Sustainable Chemistry and Renewable Energy

€910.00

Participation Explanation of the participation options
Event period
Certificate programme

In the certificate programme, you take modules worth at least 15 credit points, you are enrolled as a student at Leuphana University of Lüneburg, you have access to all the university's resources, you take examinations and you receive the university certificate "PS Individuale" as your degree.

More information on the Certificate Programme

Certificate participation

When participating in the certificate program, you will take part in modules worth at least 15 CP. You will not take any exams and will receive a certificate upon completion. You are not a registered student. This means you do not have to pay any semester fees.

More information on the Certificate participation 

Module studies

You complete the module studies with an examination and receive the specified credit points. These can be credited towards a Bachelor's or Master's degree. The modular study programme is interesting for you if you only want to book a single or more modules. At the end, you will receive a certificate with a detailed list of your achievements.

More information on Module Studies

Module participation

Participation in the module takes place WITHOUT an examination. You do not receive any credit points. Credit points are important if you want to have them credited towards a Bachelor's or Master's degree. You will receive a certificate of attendance at the end of the module.

More information on Module Participation

Currently 3 places available
Courses of this module
F6 Sustainable Chemistry and Renewable Energy
* Die Veranstaltung findet im Zeitraum 05.02.2027 bis 11.03.2027 statt. Die genauen Termine werden in Kürze bekanntgegeben.
Product information "Sustainable Chemistry and Renewable Energy"

This course explores the close interlinkages between sustainable chemistry, renewable energy systems and climate change mitigation. You will gain a comprehensive overview of renewable energy technologies and the resources required for their large-scale deployment, with a particular focus on wind and solar energy. The course highlights critical material demands, potential supply bottlenecks and resource management challenges, and discusses how sustainability considerations can be integrated into renewable energy production to avoid unintended trade-offs and rebound effects.

A central focus of the course is the role of renewable energy in transforming the chemical industry towards greenhouse gas neutrality. You will explore Power-to-X technologies, including the chemical utilisation of carbon dioxide and hydrogen from renewable sources, as pathways to produce chemicals and fuels without fossil carbon feedstocks. In addition, the course provides insight into Germany’s and Europe’s energy transition (Energiewende), examining energy policy objectives, economic implications, and the role of renewable energies in reshaping the energy system. By linking technological, economic and policy perspectives, the course equips participants to critically assess future energy and chemical production pathways.

Course Contents

  • Overview of renewable energy technologies and sustainability considerations
  • Raw materials and critical resources for renewable energy production (with a focus on wind and solar)
  • Role of sustainable chemistry in renewable energy systems and climate change mitigation
  • Feedstock and energy use profiles of the chemical industry and pathways to reduce fossil dependency
  • Carbon Capture and Utilisation (CCU) and sources of carbon dioxide
  • Power-to-X technologies: hydrogen production, Power-to-Gas, Power-to-Chemicals, and Power-to-Liquids
  • Techno-economic and life cycle assessment of CCU and Power-to-X pathways
  • Environmental, economic, and social impacts of Power-to-X and CO₂ utilisation
  • Energy system transformation in Germany and Europe: policy goals, economic effects, and progress

Course Structure

Duration: five weeks

Structure: The course is divided into five phases.

Live Sessions: The course includes three live webinars, each lasting approximately 90 minutes. Live sessions are held in the afternoon (usually at 5:00 pm CEST) to accommodate working professionals. Exact dates will be announced before the course begins. All live sessions are recorded and made available on Moodle for participants who cannot attend live.

Assessment: You will work through the course materials and complete the assigned tasks in each phase at your own pace. The course is assessed through a portfolio exam that compiles all phase tasks and is submitted at the end of the course.

Who should attend

This course is suitable for professionals working in chemistry, chemical engineering, energy systems, sustainability, climate policy or industrial transformation. It is particularly relevant for those involved in renewable energy deployment, low-carbon chemical production, resource management or sustainability strategy development.



 

 

is restricted access: Yes
Requirements - university entrance qualification: Not required
Requirements - one year of work experience: Required
Requirements Language: English: TOEFL Internet (92 points); IELTS (Acad. Level 6.5 points); CAE/CPE (Level C1, Grade B); TOEIC (720 points listening/reading, 310 points speaking/writing); if necessary, individual examination.
Requirements Expertise: Knowledge of chemistry, biology & environment
Other requirements

 1) Training as a chemical-technical assistant or pharmaceutical-technical assistant

OR

2) B.Sc. in Chemistry, Pharmacy or similar

 

Topic: Engineering & Natural Sciences, Sustainability, Energy & Environment
Format of course: Online
Level: Master
Course language: English
Study programme
Sustainable Chemistry Go to study program website
Number of credit points / ECTS: 5
Workload Contact time (in hours): 8
Workload self-study time (in hours): 117
Examination: In-class examination
Exam format: Portfolio
Further exam format: No further Exam
Qualifikationsziele

In this course, you will acquire substantive knowledge about and skills in:

  • Explaining renewable energy technologies and their resource requirements
  • Assessing sustainability challenges and material bottlenecks in renewable energy systems
  • Describing the role of the chemical industry in climate change and pathways towards greenhouse gas neutrality
  • Explaining Power-to-X technologies and the use of hydrogen and carbon dioxide as alternative feedstocks
  • Evaluating environmental, economic, and social impacts of CCU and Power-to-X pathways
  • Understanding the role of energy policy and energy economics in the energy system transformation