Sep 23, 2014

Forget Paper, NASA is Doing Origami with Solar Panels

Green Tech
2 min
Origami isn’t just for paper anymore. Engineers at NASA’s Jet Propulsion Laboratory have created foldable solar panels inspired b...

Origami isn’t just for paper anymore.

Engineers at NASA’s Jet Propulsion Laboratory have created foldable solar panels inspired by the art of Japanese paper folding.

NASA’s Brian Trease, a mechanical engineer, studied abroad in Japan and was initially exposed to the art of origami. From then on, he was hooked.

“I’d be folding subway ticket stubs, baseball game lineups; there’s a picture of me in McDonalds in the city of Kobe holding a big origami crane that I had just folded [out of a hamburger wrapper],” he recalls to Wired. “Now it’s come full circle—I’m doing this as my career.”

Origami seemed to be an excellent solution to one of the biggest challenges NASA faces: how do you make bulky objects needed for space flight light and compact enough to transport? Several years ago, NASA began exploring different ways solar panels could be made more compact. Now, the solution looks to be as simple as folding them.

The project is now a joint collaboration between some unusual partners: engineers at NASA’s JPL, students at Brigham Young University, and origami master Robert Lang. The team has developed a prototype 1 cm thick solar array that has the capability to expand from 8.9 feet in diameter to 82 feet.

The material for the panel is called “hannaflex” by the researchers at the JPL. It starts out in a flower-shaped form…

NASA's folding solar panel, folded up.
Image credit: NASA

...and folds out to look like this. 

NASA's folding solar panel, unfolded.
Image credit: NASA

“This is just begging to be deployed with centrifugal force,” Trease said. “We could have it on spacecraft where we just spin it and that force allows the panels to deploy out to their position.”

Naturally, there is much work to be done on the panel, but the team is taking the concept very seriously. Trease explained that different materials needed to be stress tested and they need to find a way to quickly and effectively unfold the panel.
As cool as the panel may look, its artistic shape is truly beneficial to the future of space flight.

“The public has to know it’s more than just paper folding, it’s more than just this children’s art or something you do in school,” Trease said. “There’s a lot of artistic expertise in understanding the folds, but it’s heavily backed up by math and engineering.”

You can view a video of panel being unfolded here

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Apr 23, 2021

Drax advances biomass strategy with Pinnacle acquisition

Dominic Ellis
2 min
Drax is advancing biomass following Pinnacle acquisition it reported in a trading update

Drax' recently completed acquisition of Pinnacle more than doubles its sustainable biomass production capacity and significantly reduces its cost of production, it reported in a trading update.

The Group’s enlarged supply chain will have access to 4.9 million tonnes of operational capacity from 2022. Of this total, 2.9 million tonnes are available for Drax’s self-supply requirements in 2022, which will rise to 3.4 million tonnes in 2027.

The £424 million acquisition of the Canadian biomass pellet producer supports Drax' ambition to be carbon negative by 2030, using bioenergy with carbon capture and storage (BECCS) and will make a "significant contribution" in the UK cutting emissions by 78% by 2035 (click here).

Drax CEO Will Gardiner said its Q1 performance had been "robust", supported by the sale of Drax Generation Enterprise, which holds four CCGT power stations, to VPI Generation.

This summer Drax will undertake maintenance on its CfD(2) biomass unit, including a high-pressure turbine upgrade to reduce maintenance costs and improve thermal efficiency, contributing to lower generation costs for Drax Power Station.

In March, Drax secured Capacity Market agreements for its hydro and pumped storage assets worth around £10 million for delivery October 2024-September 2025.

The limitations on BECCS are not technology but supply, with every gigatonne of CO2 stored per year requiring approximately 30-40 million hectares of BECCS feedstock, according to the Global CCS Institute. Nonetheless, BECCS should be seen as an essential complement to the required, wide-scale deployment of CCS to meet climate change targets, it concludes.

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