Project Olympus: Lunar Construction

I have long held that the full implementation of space-based solar power (SBSP) will depend on the development of off-Earth construction capabilities and the utilization of off-Earth material resources. The deep gravity well of our home planet makes placing Earth-sourced and manufactured SBSP components in orbit almost prohibitively expensive, although recent advances in reusable launch vehicles is driving that cost curve down.

As NASA plans for long-term human exploration of the Moon under Artemis, new technologies are required to meet the unique challenges of living and working on another world.

NASA, ICON Advance Lunar Construction Technology for Moon Missions

In late 2022, ICON, a 3D printed housing company based in Texas, received a contract under NASA’s Small Business Innovation Research (SBIR) program to continue its research and development of lunar-based construction systems. Project Olympus will aim space-based construction systems to support planned exploration of the Moon, Mars and beyond.

“To change the space exploration paradigm from ‘there and back again’ to ‘there to stay,’ we’re going to need robust, resilient, and broadly capable systems that can use the local resources of the Moon and other planetary bodies. We’re pleased that our research and engineering to-date has demonstrated that such systems are indeed possible, and we look forward to now making that possibility a reality.”

Jason Ballard, ICON co-founder and CEO

Project Olympus will be the first significant off-Earth, largely autonomous construction project utilizing locally sourced materials. While not building solar panel arrays or wireless power transmission structures, the habitats, launch facilities, and other support structures that Project Olympus will hopefully create will be critical to establishing a persistent human presence on another world.

Perhaps an SBSP solar panel array manufacturing facility on the Moon should be on NASA and ICON’s short list of things to build out of lunar regolith next!

The New York Times on Space Solar Power

Looking to Space in the Race to Decarbonize

Space-based solar power, once a topic for science fiction, is gaining interest.

When The New York Times (NYT), a major US newspaper known to achieve 70 million unique monthly visitors, runs a positive article about the potential of space-based solar power (SBSP), that’s an indication that this clean energy game-changing technology is finally becoming part of the broader conversation.

Run as part of NYT’s Climate Forward event in its special section on climate change solutions, the article doesn’t break any news but does highlight the fact that advances in space launch technology by private companies have made the business case for SBSP much more viable in recent years.

I believe you will need to be a NYT subscriber to read the full article linked below:

Looking to Space in the Race to Decarbonize
by Nell Gallogly

It’s Always Sunny in Space

After listening to Can Science Save Us?, a conversation with Sir Martin Rees on the Michael Schermer Show, I wrote both Dr. Schermer and Lord Rees with the intention of telling them about space-based solar power (SBSP), which was not mentioned in the podcast. As a result, I was invited to write an article about SBSP for the current issue of Skeptic Magazine v28.2: Energy Matters. My article, ‘It’s Always Sunny in Space,’ is reprinted here with permission from Skeptic Magazine.

This is the highest resolution image of the Sun’s full disc and outer atmosphere (the corona) ever taken, as seen by Solar Orbiter in extreme ultraviolet light from a distance of nearly 47 million miles. This stellar image is a mosaic of 25 photographs taken on March 7, 2022 by the high resolution telescope of the Extreme Ultraviolet Imager (EUI) instrument. An image of Earth is included for scale, in the upper right corner of the illustration.

A tremendous thermonuclear furnace, our Sun radiates about 134,000 terawatts (TW) of continuous power to Earth’s surface, about 7000 times more than the entire population of humankind consumes from all current sources of energy.


It’s Always Sunny in Space

Why space-based solar power is a viable source of energy.

by Rob Mahan

Advances in human civilization have always been fueled by the availability of excess energy in various forms. For the vast span of human history, energy from the Sun was converted to food and biomass by photosynthesis and expended in the forms of muscle power and fire. Energy from the Sun produced weather, and as a result, wind- and water power were eventually harnessed and converted into increased levels of societal organization.

When humans began to extract massive amounts of energy from plant-based fossil fuels—which originated millions of years ago, through photosynthesis driven by energy from the Sun—further technological complexity, economic surplus that freed increasing numbers from manual labor, and human population all exploded. Gasoline-powered, mass-produced automobiles represented freedom in the form of personal transportation. Electricity became an efficient way to deliver energy to homes and businesses, and eventually to power a global information network. Growth was good, and seemed unstoppable, at least to those with easy access to abundant energy.

More recently, science and rationality have led us to a stark realization. Year-over-year economic growth, driven by the ever-increasing consumption of finite natural resources to produce abundant energy and other goods, has proven unsustainable. Coupled with concerns about climate change resulting from the release of excessive carbon dioxide into the atmosphere, three broad future scenarios emerge:

  • Continue the current, unsustainable trend of natural resource extraction, energy consumption, and economic growth, and let natural processes dictate the next era in human history.
  • Based on current and past technologies, voluntarily and drastically reduce global energy consumption and revert much of humankind to the previous era of muscle, wind, and water power.
  • Develop new technologies and find cleaner, renewable, or unlimited forms of abundant energy, while becoming better stewards of the finite natural resources that remain.

If the third scenario is the most appealing to you—as it is to me—and almost all forms of energy harnessed by humankind throughout history originated with energy from the Sun, doesn’t it make sense to look directly to the source in our quest to find a clean, unlimited source of energy for all of humanity going forward?

What does “space-based solar power” mean?

Space-based solar power (SBSP) refers to the concept of collecting the Sun’s energy in space and then transmitting it to Earth for use as a baseload renewable energy source. This involves putting solar panels in orbit around the Earth to continuously collect energy from the Sun. The energy is transferred to receiving antennas (rectennas) on Earth as microwave or laser beams, converted to electrical energy, and then sent to consumers through the existing power distribution grid. The goal of SBSP is to provide practically unlimited clean energy that is not subject to weather conditions or night-day cycles; energy that is available 24/7/365, anywhere on the planet.

Before we delve into the details and challenges around space-based solar power, let’s take a brief step back in time to see how humanity got where we are today, and how we may soon be consuming the equivalent amount of energy in 150 billion barrels of oil every year.

How much energy is globally consumed by humankind?

It took the first three million years of evolution for the world population to reach one billion of us. Over the past 220 years, fueled by advances in medicine, nutrition, and a massive glut of cheap energy from the worldwide fossil fuel industry, the world population has exploded to over eight billion humans. The United Nations estimates that the world population will expand to over ten billion by the year 2100.1 In the developing economies of emerging nations, particularly in Asia, per capita energy consumption is increasing as people seek better lives for themselves and their families.

Driving—or driven by—economic and population growth, worldwide energy consumption also exploded over the past two centuries, and with it, energy-related carbon dioxide emissions. The Enerdata World Energy & Climate Statistics lists the 2021 global total energy consumption as 14,555 million tons of oil equivalent (Mtoe), or for comparison purposes, the equivalent of about 169,277 terawatt-hours (TWh) of electrical energy. For 2021, the global electricity generation is listed as 28,433 TWh of electrical energy, or about 16.8% of the global total energy consumption.2

A mid-range scenario presented in the Enerdata Global Energy & Climate Outlook 2050 assumes policies that will lead to a global temperature rise between …

Click here to read the entire article in PDF format.



The Economist on Space Solar Power

A recent article in The Economist, 23 items of vital vocabulary you’ll need to know in 2023, was a fascinating list of new and not-so-new science and technology-related words / concepts that are starting to bubble up into everyday news stories and conversations. (If you have a free or paid account on The Economist website, or want to sign up for one, you can read or listen to the article linked above.)

The European Space Agency’s SOLARIS Space-based Solar Power Preparatory Programme, as mentioned in the referenced article

In good company with other vital new vocabulary such as passkeys and post-quantum cryptography, I am happy to note that Space Solar Power has been included near the bottom of the list. It’s exciting to see The Economist authors of this article state that the field of space solar power “… is experiencing a new dawn.”

Space solar power
The idea of capturing energy in space using huge solar arrays attached to orbiting satellites, and then beaming it down to Earth as microwaves, has been around since Isaac Asimov proposed it in a science-fiction story in 1941. But the sums have never added up: launching things into space simply costs too much. That could change if launch costs fall far enough, or if new space-based manufacturing techniques emerge, such as mining asteroids for raw materials. And in a high enough orbit, a solar-power satellite could stay in sunlight around the clock, providing a clean, reliable source of power. The European Space Agency sponsored a ground-based demonstration in Germany in 2022 as part of a proposed scheme called Solaris. America, Britain, China and Japan are also funding research in the field, which is experiencing a new dawn.

By Martin Adams, Aryn Braun, Joel Budd, Tom Standage and Vijay Vaitheeswaran

Energy from Outer Space: A SSP Course on Udemy.com

This is the first of several course preview videos available at
https://www.udemy.com/course/space-solar-power/

The course author, John Clarkson, contacted me through C-SBSP to make me aware of this online course about space-based solar power. I have purchased the course and completed the 1-1/2 hours of included lectures on a broad range of SBSP-related topics. Many other learning resources are also included.

I have concluded that this course would be worthwhile to anyone seeking a solid introduction into the following topics from the course outline:

  • Space Based Solar Power (SBSP)
  • How SBSP works
  • What are its major advantages and drawbacks of SBSP?
  • Which nations are developing SBSP and why?
  • An idea of what it costs to get SBSP into orbit
  • Rockets, how they work, with some mathematics
  • Orbital mechanics and how this is relevant to SSP
  • Wider future market opportunities for SBSP, including direct and indirect markets both new and to be developed
  • Why SBSP will be an investment in the future
  • SBSP weapons – Are they feasible? Can we make them safe?
  • A wider knowledge of the economics of energy and how SBSP can change it

Energy from Outer Space on Udemy.com

Read more about the course author, John Clarkson, along with this and other related courses at his website, Future of Energy College.

Dr. M.V. “Coyote” Smith, Col, USAF-RET

Click to listen to this one-hour interview with Dr. Smith on the Space Business Podcast on Spotify

Leader in the space based solar power (SBSP) effort and my inspiration as a citizen-advocate, Dr. Smith’s unfaltering enthusiasm for SBSP in this recent podcast interview continues to be inspiring as well as informative.

In 2007, As Chief, Future Concepts “Dreamworks” out of the National Security Space Office, Col. Smith was one of the team leaders that organized and lead a unique, voluntary group of 170 academic, scientific, technical, legal, and business experts from around the world to compile and publish the architecture study, Space‐Based Solar Power As an Opportunity for Strategic Security. It was this study that rekindled my fascination with SBSP and led me to become a self-appointed advocate of this game-changing technology.

In March 2007, the National Security Space Office’s Advanced Concepts Office presented the idea of space‐based solar power (SBSP) as a potential grand opportunity to address not only energy security, but environmental, economic, intellectual, and space security as well.

Space‐Based Solar Power
As an Opportunity for Strategic Security
Phase 0 Architecture Feasibility Study
Report to the Director, National Security Space Office
Interim Assessment
Release 0.1
10 October 2007

China: The Long March 9 and Long Term Planning

President Kennedy Addresses Congress May 25, 1961
(Photo from NASA Commons on Flickr)

China plans to use a new super heavy-lift rocket currently under development to construct a massive space-based solar power station in geostationary orbit.

by Andrew Jones in June 28, 2021 Space News

The American four-year political cycle dissipates tremendous amounts of energy and opportunity like so much waste heat. Right, wrong or indifferent, when the first acts of every new administration are to undo the efforts of the previous administration in some made-for-television show of power and bravado, truly important projects like space-based solar power (SBSP), which require long-term planning and commitment, may literally never get off the ground for the citizens of the United States.

Without the authority to enter into international treaties, the private sector probably can’t implement SBSP on its own. Without the incentive to plan and execute outside of the four-year political cycle, the government probably can’t implement SBSP on it’s own.

Does logic suggest that a public-private partnership will be required to develop and implement SBSP for Americans? Do we have to rely on Congress to create that partnership? Spurring Congress to that meaningful action might fall on the shoulders of all Citizens for Space Based Solar Power.

Read the full Space News article:
China’s super heavy rocket to construct space-based solar power station

NSS: “Dear Earth”

Dear Earth: We’re Sorry for What We’ve Done to You…

The National Space Society announced today its “Dear Earth” campaign for space solar power has been named in the Best of Social Media category in the 42nd Annual Telly Awards.

https://space.nss.org/

It has long been C-SBSP’s assertion that Earth-found fuels–carbon-based, uranium, thorium, etc.–are all finite natural resources that will one day be more costly to extract than the value of the energy they will yield. On a planetary time scale, or even the time scale of humankind, when that day comes is practically irrelevant. If we are not prepared when that day does inevitably arrive, civilization as we know it, and perhaps even the existence of humankind, will no longer be sustainable.

To once again restate the obvious, the Sun is our virtually unlimited source of abundant, clean energy. The only question that remains is how best to harvest energy from the Sun to provide sustainable baseload power on a planetary scale. In C-SBSP’s opinion, the answer is space-based solar power (SBSP), with the following conditions:

  • SBSP development and deployment must be done with the agreement, cooperation and participation of all space-faring nations, for the common good of all humankind.
  • Given the potential century-level project timeline, conventional political cycles and economic models must be superseded.
  • SBSP must utilize off-planet manufacturing, construction and maintenance.
  • SBSP must harvest and utilize off-planet materials and resources.

AFRL SSPIDR – Space Power Beaming

Space Solar Power Incremental Demonstrations and Research Project (SSPIDR)

Earth Day 2021 was celebrated with the highlighting of the Air Force Research Laboratory (AFRL) efforts to test, develop and implement space-based solar power to eliminate current supply chain risks and provide power directly to U.S. expeditionary forces.

The now ubiquitous Global Positioning System (GPS) was originally developed for military applications and has evolved into a multi-use system that is used every day by the general public. The development of space-based solar power is sure to follow a similar path into peacetime use by the entire planet.

SSPIDR is a series of Integrated Demonstrations and Technology Maturation efforts at the Air Force Research Laboratory (AFRL) Space Vehicles Directorate to address space-based power collection and transmission capabilities.

https://afresearchlab.com/technology/successstories/space-power-beaming/

Space-based solar power won’t be just a sci-fi dream forever, if things go according to the U.S. Air Force’s plans.

https://www.space.com/space-based-solar-power-air-force-sspidr-project

Space Solar Power has been internationally recognized as a foundational capability in need of development.

https://ladailypost.com/earth-day-feature-beaming-solar-power-from-satellite-array/