“The present disclosure combines the unique properties of nanotubes and in one embodiment carbon nanotubes, in a novel manifestation designed to meet current and future energy needs in an environmentally friendly way. Devices powered with nanotube based nuclear power systems may substantially change the current state of power distribution.”
–Retired U.S. Rear Admiral Craig E. Steidle of Seldon Technologies on cold fusion nanotube-based nuclear power systems.
Rear Admiral Craig E. Steidle – USN, NASA, DoD
Admiral Craig E. Steidle served as the first Associate Administrator of the Office of Exploration Systems at NASA (now known as the Exploration Systems Mission Directorate), an organization formed to implement NASA’s human exploration of the solar system as announced in the Vision for Space Exploration.
Adm. Steidle served as the Director of the Department of Defense (DoD) Joint Advanced Strike Technology Office and was the Director of the Joint Strike Fighter Program, DoD’s largest program.
Admiral Steidle officially resigned from the position of associate administrator for exploration systems in June 2005. He served as a Visiting Professor in Aerospace Engineering at the U.S. Naval Academy for five years and then briefly as the President of the Commercial Spaceflight Federation before fully retiring in 2011.
Craig Steidle NASA’s Future Is Rising From ‘the Swamp’
by Guy Gugliotta, Washington Post, Dec.15, 2004
At NASA headquarters, they call it “the swamp,” a broad expanse of the fifth floor where experts gather to figure out how to accomplish the most ambitious space feat ever: a multi-decade plan to send humans from Earth to the moon and ultimately to Mars.
The master of this domain is Associate Administrator Craig E. Steidle, the retired Navy rear admiral who runs NASA’s not-so-new-anymore Office of Exploration Systems and who went to work for NASA after the top brass lured him in as a consultant….
Craig Seidle and Dennis Bushnell were each highlighted in 2008 American Society for Engineering Education Conference. I imagine each know of each others works, Admiral Steidle as board-member of cold fusion company Seldon Technologies and Dennis Bushnell as a leader in NASA cold fusion.
Distinguished Lectures Presentation Title: “The Future(s) of Energetics” by Dennis Bushnell was sponsored by the Mechanical Engineering Division. This talk summarizes the increasingly dire and ever nearer term implications of Global Warming and Peak Oil and then considers the spectrum of “Green” and the “Ways Forward” to replace Fossil Carbon Energy Sources. There are four approaches possible in the nearer term. These include approaches with the capacity to replace petroleum for transportation and coal/natural gas for base load. While they require research, they are both feasible and affordable.
The lecture also considers the “frontiers of the responsibly imaginable” in energetics going forward, and “Wild Card” approaches which proffer revolutionary possibilities. Energetics issues considered include Generation, Storage, Conservation and Transmission. Lecture concludes with a brief discussion of “Second Law Warming”, which will follow Atmospheric Warming and constrains the solution options for Atmospheric Warming.
Best Paper Award – NSEE 2008 “The Loss of the Space Shuttle Columbia: Portaging the Leadership” by Robert Nieweoehner, Craig Steidle, and Eric Johnson, sponsored by the Engineering Management Division.
December 2008 “The Energetics Futures Brief” with NASA Chief Scientist Dennis M. Bushnell” for the University of Alberta Energy Club.
This presentation will focus on the advanced and futuristic technologies already at the laboratory stages or on the horizon that have the potential to shape how we will live and conduct our activities. The urgency for humanity to change energy consumption, and the types of energy that is used will form part of this presentation leading to a discussion on the following topics:
- Nano-plastics for the conversion of solar energy into electricity
- Thermo-electrics (i.e., the direct conversion of temperature differences), tidal-current turbines and geothermal sources for electricity production
- Production of food biomass and biofuels by means of genetically modified halophytes (salt tolerant plants) and algae growing in saline or brackish waters
- Robotics replacing higher-level human labour, machine intelligence and human life extension
- Carbon dioxide (CO2) to carbon monoxide (CO) conversion and hydrogen production by artificial photosynthesis
- Photo-catalytic electrolysis of water for hydrogen production
- Low-radiation nuclear fusion, such as proton – Boron 11 aneutronic fusion
- Low energy nuclear reactions
Now, Craig Steidle is on the board of directors of Seldon Technologies, Inc. The two following Seldon patents are noteworthy.
Methods of Generating Energy and/or he-4 Using Graphene Based Materials
Publication date: Oct 30, 2013
Inventors Christopher H. Cooper, William K. Cooper, James F. Loan
From the Patent:
 Fusion of two deuterons that are confined in a solid can theoretically result in three different outcomes as shown in the following equations (V. E. Kim, Purdue Univ., The 15th International Conf. on Condensed Matter Nuclear Sci. (ICCF-15) Oct 5 -9, 2009)
 For each 4He produced by two deuterons 23.8 MeV energy is released because of the well-known relationship between change in mass during a fusion process and energy release (E=mc2). It is speculated that the energy released is in the form or electromagnetic radiation with wavelengths ranging from Gigahertz to extreme UV, sometimes referred to as “soft x-rays”
 It has been discovered that graphene materials have an unusual electronic structure making it an ideal candidate for a variety of applications, primarily in the field of electronics. In particular, it has been discovered that the single atomic layer of carbon, characteristic of graphene materials, effectively screens Coulomb interactions, causing graphene to act like an independent electron semimetal. Furthermore, one particular graphene material, carbon nanotubes, can be grown with remarkable uniform diameters, number of walls, and atomic structure. See, “The Effective Fine-Structure Constant of Freestanding Graphene Measured in Graphite,” Science, Vol. 330 no. 6005 pp. 805-808 5 November 2010, which is herein incorporated by reference
 The results presented herein are, in general, consistent with other reported low-energy nuclear reaction (LENR) experimental results, most notably the work of McKubre at Stanford Research Inst, who reported a peak 4He concentration of 1 ppm after 20 days of aging palladium powder in D2 gas (APS meeting, Denver CO, March 5, 2007)
Methods of Generating Energetic Particles Using Nanotubes and Articles Thereof
US 20130266106 A1 – Publication date Oct 10, 2013
Inventors: Christopher H. Cooper, James F. Loan, William K. Cooper, Alan G. Cummings Original Assignee: Seldon Technologies, Llc
From the patent:
There is disclosed a method of generating energetic particles, which comprises contacting nanotubes with a source of hydrogen isotopes, such as D2O, and applying activation energy to the nanotubes. In one embodiment, the hydrogen isotopes comprise protium, deuterium, tritium, and combinations thereof.
There is also disclosed a method of transmuting matter that is based on the increased likelihood of nuclei interaction for atoms confined in the limited dimensions of a nanotube structure, which generates energetic particles sufficient to transmute matter and exposing matter to be transmuted to these particles.
This application claims the benefit of domestic priority under 35 USC §119(e) to U.S. application Ser. No. 60/741,874, filed Dec. 5, 2005, and Ser. No. 60/777,577, filed Mar. 1, 2006, both of which are incorporated by reference herein.
Disclosed herein are methods of generating energetic particles, by contacting nanotubes with hydrogen isotopes in the presence of activation energy, such as thermal, electromagnetic, or the kinetic energy of particles. Also disclosed are methods of transmuting matter by exposing such matter to the energetic particles produced according to the disclosed method.
A need exists for alternative energy sources to alleviate our society’s current dependence on hydrocarbon fuels without further impact to the environment.
The inventors have developed multiple uses for nanotubes and devices that use such nanotubes. The present disclosure combines the unique properties of nanotubes and in one embodiment carbon nanotubes, in a novel manifestation designed to meet current and future energy needs in an environmentally friendly way.
Devices powered with nanotube based nuclear power systems may substantially change the current state of power distribution. For example, nanotube based nuclear power systems may reduce, if not eliminate, the need for power distribution networks; chemical batteries; energy scavenger devices such as solar cells, windmills, hydroelectric power stations; internal combustion, chemical rocket, or turbine engines; as well as all other forms of chemical combustion for the production of power.