academic content combined with practical insights, delivered by experienced experts, supporting continuous, lifelong learning while ensuring direct applicability in real-world scenarios.

Advancement

Enhance your professional profile with a recognized certificate, demonstrating your commitment to ongoing development and supporting your career with tangible, verifiable credentials.

 

About HECTOR School

HECTOR School, the Technology Business School of the Karlsruhe Institute of Technology (KIT), is a leading provider of executive education in technology-driven fields.