We are the cold plasma pioneers.

For more than 13 years, terraplasma has been a leader in the research and development of cold plasma. As a spin-off of the world-famous Max Planck Society, it is in our genes to not only explore the possibilities of this fascinating new technology, but also to find practical applications for this innovative solution to many of our current challenges.

Management

Julia has been managing director of terraplasma GmbH since 2015 and was previously CEO of terraplasma's subsidiary terraplasma medical GmbH, with a strategic exit in 2023. Before founding terraplasma GmbH, she worked at the Max Planck Institute for Extraterrestrial Physics and received her doctorate in biophysics at the LMU (Ludwig Maximilians University in Munich).

Dr. Julia Zimmermann

Founder and Managing Director

Sylvia

Sylvia, a bioengineer who has been with the company since the beginning. She is now Head of Operations & Development, overseeing the implementation of technological developments. With her background in micro- and cell biology analyses and plasma device development, she combines strategic planning with operational excellence to ensure efficient processes, a strong team and innovative solutions.

Sylvia Cantzler

authorised signatory,
head of operation&development

Spin off

of Max Planck Gesellschaft

Prof. Dr. Gregor Morfill is known for his work in astrophysics and plasma physics. After completing his doctorate at Imperial College London, he held various prestigious positions, including professorships at the Max Planck Institute for Nuclear Physics and at the University of Heidelberg, and since 1984 he has been director of the Max Planck Institute for Extraterrestrial Physics.

Prof. Dr. Gregor Morfill

Founder

Team

Alex, who grew up in the Allgäu, studied chemical engineering at TUM (M.Sc.). After three years as a production engineer at DELO, he developed innovative prototypes and device components at terraplasma. Known for his technical know-how – and fascinating facts that you were never looking for but always needed.

Alex

Claudia, M.Sc. Biology, heads the microbiological laboratory (S1) at terraplasma. She plans and carries out microbiological experiments, evaluates data and creates reports. With expertise in cell biology, molecular biology and microbiology, she ensures the highest standards in research and quality management.

Claudia

Sylvia

Hannes is a project manager at terraplasma and an expert in plasma source technologies and materials. With a master's degree in electrical engineering and research experience in cold plasma under zero gravity conditions, he leads innovative projects on cold plasma applications on surfaces, in the air and in water. He is also responsible for research projects and the company's IT infrastructure.

Hannes

Markus, M.Sc. in electrical engineering of mobile systems, heads the physical-technical laboratory at terraplasma. He develops efficient and performance-optimized plasma controls and advances electronics development. His expertise ensures innovative solutions for the application of cold plasma in various technological areas.

Markus

history

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foreword: dusty plasma physics

The initial spark came after Gregor Morfill moved to the Max Planck Institute for Nuclear Physics in Heidelberg in 1974. His interest in “dusty plasmas” was sparked by his interaction with his new colleagues Eberhard Grün and Hugo Fechtig, who were studying and reseraching the physics and dynamics of microscopic dust particles in interplanetary space and the magnetosphere. Although he didn’t know it at the time, fundamental research into dust-plasma interactions made everything that followed possible – including all the science and innovations at Cold Plasma.

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chapter 1: all about plasma crystals

During his research at the Max Planck Institute for Extraterrestrial Physics – Morfill had just been appointed director and had his hands full organizing his team, his workplace and his priorities – he came across the theory of “plasma crystals”. You have to remember that plasmas are considered the most disordered form of matter – and a possible strongly coupled solid state was considered impossible.

A close colleague suggested that he could do some research with his “dusty plasma background” and see if this theory could be verified. However, it took him a few years to start this exotic “plasma crystal research” as the theory kept haunting his mind. He then carried out a comprehensive analysis of the physics (with the surprising result that it was (theoretically) quite possible to create plasma crystals experimentally), but was harshly rebuffed by his colleagues in plasma physics and told that the theory was nonsense.

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chapter 2: the universe - (in)finite expanses

The response from the scientific community to Morfill’s first presentation was overwhelming. But Morfill needed weightlessness – and got help from the journal Nature, which not only published his results, but also made a polite request to allow experiments in weightlessness (microgravity) if there was space on one of the flights into space. This request was answered by the German Aerospace Center (DLR), which offered Morfill to carry out experiments in weightlessness using parabolic flights and rocket test flights.


Visualising the laws of physics pillars

The great excitement in the scientific community ended with the fact that experiments in weightlessness were offered on the ISS (International Space Station) under the name “plasma crystal”. Since then, there have been various plasma crystal laboratories operated by over 30 astro- and cosmonauts on the ISS to this day. The current laboratory, PK4, is installed in ESA’s Columbus module.

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chapter 3: back on earth

So Morfill had proved that cold plasma could be generated in a controlled environment – but what was the practical aspect of this? What kind of solutions could be created? And finally – what would the cold plasma business look like? This is where his daughter Dr. Julia Zimmermann came in.

She also worked with cold plasmas at Max Planck, and with a strong medical background, her stated goal and motivation was to improve the healing of chronically infected wounds with these partially ionized gases. Her experiments focused on finding the plasma composition that would kill bacterial cells – but not the patient’s eukaryotic cells. Cold plasmas can be generated in different ways and produce a chemical cocktail that is applied to the wound. The first device was the size of two refrigerators – but at least it worked.

After conducting the first clinical trial, Morfill and Zimmermann founded the company terraplasma with the aim of developing a plasma device that was small and cheap enough to be easily brought to market.

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chapter 4: medical technology

The process of developing and bringing a medical device to market is much more complex, time-consuming and strenuous than writing a scientific paper or conducting research in the laboratory. Ensuring the successful launch of a groundbreaking medical product requires a lot of money and the right team. At a Business Angel Day, Morfill and Zimmermann networked with other founders who were able to develop medical products – the subsidiary terraplasma medical was born.

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The team of this newly founded company brought the innovative hand-held device called plasma care to market in a record time of less than 2 years. During plasma care, bacteria, including multi-resistant pathogens, viruses, fungi and spores, are inactivated by the cold plasma. At the same time, the cold plasma actively stimulates cell renewal and supports simple, quick and effective wound healing. This treatment method is also free of allergies and side effects.

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chapter 5: skincare

Together with hyped about science GmbH, terraplasma developed the compact consumer device Phlas. This uses cold plasma technology to regenerate the skin, reduce redness and treat blemishes and spots without irritating ingredients. Thanks to plasma, Phlas is gentle, free from heat or harsh chemicals and therefore suitable for all skin types. The development of this consumer device is based on extensive experience from device development in the fields of medicine, household appliances and laboratory equipment and has been integrated into a compact and attractive design.

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Epilogue: water treatment

The success stories illustrate the wide range of applications for cold plasma technology and terraplasma GmbH’s commitment to developing innovative and sustainable solutions for current challenges.

The company is now focusing on the field of water treatment with cold plasma in order to make its contribution to a sustainable economy and viable water management Cold plasma has the potential to revolutionize water treatment, as this technology offers decisive advantages over conventional disinfection methods such as UV, chlorine, ozone or reverse osmosis. Cold plasma works with highly reactive species directly in the water. This efficiently eliminates bacteria, viruses, organic impurities, pollutants and trace substances – without the use of additional chemicals or residues.