element14 Community
element14 Community
    Register Log In
  • Site
  • Search
  • Log In Register
  • Community Hub
    Community Hub
    • What's New on element14
    • Feedback and Support
    • Benefits of Membership
    • Personal Blogs
    • Members Area
    • Achievement Levels
  • Learn
    Learn
    • Ask an Expert
    • eBooks
    • element14 presents
    • Learning Center
    • Tech Spotlight
    • STEM Academy
    • Webinars, Training and Events
    • Learning Groups
  • Technologies
    Technologies
    • 3D Printing
    • FPGA
    • Industrial Automation
    • Internet of Things
    • Power & Energy
    • Sensors
    • Technology Groups
  • Challenges & Projects
    Challenges & Projects
    • Design Challenges
    • element14 presents Projects
    • Project14
    • Arduino Projects
    • Raspberry Pi Projects
    • Project Groups
  • Products
    Products
    • Arduino
    • Avnet & Tria Boards Community
    • Dev Tools
    • Manufacturers
    • Multicomp Pro
    • Product Groups
    • Raspberry Pi
    • RoadTests & Reviews
  • About Us
  • Store
    Store
    • Visit Your Store
    • Choose another store...
      • Europe
      •  Austria (German)
      •  Belgium (Dutch, French)
      •  Bulgaria (Bulgarian)
      •  Czech Republic (Czech)
      •  Denmark (Danish)
      •  Estonia (Estonian)
      •  Finland (Finnish)
      •  France (French)
      •  Germany (German)
      •  Hungary (Hungarian)
      •  Ireland
      •  Israel
      •  Italy (Italian)
      •  Latvia (Latvian)
      •  
      •  Lithuania (Lithuanian)
      •  Netherlands (Dutch)
      •  Norway (Norwegian)
      •  Poland (Polish)
      •  Portugal (Portuguese)
      •  Romania (Romanian)
      •  Russia (Russian)
      •  Slovakia (Slovak)
      •  Slovenia (Slovenian)
      •  Spain (Spanish)
      •  Sweden (Swedish)
      •  Switzerland(German, French)
      •  Turkey (Turkish)
      •  United Kingdom
      • Asia Pacific
      •  Australia
      •  China
      •  Hong Kong
      •  India
      •  Korea (Korean)
      •  Malaysia
      •  New Zealand
      •  Philippines
      •  Singapore
      •  Taiwan
      •  Thailand (Thai)
      • Americas
      •  Brazil (Portuguese)
      •  Canada
      •  Mexico (Spanish)
      •  United States
      Can't find the country/region you're looking for? Visit our export site or find a local distributor.
  • Translate
  • Profile
  • Settings
Power & Energy
  • Technologies
  • More
Power & Energy
Documents MIT researchers create super efficient 'origami' solar panels
  • Blog
  • Forum
  • Quiz
  • Documents
  • Polls
  • Events
  • Mentions
  • Sub-Groups
  • Tags
  • More
  • Cancel
  • New
Actions
  • Share
  • More
  • Cancel
Engagement
  • Author Author: squadMCU
  • Date Created: 21 Mar 2012 4:43 PM Date Created
  • Last Updated Last Updated: 8 Oct 2021 4:49 AM
  • Views 515 views
  • Likes 0 likes
  • Comments 0 comments
Related
Recommended

MIT researchers create super efficient 'origami' solar panels

Solar panels nowadays are flat, but folding them like origami could dramatically boost the amount of power they produce.

http://www.mnn.com/sites/default/files/solar-panel-100225-02.jpg

MIT researchers have created an origami-like solar structure that is much more efficient than current flat panels.

 

The three-dimensional solar structure could, at least in principle, absorb a lot more light and generate more power than a flat panel containing the same area footprint. The hope is that all unused light which has been reflected off one panel would be captured by other panels. Panels of this type would be most ideal in circumstances with limited space.

 

"This was a fully 'bio-inspired' idea," said researcher Jeffrey Grossman, a theoretical physicist at MIT. "I was hiking up at Lake Tahoe in California and noticing the shapes of trees, and wondering, 'Why do they have a given shape over another?'"

 

Research into photovoltaic panels has largely kept them flat to prevent any sort of shadow effect. Shadowing could heavily diminish the amount of light panels harvest. In addition, 2-D panels are easier to install on rooftops, and they are also better suited for large-scale fabrication techniques.

 

Scientists used a "genetic algorithm" to evolve solar panels in a computer simulation thus determining the optimal 3-D shape for harvesting the largest amount of light. It created random combinations of flat, triangular, double-sided panels and then analyzed them in response to the sun's movement across the sky. The best ones were then "mated" to create "offspring." The process was repeated for millions of generations to see what might evolve.

 

http://www.mnn.com/sites/default/files/user-3505/origami-solar-panels.jpg

With a 1,000 square-foot area, flat solar panels generate about 50 kilowatt hours daily. In comparison, the newly discovered 3-D structure researchers came up with could harvest more than 60 kilowatt hours each day with a structure about 6 feet high. A structure 33 feet high could harvest 120 kilowatt hours daily.

 

This is not the first time we've seen 3-D solar, but the first time it's been this big. Previous research has explored 3-D solar but on a nano-based level.

 

"I originally thought that such structures would only be useful in situations where area is at a premium — for example, rooftops," Grossman said. "Lately, though, we have been exploring more and more directions for ideas that may make 3-D structures more appealing than flat panels, even when area is not limited."

 

Of course, these jagged clusters would be a bit unwieldy to use so the scientists created a simplified structure that generates about the same amount of energy.

 

http://www.mnn.com/sites/default/files/user-3505/Origami-optimizes-direction.jpg

One huge advantage of 3-D solar panels is that they require no moving parts. The panels generate an even flow of power throughout the day. In order to achieve this with flat panels they must be arranged on a system that tracks the movement of the sun, "which is a big bummer, since you really don't want any moving parts sitting on your rooftop," Grossman said. "Anything that moves can break easily with time and needs more maintenance."

 

"I'm excited about the fact that such a seemingly simple idea could help lower the cost of solar power," Grossman added. The researchers are now teaming up with experimentalists to build prototypes of their computer-generated designs.

 

Source: Live Science

  • research
  • alternative_energy
  • boost
  • solar_panel
  • energy_harvast
  • prototype
  • alternative
  • enery_harvast
  • power_distribution
  • lithium_ion
  • battery
  • fuel_cell
  • renewable
  • energy
  • energy_storage
  • solar
  • solar_cell
  • innovation
  • Share
  • History
  • More
  • Cancel
  • Sign in to reply
element14 Community

element14 is the first online community specifically for engineers. Connect with your peers and get expert answers to your questions.

  • Members
  • Learn
  • Technologies
  • Challenges & Projects
  • Products
  • Store
  • About Us
  • Feedback & Support
  • FAQs
  • Terms of Use
  • Privacy Policy
  • Legal and Copyright Notices
  • Sitemap
  • Cookies

An Avnet Company © 2025 Premier Farnell Limited. All Rights Reserved.

Premier Farnell Ltd, registered in England and Wales (no 00876412), registered office: Farnell House, Forge Lane, Leeds LS12 2NE.

ICP 备案号 10220084.

Follow element14

  • X
  • Facebook
  • linkedin
  • YouTube