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Pioneering the Future of Experimental Space Hardware: MiniFix - a Fully 3D-Printed and Highly Adaptable System for Biological Fixation in Space

Feles, Sebastian und Keßler, Raphael und Hauslage, Jens (2025) Pioneering the Future of Experimental Space Hardware: MiniFix - a Fully 3D-Printed and Highly Adaptable System for Biological Fixation in Space. Microgravity Science and Technology, 37 (3), Seite 22. Springer. doi: 10.1007/s12217-025-10178-4. ISSN 0938-0108.

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Offizielle URL: https://dx.doi.org/10.1007/s12217-025-10178-4

Kurzfassung

MiniFix, a syringe-based biological fixation system (SBBFS) is a versatile, fully 3D-printed syringe-driven, stepper motor-operated platform designed for the chemical fixation of biological samples in space-based research. Unlike conventional systems, it leverages additive manufacturing to provide modularity and customizability, enabling manipulation and a chemical fixation of biological samples under altered gravity conditions. MiniFix has performed five successful missions on the MAPHEUS sounding rocket and has demonstrated its reliability and adaptability. The integrated thermal management system uses waste heat from the stepper motors to maintain accurate sample temperature and in turn reduces power consumption and weight. MiniFix is particularly notable for its flexibility, allowing adaptation to diverse biological model systems, from simple organisms to more complex tissue cultures. Its modular design and 3D-printing process enable quick, cost-effective adjustments for different experimental setups. It was successfully printed with three different materials– PLA (Polylactic acid), PETG (Polyethylene terephthalate glycol-modified), and the biodegradable GreenTEC Pro. Its ability to integrate modifications such as illumination further enhances its adaptability for future space missions, for instance with photosynthetic organisms. By offering reliability, modular flexibility, and adaptation to a broad range of biological research goals, the SBBFS represents a new approach to construct flexible hardware for space and gravitational biology.

elib-URL des Eintrags:https://elib.dlr.de/213903/
Dokumentart:Zeitschriftenbeitrag
Zusätzliche Informationen:The MAPHEUS project
Titel:Pioneering the Future of Experimental Space Hardware: MiniFix - a Fully 3D-Printed and Highly Adaptable System for Biological Fixation in Space
Autoren:
AutorenInstitution oder E-Mail-AdresseAutoren-ORCID-iDORCID Put Code
Feles, SebastianSebastian.Feles (at) dlr.dehttps://orcid.org/0000-0002-5008-6290183949258
Keßler, RaphaelRaphael.Kessler (at) dlr.dehttps://orcid.org/0009-0003-8609-7981NICHT SPEZIFIZIERT
Hauslage, JensJens.Hauslage (at) dlr.dehttps://orcid.org/0000-0003-2184-7000NICHT SPEZIFIZIERT
Datum:28 April 2025
Erschienen in:Microgravity Science and Technology
Referierte Publikation:Ja
Open Access:Ja
Gold Open Access:Nein
In SCOPUS:Ja
In ISI Web of Science:Ja
Band:37
DOI:10.1007/s12217-025-10178-4
Seitenbereich:Seite 22
Verlag:Springer
ISSN:0938-0108
Status:veröffentlicht
Stichwörter:Syringe-based fixation system, Microgravity experimental setup, Sounding rocket, Gravitational biology, 3D-printing for space
HGF - Forschungsbereich:Luftfahrt, Raumfahrt und Verkehr
HGF - Programm:Raumfahrt
HGF - Programmthema:Forschung unter Weltraumbedingungen
DLR - Schwerpunkt:Raumfahrt
DLR - Forschungsgebiet:R FR - Forschung unter Weltraumbedingungen
DLR - Teilgebiet (Projekt, Vorhaben):R - Projekt Mapheus C, R - Projekt Mapheus D [FR], R - MAPHEUS C
Standort: Köln-Porz , Oberpfaffenhofen
Institute & Einrichtungen:Institut für Luft- und Raumfahrtmedizin > Aeromedical FabLab
Raumflugbetrieb und Astronautentraining > Mobile Raketenbasis
Hinterlegt von: Kopp, Kerstin
Hinterlegt am:13 Mai 2025 11:43
Letzte Änderung:13 Mai 2025 11:43

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