AIMIS FYT1

AIMIS-FYT

New Approaches for In-Space-Manufacturing

AIMIS-FYT

We are eight aerospace engineering students of the Munich University of Applied Sciences. AIMIS stands for Additive Manufacturing In Space. Our project aims to demonstrate a 3D-printing process through which structures for solar panels, antennas or any other installation can be created directly in space. The team works with a printing method in which photoreactive resin is extruded and cured by UV-Light.
Figure 6 - zugeschnittenk_2Figure 6 - zugeschnittenk_2

FlyYourThesis2020!

To validate our 3D-print technology we take part on the FlyYourThesis2020! programme. With this programme the European Space Agency (ESA) gives university students the opportunity to perform experiments under microgravity conditions.

Drucker

Experiment

During the parabolic flight campaign eight experiments will be performed to investigate the 3D-printing process under microgravity conditions. Our experiments are divided into different basic operation types where straight rods, connections of rods or free-form rods are created. For the first six operation types a conventional printing plate will be used as starting point for the print.
In the last two experiments the behaviour of printing free floating rods will be observed. The main parameters of the printing process are extrusion speed of the resin, UV-light intensity, UV-light time and trajectory of the printer. The number of parabolas enables each experiment to be repeated several times with different parameter settings.

Experiment

During the parabolic flight campaign eight experiments will be performed to investigate the 3D-printing process under microgravity conditions. Our experiments are divided into different basic operation types where straight rods, connections of rods or free-form rods are created. For the first six operation types a conventional printing plate will be used as starting point for the print.
In the last two experiments the behaviour of printing free floating rods will be observed. The main parameters of the printing process are extrusion speed of the resin, UV-light intensity, UV-light time and trajectory of the printer. The number of parabolas enables each experiment to be repeated several times with different parameter settings.
Drucker

Motivation

The current way of transporting devices to space is quite inefficient as the structural parts are primarily designed to withstand the high loads during the launch phase of a spacecraft. However, for the later operational lifetime these structures are oversized. Due to high costs and limited space on a launch vehicle a 3D-printing process in space offers the possibility to be a more cost-effective solution.

FlyYourThesis2020!

To validate our 3D-print technology we take part on the FlyYourThesis2020! programme. With this programme the European Space Agency (ESA) gives university students the opportunity to perform experiments under microgravity conditions.

We are grateful for your support!

Special thanks to ESA and the Munich University of Applied Sciences, who make our experiment possible

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Our sponsors and partners
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We are grateful for your support!

Special thanks to ESA and the Munich University of Applied Sciences, who make our experiment possible
ESA_Academy_kv__FYThesis
HM_Logo_EN
 
Our sponsors and partners
Logo_DELO_Without_Subtitle_Blue_4c
IDS_Logo_CMYK
landefeld_logo
Nanotec_Logo_CMYK
PULS_Blau_100c80m
RS_CMYK_Print_logo_V03
logo_dosier und misch_positiv_path
ViscoTec_Logo_web-1000px