body top image
Issue 17
issue pic

Space Solar Power Aids Space Settlement

Students: Gaurav Kumar, Deepak Talwar, Harman Jot Singh Walia, Mahiyal B. Singh, Kaenat Seth, Ishaan Mehta, and Navdeep Singh Makkar

Advisors: The teachers of Spring Dale Senior School
in Amritsar, India.
Stephen Buchanan of Ohio University served as a Space Journal Liaison


The Grand Prize for the 2011 NASA Ames Space Settlement Contest went to a team of 7 students (11-12 grades) from Punjab, India for creating the Hyperion Space Settlement. This year the contest received 355 submissions from 1078 students sponsored by 114 teachers. Entries came from 14 countries: Australia, Bulgaria, Canada, China, India, Ireland, Japan, Pakistan, Romania, Singapore, Turkey, Ukraine, United Arab Emirates, and the United States. The prize was conferred on the students during the International Space Development Conference 2011 (ISDC 2011) held in Huntsville, Alabama, USA.


This section describes the principal energy components of the Hyperion Space Settlement.

Sunlight being abundantly available in space, electricity will be produced to meet the settlement’s basic energy requirements. To the extent feasible, Hyperion will also trade its surplus energy with Earth.

Photon Enhanced Thermionic Emission (PETE) solar panels are mounted on the residential tori, covering 1/6th of the curved surface area of 1,592,785.5 m2.

The efficiency of the PETE solar panels is double that of the traditional solar panels. Hence the solar panels shall produce 2 kW per sq. metre per day.

  • Power produced by settlement /day = 1,592,785.5
  • Power required by settlement/day = 282,000
  • Surplus Power/day = 1,592,785.5 – 282,000 = 1,310,785.5 kW

Asteroid Contingency

In the event that an asteroid or any large piece of space debris approaches the path of the settlement, a contingency plan will be followed to prevent damage to the settlement.

For asteroids with a diameter of 150 km or larger, projected to come within the path of the settlement, the Hyperion Executive will activate the several sets of large aperture parabolic reflectors. These mirrors will be placed so that they focus the sun’s rays to a point on the asteroid, creating very high temperature. At those points, the asteroid will begin to melt, thus forming an air-pocket. With air-pockets forming on its surface, the asteroid can be directed to change its path.

issue pic

The Hyperion design Team with George Whitesides, CEO, Virgin Galactic at the International SpaceDevelopment Conference in Huntsville Al (USA) in May 2011


Hyperion space settlement will have an economic base. Like any other human settlements, such as villages, cities or countries, the space-based community will be engaged in commerce, supporting multilateral trade.

Hyperion will have Earth as its principal trading partner. The settlement will be a provider of those goods and services that Space can uniquely provide. In turn, the settlement will barter or purchase those items it needs from its homeland.

There are advantages to the establishment of industries in micro gravity. Weightlessness provides uniquely desirable conditions for scientific and applications-oriented research. For example, on Earth, when a substance is heated, melted, solidified, crystallized, mixed, sprayed or burnt, gravity has a strong influence over what will happen. The work of certain industries will be easier to handle due to weightlessness in the microgravity environment of space.

Types of Industries

The four main industries with which Hyperion is most likely to be involved for purposes of research and production are:

  1. Electricity
  2. Pharmaceuticals
  3. Glass, and
  4. Ceramics

Each of these space-industries will be highly automated and expected to play an important role in sustaining Hyperion’s economy. Control and maintenance of these and other ventures will be the responsibility of the Hyperion Executive.

Electricity industry

Electricity production and distribution is used as an illustrative example. Hyperion is powered by sun’s energy generated by its own photon enhanced thermionic emission (PETE) solar panels (noted above).

As Earth is suffering from an energy crisis, Hyperion space settlement will act as an environmentally friendly energy provider microwaving its own collected power to Earth where the energy will be converted to electricity.

Surplus electricity in the settlement will be converted into microwaves and relayed to Earth via solar power stations positioned in orbits whose mean distance from Earth is 192,201 km, and further directed to space solar relay stations placed in geostationary orbit at 36,000 km from Earth. Ground stations on Earth will be installed in line-of-sight of the two respective power satellites where the energy will be received and converted into usable electricity.


  1. Rana Y. (2011) Amritsar students win $ 5,000 from NASA. The Times of India, New Delhi, June 25, 2011.

  2. Space Settlement Nexus. (2011) The People of Earth Have Both the Knowledge and Resources to Colonize Space. The National Space Society.
    Johnson, R.D. and C. Holbrow.

  3. (1977) Space Settlements: A Design Study; Spreading Life Throughout the Solar System. NASA Ames Research Center. NASA-SP413,


filler image
body bottom image