beta minus electrons (Atomic
to the Executive Engineering
webpage on Atomic Batteries (NAGs)
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pages that are accessible to the Public for viewing of
This page is set up exclusively for readers of
Defense Electronics Magazine
"October Issue" and you have presumably come here through a link from there.
Our purpose here is to give you a brief, plain language overview of the Nuclear
Accelerated Generator (NAG) and then give you the means to get further, detailed
At its heart, the NAG is a fully scalable device designed
to provide years of trouble-free electrical power for any application, large or
small. It is the result of years of experimentation as well as the application
of newly-developed industrial materials and technology. As a result, we can
confidently state that we have achieved an unprecedented milestone in the
production of electrical power.
Powered by nuclear isotopes, the NAG is fully capable of
generating both exceedingly large and exceptionally small amounts of electrical
power and to do it more efficiently, over a longer period of time and with fewer
breakdowns than any conventional technology currently in use. Because of the
unique traits of the NAG, Executive Engineering feels that it has a wide range
of uses in the military, civilian and industrial sectors. For instance:
The United States military depends, to a large extent, on
the use of high-technology devices to maintain superiority over potential
enemies. This technology, whether utilized by individual soldiers on the ground
or by jet planes, tanks, radar, field hospitals or whatever, requires the use of
huge amounts of fuel, batteries, generators and other means to produce
electrical power. Individual soldiers are often loaded down with batteries for
their night vision scopes, laser sights, radios, computers, etc and larger
vehicles are often followed into battle with convoys of fuel trucks.
The use of NAG devices by military units would virtually
eliminate dependence on conventional power sources such as fuel cells, solar
cells, fossil fuel engines and diesel engines. Not only would the NAG devices
eliminate all these technologies but it would do it more efficiently and less
expensively than allowed for by current technology.
Likewise the civilian sector could make good use of the NAG
technology. Since the NAG device is fully scalable and can be engineered to run
extremely large applications, it could produce power for entire cities or rural
areas without any dependence on traditional nuclear or fossil fuels. Further,
since it is not, at its core, a heat producing device, it is safe, reliable and
extremely efficient. It can produce power for the grid at a fraction of the
cost of traditional plants and with far greater efficiency than anything now in
use. As well, since it has no moving parts and does utilize nuclear reactions,
it is far safer than any other technology and it has, relatively speaking, a
very small footprint.
Smaller applications could also benefit from the NAG
technology. For instance large business, medical or industrial complexes could
have their own NAG generator producing power all without dependence on
traditional fuels. The high efficiency of the NAG would make such power both
safe and economical. Just as an aside, it should be pointed out that a complex
powered by a NAG device could, and should, sell back to the grid power that is
not needed by the complex. For instance, an industrial complex that is closed
during the night could sell back to the grid (for a profit) any electrical power
produced at that time period.
Remote sensors are one of the more obvious uses of the NAG
devices. For instance inaccessible sensors located on the ocean floor or on top
of mountains could be safely and dependably powered for years by small NAG
The transportation industry is also a likely candidate for
NAG use. Large trucks, buses and trains could all be powered by NAGs.
Utilization of NAG-powered engines would allow such vehicles to run for years
without and dependence on fossil fuels or, for that matter, without needed to be
refueled for years at a time. As with industrial complexes, we can foresee that
such vehicles could plug into the power grid when they are not operating and
sell unused electrical power back to the power companies for profit, thus adding
to their overall efficiency and cost effectiveness.
Medical uses of the NAG technology are quite feasible.
Many small and innovative artificial limbs and other prosthetic devices are
being fitted onto people with various disabilities and medical conditions and
most of them use battery-supported electrical power. These batteries have
notoriously short life spans and are bulky and heavy. NAGs could easily support
these medical devices for years without replacement.
The NAG units are entirely self-contained. That is, there
is no dependence on outside fuel or power sources. There is no need to fill
them with fossil fuel or to replace their batteries periodically. Depending on
the isotope being used for a particular application, they could run anywhere
from a few years to a few hundred years safely and efficiently.
The NAG is not designed, in and of itself, to produce heat
for power as are conventional nuclear plants nor does it produce any external
emissions. It is, therefore, safe for the environment, generally, and it is
safe for use in places that conventional nuclear power plants could never
operate. Safety is always a concern in any operation and, compared to
conventional nuclear power plants, the NAG device is one of the safest
mechanisms on the planet. It cannot melt down, explode or even use the isotopic
fuel to make a bomb.
This article is intended to offer a preview of the Nuclear
Accelerated Generator (NAG). It is not meant to be anything like an
all-inclusive report on how it has been developed and how it would be
manufactured. What we have tried to do here is to whet the appetite for more
specific, scientific information. At least some of that information is now
available for the first time, exclusively to readers of
If you will provide us an e-mail containing your
name, your company, your title and a business phone number, we will attempt to
answer whatever questions you may have concerning the Nuclear Accelerated
Generator. In this way we can set up an appointment to more fully explore the
specific science concerning the NAG or we can even answer your questions via
e-mail. Due to the highly sensitive information contained in the product
information, this is the only way we can proceed at this time.
The Nuclear Accelerated Generator is, in its entirety, 100%
proprietary intellectual property
of Executive Engineering of Florida.
For access to full
disclosure you must contact SUPPORT by E-Mail at Executive
||Limitations and Externalities
Currently supplies 0% of the global electricity demand.
|0.5 -2.5 Cents/kW-h
Fuel for the NAG is plentiful and, since it actually consumes
nuclear waste, it creates no additional nuclear waste problems.
Direct Energy Conversion From Nuclear Waste. The NAG
produces 40 times more power than current thermal nuclear
RTG technology @ 3%. Power Conversion Rate of a NAG
Atomic Battery @ ~85% efficient depending on isotopes used.
Converter size is extremely small and light weight. Fuel Life
3-200 years @ ~ $20.00 per watt unit of isotope.
" Note: The NAG is capable of producing
power at less cost than gasoline when gasoline was selling for
$2.25 per gallon.
EENAG's are DC Atomic Battery Systems.
They consist of an Atomic Charging Core (Nuclear
Accelerated Generator) and a Lithium Battery that
receives a specific charge over a period of time. They are
safe, pose no health hazard and have no harmful radiation
that can be detected outside the battery. These batteries
can be custom-designed and have a useful power output of several
minutes or hours at their peak power. Potential uses would include
sensors, cell phones, computers or any other electronic and / or
electrical equipment requiring dependable, long-life batteries.
Currently supplies around 15% of the global electricity demand.
|3.9 - 4.4 Cents/kW-h
||Gas-fired plants are generally quicker and less
expensive to build than coal or nuclear facilities, but a
relatively high percentage of the cost/KWh is derived from the
cost of the fuel. Due to the current (and projected) upwards trend
in gas prices, there is uncertainty concerning the cost / KWh over
the lifetime of such plants. Gas burns more cleanly than coal but
the gas itself (largely methane) is a potent greenhouse gas. Some
energy conversions to calculate your cost of natural gas per kwh.
100 cubic feet (CCF)~ 1 Therm = 100,000 btu ~ 29.3 kwh.
Currently supplies around 38% of the global electricity demand.
|4.8 - 5.5 Cents/kW-h
||It is increasingly difficult to build new coal
plants in the developed world due to environmental requirements
governing the plants. There are growing growing concerns about
coal-fired plants in the developing world. China, for instance,
imposes less environmental overhead, and has large supplies of
high sulfur content coal. The supply of coal is plentiful but the
coal generation method is perceived to make larger contributions
to air pollution than the rest of the methods combined.
Coal-fired plants contribute 50 tons of mercury to the environment
Currently supplies around 24% of the global electricity demand.
|11.1 - 14.5 Cents/kW-h
||There are huge political difficulties in using
nuclear energy in some nations and great risk of widespread (and
potentially lethal) contamination upon containment failure.
Fuel is plentiful, but problematic. Waste disposal
remains a significant and growing problem, and de-commissioning
plants is costly (averaging approximately US $320M per plant in
"Watt Unit of Isotope" , is a coined term that Executive
Engineering has developed for electrical power conversion of an isotope over
a time period.