The Bergen Engine
Technological Breakthrough
An Overview
If we were to look at the state of the world in general and industry in particular in
die 21st century and project it into the future, many needs seem not only quite evident,
necessary, and universal, but also quite urgent. Essentially we're talking about fossil
fuels, about the natural supply that we've been using in order to create power and energy,
and which-according to fact-is finite and is being depleted at an exponential rate. It is
therefore necessary that we look to the future, and project our dependency on energy to a
time when we will no longer be able to utilise fossil fuels. It therefore appears
absolutely necessary, and urgent, that we begin to find ways of using other sources of
energy which are less likely to deplete, whilst mankind continues to strive and progress.
Even better-we have to find THE OPTIMUM SOLUTION that can take civilisation into future
millennia without causing major pitfalls in the centuries ahead.
The present outlook is not really promising. Numerous inefficiencies in the present set-up
have the potential to cause great disruption and stress in world industries, economy,
lifestyle, and social and environmental health and safety. It is not only necessary that
we find a means by which to alter our source of energy, but that this source of energy
satisfies other essential prerequisites.
It must be environmentally safe, in the sense that detrimental gaseous emissions, as is
common with today's fuel-driven systems, are eradicated, and therefore this system should
not play any destructive role at all in global warming. Such environmental conditions
require urgent treatment, in order to lessen the strain on populations across the globe,
and ensure that man's health does not diminish as a result of the bad state of the
environment. One of the most important questions we should ask is whether it is true that
some of the major environmental organisations are funded by key oil interests. We need a
major breakthrough to decisively turn around this situation.
Being assertive and efficient about ensuring social and environmental safety requires that
we look to the universal application of this system. It can be intuited that this system
be universally readily available, and not be associated to limited resources which only a
few select countries have access to. Rather, it must be associated with cost-effectiveness
and a healthy competitiveness, which will stimulate industry, as opposed to predatorily
victimizing companies who do not embrace the technology at the outset.
At the same time it should be kept in mind that the very essence of energy is competition.
Alongside cost-effectiveness, and a simple understanding of the wide application this
system will have to be able to achieve, it can be seen that in a world where transport and
mobility, for example, are relied upon for national and international travel that this
system must surpass the solutions that inventors and manufacturers of today's fuel-driven
systems have come up with. It's application for example in motor engines, must positively
effect travel and minimise congestion of traffic in some or other way, because we can
expect that in the 21st century, and moving on into the next century, travel abroad and
nationally will increase exponentially and will not really be freed up to become a truly
proliferated global traffic system, unless vertical take-off and landing transport can be
made economical. One of the reasons is that roads cannot be built over major oceans to
accommodate vehicles in the myriad of routes that will have to be opened up. On a global
scale, today's energy system, with its large jet aircraft and earthbound vehicles, with
its constraints in numbers and in earthbound limitations, will have to be dramatically
altered and improved to provide for this inevitable demand.
It has been the dedication by Jacques van den Berg over the past three decades to address
these urgent needs that have led to his invention and development of the Bergen Engine ©.
It is basically a no-fuel engine that runs by harvesting the kinetic energy of normal
compressed air molecules. The concept can be adapted to an individual unit in a vehicle or
a stand-alone unit of any size driving machinery in a factory, or to a unit driving a
generator to generate electricity. A factory owner in particular circumstances, such as in
a deregulated area, who installs a generator at one shaft end of a Bergen Engine © and a
manufacturing machine at the other end at each point where he used to make do with an
electric motor throughout his factory, reaps the benefit of additional
income, selling electricity to the national electricity distribution grid while
additionally enjoying the benefits of lower production costs! Truly a win-win situation!
The Bergen Engine/Motor © It will be available in all sizes throughout the spectrum, to
replace existing motors and engines. Ideally, it can run solely on a single charge of
compressed
air for many months or years, depending on the efficiency of the seals. The basic
principle has been proved by means of a model. The reason that the engine is expected to
run without replenishment is because the gas or other type of fluid is kept entirely
within the system, and so the same fluid will be re-used, perpetually as long as the seals
hold. (In primitive man-made energy systems, the gas is expelled after use.)
Compressors at the factory provides the initial pressure, while an auxiliary compressor
replenishes the gas that does escape past the seals, providing a theoretically infallible
perpetual energy system. It should be kept in mind that the small ancillary compressor
that pumps back leaked gas will be oversupplying gas to the system, allowing a
relatively long life for seals in the engine (maintaining an adequate supply while seals
deteriorate normally over time). An additional ultra high-pressure reserve pressure
vessel, which kicks in when emergency / additional power is needed in a hurry, can provide
for turbo power.
The precise details of the actual mechanical workings of the Bergen Engine © have not
been made available to the general public yet. However, certain details are available: the
Bergen Engine © uses a well-known phenomenon in nature such as centrifugal force (not the
latter), each component of the Pressure-Volume-Temperature (PVT) in the system remains
constant with the whole system running at or near ambient temperature, making it a 100%
environmentally-friendly system. The mechanism that drives the Bergen Engine © is purely
mechanical (with no chemical, magnetic or radioactive elements). Additionally, the Bergen
Engine © is able to start and operate under extreme weather conditions, because of the
fact that compressed air cannot freeze up, and because of the constant PVT in the system.
One of the concepts used in the development of the Bergen Engine © was that of driving a
piston downwards under compression, and then allowing it to return to it's initial
position (against atmosphere) whilst containing all of the gas inside the system. The
sequence of events in the engine can be reversed at will, changing the angular velocity
sharply or even bringing the mechanism to a halt, applying a brake when the revs are very
low. A useful corollary of this is that the engine can work in reverse, eliminating the
need for a reverse gear.
Professor W. J. Koen, retired Physics Professor at the University of Stellenbosch
stated on 18 May 2000, "As far as I am able to judge the arrangement suggested by
Jacques van den Berg violates none of the known principles in Physics that I am aware of.
It contains an arrangement, which, to my knowledge, is unique. I think the present concept
has that simplicity but special quality to be a winner."
Although the pressures in the system would be very high in some applications, the
Bergen Engine © is not bound to high pressures - i.e. it can run at anywhere between
moderate and high pressures depending on the specific application. In some cases, high
pressures would be potentially dangerous, such as in cars, and hence the Bergen concept is
flexible in that regard, making it suitable for a much larger range of applications. When
extremely high pressures are used (all pressure charges initiated by compressors at the
factory), a power-to-weight ratio comparison to conventional energy systems clearly shows
the advantage of the Bergen concept - the average pressure on a piston in a conventional
piston engine is 150 psi, while pressures of 6 615 psi are easily achievable when using
compressors. As a mean average, the power-to-weight ratio of the Bergen Engine © can be
said to be at least 5 to 35 times better than existing conventional technology. Hydraulic
pressure will be used in certain applications, where the advantage will be further
improved to anything up to 100 times. An advantage of 15 times seems to be the most likely
in this sphere of Bergen Technology.
A Bergen motor lasts at least as long as any electric motor and runs quieter without
the possibility of a burnout. Bergen Engines © have better acceleration in all classes of
motors. No detail has been overlooked as far as safety is concerned, with critical parts
having been 200% over-designed to cope with any possible eventuality. Even in the unlikely
event of a complete seal failure, sensors will detect this immediately, and sever the gas
supply to the affected section/s. The remaining pressure will then be raised, temporarily
drawing from the ultra-high pressure vessel, to consolidate this loss, enabling the engine
to continue functioning until the problem can be properly addressed.
Although theoretically not relying on external fuel replenishment, the Bergen Engine ©
requires that attention be given to the seals during certain major services, seeing that
the sealing system is subject to enormous strain. These seals will then inevitably,
together with basic lubricants, need to be replaced. These costs, however, are marginal
compared with the constant fuel costs required by existing technology.
When work on this report was commenced, the advantage of accelerating forces over
decelerating forces per cycle (excluding factors such as friction and gas leakage) in the
Bergen Engine was 40%. It had taken 17 years (from 1981-1998) to achieve a difference of
around 1%. Before this report was completed, the difference of 40% was increased to around
160%. At the end of 2002, the difference was 834%. The prognosis of this breakthrough is
that the Engine will be able to overcome friction and pump back leaked gas by shedding a
few RPM, which seems extremely positive. Bergen Management are now confidently awaiting
the outcome of tests to be performed on the Prototype presently under construction in
North America (the latter hopefully conclusively proving feasibility by the end of June
2003) that will hopefully substantiate the above claims, excluding friction and gas
leakage at this stage.
Due to the enormity of the project, and the extent of research which has gone into it,
it seems quite impossible to think that there might be mishaps of functionality, which
might affect the entire product. It seems more feasible however to think that any problems
or glitches, which might occur, shall do so on a more micro level.
On the other hand, the Bergen Engine © boasts great successes and strengths such as
uniqueness which consists in its being at the forefront of an entirely new economy and
industry, surely to have many fierce competitors and supporters. Due to this uniqueness,
if managed well, and if it's passing into the industry is as successful as its initial
idea, there is great promise for very high profit yields, and open planes of application
and manoeuvring.
One of the most important and substantial qualities of Bergen Engine © is that it is
proof that environment and technology can assist each other, and it therefore provides the
world, whose major players are constantly searching for ways in which to replace fossil
fuels before their eventual depletion, with a tangible, working model, from which to
progress even further, beyond simply engines, creating an entirely new source of energy.
In fact, the whole world is expected to Bergenize ©.
It can therefore be seen that technology, community, the environment, and industry,
actively assist each other in influencing the progression of science, and it is all of
these arenas which must be developed along with the functioning product, in order to make
this possible. This is exactly what Bergen Engine © technology promotes, a holistic
development, by means of a main design team of high intellectual ability and an
experienced and innovative management team, to work with the product.
With the Bergen engine © being one of the most brilliant inventions of all time, its
concept, design and working will have enormous benefits that will improve the lives and
quality of life of all its users.
Because the Bergen engine's © power to weight ratio is approximately at least 5 times
better than conventional technology used at present, large amounts of power can be
produced easier and safely, with the engine occupying less space and reducing costs
associated with products containing Bergen Engines and Motors ©; for instance in terms of
lower transport costs of products containing Bergen Motors © and occupying less floor
space. A common problem associated with power generation is the amount of space that large
engines, turbines and auxiliary systems such as nuclear reactors occupy.
The Bergen engine's © revolutionary uses will make it invaluable to every one of its
users. In transportation (as the power source in airplanes, cars, trains, ships etc), in
the home (as appliances and for power generation), in industries (as cheaper forms of
power generation and additional source of income while selling Bergen generated zero-fuel
electricity to the national distribution grid) as well as in various forms of agriculture
(in tractors, water pumps, etc.). The Bergen engine © can and most probably will replace
all conventional internal combustion engines and all electrical motors, within the next
one and a half decades.
The Bergen engine © will last as long as the conventional electric motor, only no
burnouts will be experienced. Being a purely mechanical mechanism and being able to
replenish its own source of power, no fuel is required. The user will never have to fill
up with compressed air as the ancillary compressor does that on a continual basis. The
engine will also not require any need for "additives" such as hydrogen-producing
substances. Because the engine runs off compressed air, using the engine is the cheapest
and most practical way to carry out our daily lives. The engine could save the consumer
trillions of Dollars in fuel costs, which is not surprising considering that fuel costs
exceed the initial purchase price of a vehicle in the long run. With only a very limited
amount of fossil fuels available, conventional engines cannot continue forever. This opens
the door for this revolutionary invention to make its mark, as it becomes the most
practical way for source of power, to travel and save large amounts of money.
In terms of investment, the Bergen engine © could possibly yield returns of
approximately 2000-4900 %, making the Bergen engine © an investors "dream come
true".
Owners of vehicles fitted with the Bergen Engine© will not have to worry about high
maintenance costs, only the occasional seal, roller, bearing and lubricants that accompany
its usual services. The general principle is that the zero-fuel benefit will be split
40-60% in favour of the user of Bergen Technology. The engine runs at near ambient
temperature, making it very safe for the user and the environment, with little or no
effect on global warming.
Most power generating engines emit large amounts of dangerous toxins into the
atmosphere, making them extremely harmful to all forms of life. The Bergen engine © on
the other hand is 100% environmentally friendly, there are no dangerous gases emitted
whatsoever, neither in manufacture or in use. Also the compressed gases used in the engine
are nothing more than harmless air from our surrounding atmosphere. Noise emitted by most
power generating devices has a significant contribution to another form of
"clean" yet harmful pollution, namely Noise pollution. The Bergen engine©
however is not a contributor to this problem, it is quieter than an electric motor. It is
also, in terms of safety as safe as a gasoline /petrol engine.
The Bergen engine © will also have endless possibilities in the military, as engines
for fighter jets (making them more compact and faster), as well as in helicopters,
submarines, warships and tanks. The possible uses for the Bergen engine © are however by
no means closed. There are also vast opportunities for this engine to be used in future
space exploration.
The engine / motor will be used in nearly every single facet of our daily lives, from
refrigeration to transportation, from huge power generating engines for industries and
cities to micro motors for batteries in cell phones, laptops etc.
As far as technology is concerned with the development and invention of better and
safer power generating devices, and keeping in mind the problems of finite amounts of
fossil fuels available as well as the effects of using these fuels, alternate sources of
power have had to be developed. The Bergen engine © is the very best solution to these
previously raised concerns, as it has far reaching beneficial possibilities to all of
mankind. Its impact on society is, immeasurable. |