LATEST NEWS

UCF and NASA Study Using Martian Soil to Build Human Habitats

It’s hard enough to transport humans to Mars. But once they get there, where will they live?

A University of Central Florida professor is working with NASA to figure out a way to extract metals from the Martian soil – metals that could be fed into a 3-D printer to produce the components of a human habitat, ship parts, tools and electronics.

“It’s essentially using additive-manufacturing techniques to make constructible blocks. UCF is collaborating with NASA to understand the science behind it,” said Pegasus Professor Sudipta Seal, who is interim chair of UCF’s Materials Science and Engineering program, and director of the university’s Advanced Materials Processing & Analysis Center and NanoScience Technology Center.

NASA and Seal will research a process called molten regolith electrolysis, a technique similar to how metal ores are refined here on Earth.  Astronauts would be able to feed Martian soil – known as regolith – into a chamber. Once heated to nearly 3,000 degrees Fahrenheit, the electrolysis process would produce oxygen and molten metals, both of which are vital to the success of future human space exploration.  Seal’s expertise also will help determine the form those metals should be in that’s most suitable for commercial 3-D printers.

NASA intern Kevin Grossman, a graduate student from Seal’s group, is also working on the project, which is funded by a NASA grant. Grossman said he hopes future projects in similar areas can grow the current partnership between UCF and the research groups at NASA’s Kennedy Space Center.

NASA is already working on sending humans to the Red Planet in the 2030s. The agency has begun developing plans for life-support systems and other technology.

NASA isn’t alone. Elon Musk, billionaire founder of SpaceX and Tesla Motors, is working on his own plan. Mars One, a Dutch nonprofit, is touting a plan to send dozens of volunteers from around the world on a one-way trip to colonize Mars.

They all agree that for sustainable Mars exploration to work, they must be able to use resources on Mars that would otherwise require costly transportation from Earth – a concept known as in situ resource utilization. That’s where Seal’s research comes in.

“Before you go to Mars, you have to plan it out,” Seal said. “I think this is extremely exciting.”

UCF has a long relationship with NASA, dating back to the first research grant ever received by the university, then known as Florida Technological University.

Other UCF faculty members continue researching in situ resource utilization. Phil Metzger of UCF’s Florida Space Institute, is working with commercial space mining company Deep Space Industries to figure out a way to make Martian soil pliable and useful for 3D printing. The same company has tapped Metzger and UCF colleague Dan Britt to develop simulated asteroid regolith that will help them develop hardware for asteroid mining

Liat

Recent Posts

Renesas Unveils Industry’s First 650V GaN in Dual-Side Cooled 8x8mm Package for Megawatt-Scale AI Data Centers

Dual-side cooling (DSC) shrinks package footprint by 57% compared with TOLT, packing more power into…

3 days ago

Leica Microsystems launches AI software module for consistent inspection decisions

Supporting manufacturers with reliable defect identification and scalable quality control across production lines Leica Microsystems,…

3 days ago

Teradyne Introduces Near-DUT Test Platform for LPDDR6, DDR6 and GDDR7

The Magnum E2 system supports emerging DRAM and NAND interfaces while using common hardware and…

3 days ago

ARX Robotics and DEUTZ Deliver First Ulm-Built GEREON UGVs to Ukraine

The first unmanned ground systems left the production line only 12 weeks after the two…

3 days ago

AMD Releases Ross Agentic Assistant for Vivado and Vitis HLS Workflows

The available-now engineering assistant connects language models to AMD development tools, documentation and reusable FPGA…

3 days ago

Murata Begins Mass Production of 0201-Inch Three-Terminal Low-ESL MLCCs

The 0.6 × 0.3 mm capacitors occupy 64% less mounting area than Murata’s previous smallest…

3 days ago