Scientific investigations conducted by people on the International Space Station (ISS) are currently contributing to our knowledge in many fields.
The research alliance between the University of Pittsburgh’s (Pitt) McGowan Institute for Regenerative Medicine (MIRM) and the ISS is a great example of the ultimate vision of a space development that could result in the advancement of biomedical products in space, which could ultimately benefit human health on Earth and eventually push forth the discoveries of space-based science.
In 2018, NASA approached researchers at the McGowan Institute, in Pennsylvania, to lead a multi-year effort, and earlier this month, the alliance (a core element of the ISS National Laboratory Industrial Biomedicine Program) was unveiled at the 8th annual ISS Research and Development Conference held in Atlanta. The new partnership will evoke the principles of microgravity and its effect on regenerative medicine-based therapies as research moves to the orbiting laboratory and scientists continue to experiment with 3D printing in space.
The ISS provides a unique platform to conduct studies in a microgravity environment and this new partnership will serve as a benchmark for how the ISS National Laboratory develops similar programs in the future involving research and development activities aboard the space station.
“As the premier partner for the Industrial Biomedicine Alliance with the ISS National Laboratory, we look forward to using the space station as a testbed for regenerative medicine advances and product development in Low Earth Orbit,” said William Wagner, McGowan Institute Director.
According to the ISS National Lab, McGowan Institute will collaborate with partners from industry, other academic research centers, and government agencies to drive the progress of regenerative medicine research onboard the ISS. As part of the endeavor, the University of Pittsburgh will also develop Earth-based facilities on campus to advance research and meet with potential partners while working in coordination with the ISS about flight opportunities to the orbiting laboratory.
Scientists will look to exploit the unique behavior of stem cells in microgravity to improve cell-based therapies for a variety of diseases and impairments, including traumatic brain injury and type I diabetes. Similarly, microgravity could allow 3D printers to create complex tissue structures that are difficult to achieve in the presence of full gravity.
“The McGowan Institute has built on its deep history advancing the development of artificial organs to establish a position of internationally recognized leadership in regenerative medicine,” suggested Rob Rutenbar, Senior Vice Chancellor for Research at the University of Pittsburgh. “The ISS National Lab will benefit from that deep expertise, as well as our commitment to rapid clinical translation.”
In its 26-year existence, the McGowan Institute has issued 140 patents, filed more than 900 invention disclosures and spun out nearly 30 companies from the university, changing the way patients are treated for a wide range of diseases and injuries. With so many startups coming from their research, it’s probably safe to say that future alliances with the ISS will bring private companies and research partners to fund their own projects, which usually seek to better understand and find solutions in space to common problems on Earth. Actually, the products of the ISS Industrial Biomedicine Program and this research partnership will help build the fundamental business case for the industrialization of crewed platforms in low Earth orbit.
ISS National Laboratory Chief Strategy Officer, Richard Leach, explained that “part of the role of the ISS National Laboratory is to create and implement innovative strategies to enhance the research capacity of the orbiting lab, and we believe alliances like this will pave the way for future collaborations to advance the discoveries of space-based science.”
At the beginning of the year, Wagner – who is also professor of surgery, bioengineering and chemical engineering at Pitt – said that the Institute’s philosophy is to get the technology to the patient, and emphasized that “if what we do does not impact patients’ lives, we’ve not fulfilled our mission”. It appears that this clever partnership might be just what the institute needs to scale up their work on stem cell research, tissue engineering of biomaterials and eventually bioengineering organs with 3D printing.[Images: University of Pittsburgh’s McGowan Institute and ISS]
You May Also Like
Multimaterial 3D Printing Filaments for Optoelectronics
Authors Gabriel Loke, Rodger Yuan, Michael Rein, Tural Khudiyev, Yash Jain, John Joannopoulous, and Yoel Fink have all come together to explore new filament options, with their findings outlined in...
Germany: Two-Photon Polymerization 3D Printing with a Microchip Laser
Laser additive manufacturing technology is growing more prevalent around the world for industrial uses, leading researchers to investigate further in relation to polymerization, with findings outlined in the recently published...
3D Printing Polymer-Bonded Magnets Rival Conventional Counterparts
Authors Alan Shen, Xiaoguang Peng, Callum P. Bailey, Sameh Dardona, and W.K Anson explore new techniques in ‘3Dprinting of polymer-bonded magnets from highly concentrated, plate-like particle suspension.’ While magnets have...
South Africa: FEA & Compression Testing of 3D Printed Models
Researchers D.W. Abbot, D.V.V. Kallon, C. Anghel, and P. Dube delve into complex analysis and testing in the ‘Finite Element Analysis of 3D Printed Model via Compression Tests.’ For this...
View our broad assortment of in house and third party products.