Power and Control: The Anti-Nuclear Energy Movement - Leveraging the Japan Tsunami and Other Disasters

[FastTadpole]

A book that delves into the the Anti-Nuclear Energy Movement in a direct manner. In reading the summary it comes across as a bit generalist in saying that all nations are denied since China and India are being given free reign on building up their nuclear power base using better technologies than say, the aging reactors in Japan, most of Europe (where ~40% of EU power demand is met by nuclear energy) and the US.

Quote:Nuclear Power: Anathema to the New World Order
By John Coleman
Publication Date: October 30, 2010


One of the greatest advances made by man was the discovery of nuclear energy as a source of cheap and safe electricity. It promised to transform the world within a time frame of a maximum of three decades. In order to understand world events in both the areas of politics and economics, one must have a thorough understanding of religion and secret societies which play a leading role in world events. Secret societies, more so in 2008 than ever before, greatly influence the course of momentous events. The rich and the powerful belong to secret societies that most ordinary people have never, even heard about, and it comes as a surprise to many to find out that such notable personages the Elizabeth, Queen of England is a member of a number of them, all of which play a big role in shaping the course of events.

Nuclear power generated electricity is particularly hated by the leaders of secret societies, the men the Bible calls “spiritual men who walk in darkness and whose deeds are evil.” The Bible foreshadowed the coming of plague pandemics such as AIDS and SARS, ordained for the world’s “excess” population diminution by these leaders. Nuclear power is hated by the elite because it brings new hope to millions of people who will aspire to a better life once nuclear power is running and available in every city and town throughout the world. The very poor, the downtrodden and the unwanted see new hope in nuclear generated power, as the book goes to some length to explain, the very thing the Illuminati members are so much against. They don’t want an extension of life for those who would otherwise die at a very early age in such countries and India and China.

The book makes it clear that if nuclear power is allowed to reach its full capacity and its full promise, the world will take on a new lease of life that will be of unmatched benefit to all people of all nations. It also makes it clear why there are powerful people who see this as an unmitigated disaster and who will do all in their considerable power to prevent nuclear power coming into full flower.

http://www.amazon.com/Nuclear-Power-Anat...B001RF2DJS



I'd very much like to acquire this in PDF

[Sovereignman]

The political aspects aside, I really like solar technology and I am disappointed that man didn't delve deeper into trying to make it work for our energy needs before resorting to using dangerous nuclear energy instead.

[yeti]

(04-04-2012 09:04 PM)Sovereignman Wrote:  I really like solar technology and I am disappointed that man didn't delve deeper into trying to make it work for our energy needs before resorting to using dangerous nuclear energy instead.

You can't make nuclear weapons from solar power.

[FastTadpole]

But how much destruction (mining, labour, forced purchase, subsidy, patent, land footprint) can the solar power industry, in its current and proposed form wreak?

he Trillions Poured into Multi-National Solar Energy - Green Hope & Epic Boondoggles
http://concen.org/forum/showthread.php?tid=38957

Quote:The Thorium Dream (2011)
There’s much to take for granted in the evolution of technology, or at least in the way that technology appears to us today – refined, perfected, ever cutting-edge.

Globally, our energy and resource supplies are becoming increasingly costly to extract and use. Demand has never been higher; ditto levels of CO2 and other terrible greenhouse gases in the atmosphere.

Nuclear energy is powerful, but it can look worse, given persistent waste storage issues and the threat of proliferation.

So when the topic of thorium nuclear energy comes up at a party, or in a webpage comment string, it elicits angry dismissals, or heaps of praise.

The idea of building small, thorium-based nuclear reactors – thought to be dramatically safer, cheaper, cleaner and terror-proof than our current catalog of reactors – can be shooed away as fringe by some.

Watch the full documentary now (28:26)

http://topdocumentaryfilms.com/thorium-dream/
http://www.youtube.com/watch?v=GQ9Ll5EX1jc

[TeslaandLyne]

The last news I heard on the no nuke front was Japan was shutting down nuke power plants for maintenance and there was a question if they would go online again. Before that news Germany said they were treading away from the nuke power plant. So assuming the elite know way more than I know about free energy I wonder what free energy source will they tap to sell us energy and of course what dummy figure head will they put in front perhaps explaining more efficient power generation.

The biggest front man ever would have to be Dr. Goddard but you can read about that in the published works of Mr. Lyne.

[FastTadpole]

Quote:It’s time to stop being scared of the atom
Our irrational fear of nuclear power is undermining the search for a safe, clean source of energy, argues Paddy Regan.
By Paddy Regan
9:00AM BST 29 May 2012


Three places: Three Mile Island, Chernobyl, Fukushima. And three more: Banqiao, Machhu II, Hiakud. Most people react with horror to the first trio, while the second three locations usually draw a blank look. In fact, the latter were the sites of three major hydroelectric dam failures: in China and India in 1975, 1979 and 1980, which were directly responsible for the deaths of tens of thousands. In contrast, the death toll directly associated with radiation exposure from the three best-known civil nuclear accidents is estimated by the World Health Organisation to be conservatively about 50, all associated with Chernobyl.

Nuclear power has had a pretty bad press recently. In the post-Fukushima world, major power companies such as the German-owned E.ON and RWE-npower have taken the decision not to invest in building new nuclear power stations in Britain, citing costs in the current economic climate.

Some activists argue that the economics of construction and operation of nuclear power stations are sufficiently prohibitive that increased investment in safe, renewable power supplies such as offshore wind projects are a more attractive option.

But why is nuclear power now so expensive? I suggest that it is at least partly due to an inflated analysis of the potential health risks associated with civilian nuclear waste in particular, and an exaggerated assessment of “nuclear risk” in general.

It is true that the management of waste reactor fuel is a significant fraction of the overall costs, but if nuclear waste disposal were calculated in proportion to the actual risk associated with the hazard, the prohibitive economics of nuclear power would be reduced significantly.

Indeed, “nuclear risk” is in a category all of its own, as was seen all too clearly last year when a major natural disaster, the Tohoku earthquake, which killed tens of thousands of people, was quickly overshadowed in the global collective consciousness by the consequent nuclear incident at the Fukushima plant, which killed no one.

A number of countries, most notably Germany changed their national energy policy with regard to the future development of civilian nuclear power.

The public reaction to Fukushima and the response compared with other energy-related disasters raises the question: what is it specifically about nuclear power issues that provokes such a strong response?

It was back in the Thirties that Otto Frisch and Lise Meitner showed that splitting a heavy uranium nucleus into two lighter elements, such as strontium and xenon, resulted in the release of millions of times more energy per atom than burning coal.

Nuclear technology then rapidly expanded as a result of the Manhattan Project, with the construction of superweapons capable of unleashing the explosive power of uncontrolled nuclear fission and, later, fusion. Iconic images of mushroom clouds became fixed in our minds following the devastations of Hiroshima and Nagasaki. And so, for many, civilian nuclear power and images associated with nuclear weapons remain intimately linked.

I believe that this emotional link between defence and civilian applications of nuclear technology constrains a rational, scientific analysis of the uses and relative benefits of nuclear power. Certainly, fears of the biological effects of invisible radiation can lead to some bizarre behaviour.

The Italian foreign ministry, for example, recommended that its citizens flew out of Tokyo to avoid potential radiation exposure in the first couple of weeks following the Fukushima leak. While the radiation levels in the Japanese capital rose significantly above normal, they remained lower than the typical average background radiation levels in Rome, leading to the bizarre situation of individuals being relocated to places with higher radiation levels than those they were leaving.

And a pervasive myth has taken hold that even tiny amounts of radiation are unsafe. In reality, this cannot be so, as humans have evolved in an invisible sea of naturally occurring radioactivity. Much of this arises from radioactive forms of potassium, uranium and thorium; remnants of the Earth’s formation more than 4 billion years ago. Human bodies are bubbling with radioactivity, with around 7,000 atoms decaying each second due to radioactivity from potassium-40 and carbon-14.

Our understanding of the biological effects of radiation has been developed over more than 80 years, following the first meeting of the First International Congress of Radiology in London in 1925. Radiation-induced effects such as radiation sickness were noted to occur with exposure to specific organs only above a well-defined threshold dose. As to cancer, the probability of a malignant tumour arising is thought to be related to the quantity and type of radiation to which an individual has been exposed.

The cohort of Japanese bomb survivors who were exposed in 1945 are the standard baseline for radiation-induced cancer effects in humans, and the majority of the data on the long-term effects of radiation on humans comes from detailed studies of this group. Perhaps surprisingly, of the 87,000 individuals in this cohort more than 30,000 were still alive 55 years after Nagasaki and Hiroshima.

This group showed approximately 10,000 deaths from leukaemia and other cancers up to the year 2000, but it has been estimated that only approximately 500 of these individuals died from cancers associated with their radiation exposure to the atom bombs.

There have been three major accidents in nuclear power production in more than 14,000 “reactor years” of operational, civilian nuclear power. The reactor core meltdown at Three Mile Island in 1979 made headlines but the melted fuel remained contained within the main reactor vessel, with no measurable radiation health consequences.

At Chernobyl a steam explosion blew out the reactor-holding vessel, the reactor core caught fire and a radioactive plume belched into the atmosphere for 10 days, with an estimated 5 per cent of the entire reactor core released. Twenty eight people, mostly firefighters, died within a few weeks of exposure from acute radiation syndrome. According to the World Health Organisation, an additional 19 died between 1987 and 2004 of cancers which might have been radiation-induced.

In the 20 years following 1986, no statistically significant health effects on the wider population could be correlated to caesium-137 exposure from the Chernobyl release.

But it is what to do with radioactive waste that remains a major and emotive issue in the minds of the public and politicians alike. Although some elements in spent fuel waste can remain radioactive for many thousands of years, the safety issues here seem to be political, rather than technical. Indeed, nature provides excellent examples of nuclear waste storage, with the example of the Oklo natural reactor in Gabon. Geological examination of this area shows evidence of an ancient, naturally occurring nuclear reactor within the uranium-rich mineral deposits which operated approximately two billion years ago. The radioactive “waste material” from the natural reactor at Oklo appears to have migrated less than 10 metres from where it was formed.

If this is what happens in nature’s random geological disposal site, a carefully chosen, geologically stable deep storage facility for vitrified nuclear fuel waste would seem safe to me. Civilian nuclear power represents approximately one sixth of the world’s current electricity production, operating in more than 30 countries.

Interestingly, while the civilian nuclear programmes have their ups and downs, fundamental nuclear physics research has never been more vibrant.

The danger for future generations is that our residual, Cold War-based fear of radiation means that we face an uncertain future, reliant for our energy needs on coal, imported gas and unproven technologies such as carbon capture and offshore wind farms. Meanwhile Britain’s carbon reduction targets remain as unattainable as ever.

Our irrational fear of the atom stands in the way of the development of nuclear power and its potentially vital contribution to the long-term energy needs of an ever-increasing and energy-greedy world population.

Paddy Regan is director of the MSc course in radiation and environmental protection at the University of Surrey, Guildford

http://www.telegraph.co.uk/earth/energy/...-atom.html

[TeslaandLyne]

From the E-Cat description above:

Quote:The E-Cat combines a small amount of the abundant and safe element nickel with hydrogen in the presence of a catalyst (the name of which is proprietary for now) under pressure in a sealed chamber. When a small amount of heat is applied to the chamber, it starts a nuclear reaction that generates more energy -- over 30 times more -- in the form of heat.

The reaction is from atomic hydrogen H which is one of the
elemental hydrogen of the supplied hydrogen gas H2.
The small amount of heat that is mentioned is to separate the
H2 into 2 H which is 103 cal/ mole.

The 2H can combine back to H2 with a release of thermal
energy captured from the environment a maximum of 109kcal/mole
a 1000 times input of heat.

The reaction perhaps only needs a sufficient metal chamber.
This reaction was written up by William R. Lyne which he now
claims was occulted in published data books until he realized
the source was among his research of Tesla and has his own
furnace to provide steam to run turbines powerful enough to
generate electricity.

http://tech.groups.yahoo.com/group/lahf/
lahf · Lyne Atomic Hydrogen Furnace
A look at the front page and view of message might be possible.