09 November 2007

recent Australian URANIUM assessments

The big hole Print E-mail
By John Busby
Feb/13/2007

Escondida uranium mineThere are now many countries, including the UK, intending to build a new fleet of nuclear power plants, to replace those nearing the end of their operating lives or to expand their current fleet. After many years of doing little, the world is invited by a nuclear lobby to embrace a "nuclear renaissance". It claims that nuclear power is characterised by



  • zero or extremely low carbon emissions and
  • that it offers security of electrical supply.

Both claims are bogus; carbon dioxide is emitted from every element of the nuclear fuel cycle except the actual fission in the reactor and

the world is running out of its fuel, uranium; a reality the lobby fails to embrace.

Lots of uranium?

 The interest in nuclear generation by so many nations has been engendered by a panic. This was caused by

  • the momentary turning off of the gas through Ukraine and
  • the oil through Belarus by Putin's Russia.

The panic is warranted, as Russia consumes internally 70% of its natural gas production and with economic growth from a low base, it will soon need all of its gas and probably all of its oil for itself. Its neighbour, China, will take up any surplus oil and as OPEC throttles its production to maintain a crude oil price hike, the rest of the world knocks at the door of the Kremlin, where President Putin is regaining state control of Russian energy assets.

But is there a plentiful supply of uranium to fuel the world's existing fleet of reactors, the needed replacements and an expanded nuclear sector? The industry claims that after the currently mined uranium ores of a commercial grade have been exhausted, the earth's crust, hypothetically, possesses an adequate supply of very low concentrations to provide sustainable energy for decades.

It is also claimed that once the uranium is gone, even though there is plenty, the introduction of breeder reactors in association with chemical processing and plutonium fuel manufacture would extend the life of nuclear power for centuries. That this claim can be dismissed is the subject of another's work.[1]

The claimed low carbon emissions and the potential for the alleviation of climate change by the expansion of nuclear power are subject to dispute. Even if it were carbon free, the contribution of nuclear power to global energy demand is so trivial (at 6% of primary thermal energy or 2½% as electrical energy) that its current contribution to a reduction in carbon emissions is negligible. Worse still, the extraction of uranium from ultra low ore grades would require the processing of inversely larger quantities of material so that the mining and milling energy input together with the energy inputs in the subsequent fuel nuclear fuel cycle exceeds that derived from it. The claim of the nuclear lobby, that there is an abundance of available uranium in the earth's crust, is an attempt to persuade gullible politicians that nuclear energy has a future against a background of falling primary mining production.

source: uic.com.au

Two countries supply half of the currently mined uranium: Canada and Australia. Canada possesses extremely rich ores and has historically produced the most uranium from a succession of mines. Each one has built up its production, which has levelled off and then declined until the mine is closed. The initiation of the latest in the series, Cigar Lake, has been delayed due to flooding. This may well mean that the overall Canadian production in 2007 will be lower than in 2006.Australia claims to have the largest uranium reserves and aims to be the world's biggest producer. Indeed, some believe it should build its own fleet of nuclear stations, whereas at the moment it has only a pilot reactor. World attention focuses on the Olympic Dam mine expansion in South Australia, which is the subject of a feasibility study by its owners, BHP Billiton.

Australia's uranium mines

There are three operating mines in Australia, Ranger in the Northern Territory, Olympic Dam and Beverley in South Australia. A fourth, Honeymoon, is about to start production in South Australia.[2]

source: uic.com.au

Ranger produced the most uranium up until 2004-5 when it peaked at 4,700 tonnes (5,544 tonnes U3O8), but mining is scheduled to be closed at the end of 2008. The managing company ERA is 68% owned by Rio Tinto which judges the economics of its mines by the "head cut-off grade", by which is meant the grade of the ore presented for milling after much of the waste rock has been separated. Below this grade the mine is deemed to be uneconomic. Recent uranium price rises allowed Rio Tinto to revise the Ranger head cut-off grade down from 0.12% to 0.08%, which will allow the processing of ore stocks and tailings to continue until 2014.[3]

Nearby Jabiluka mine is under "care and maintenance" and will not re-open without permission from its traditional owners.

The second biggest producer, Olympic Dam, is an underground mine, from which uranium is a co-product with copper, silver and gold. Its uranium production also peaked in 2004-5 at 3,690 tonnes (4,356 tonnes U3O8) and is now set in a rapid decline. In 2006 production was reduced to 2,877 tonnes (3,393 tonnes U3O8). Because of this, the owners, BHP Billiton, have launched a pre-feasibility study into its expansion as an open pit mine.

Olympic Dam

Beverley is an in-situ leaching operation in which chemicals are injected into the ground to dissolve the uranium in the orebody. The uranium is then stripped from the solution by an ion-exchange process and the residual liquid returned underground. Production at Beverley passed its peak in 2004-5 at 900 tonnes (1,064 tonnes U3O8).

source: bhpbilliton.comIt is clear from a rudimentary study of the production figures that Australian uranium production will continue to stagnate unless and until the Olympic Dam project (scheduled to start in 2014) passes its feasibility study and goes ahead.

The Olympic Dam expansion

Since Olympic Dam underground mine is on the downward slope of its Hubbert production "bell-curve", its previous owners, WMC, began to study the potential to expand into an open pit. Prospects of expanding its production to 500,000 tonnes of copper and 15,000 tonnes of uranium oxide per annum attracted the attention of BHP Billiton and it became the new owner. The company is engaged in a serious and expensive feasibility study to support (or otherwise drop) the massive investment in mine development and infrastructure required.[4]

source: uic.com.au

Unfortunately the project has caught the attention of the politicians who have already promised some of its output to China and India, to the possible detriment of the Australian uranium's customers in the US, Europe, Korea and Japan. A final result of the feasibility is not expected until 2009, followed by 4 years of mine development, until production can begin in 2014. If the company then declines to proceed, it will be under enormous political pressure, nationally and internationally to nevertheless go ahead, not least if the Chinese have initiated building a fleet of nuclear power plants relying on Australian supplies. The Chinese have already requested permission to mine for their own uranium in Australia and may insist in taking over the project.

An Australian Broadcasting Corporation reporter, Hayden Cooper interviewed the South Australian premier Mike Rann with Roger Higgins, BHP's Base Metals director in November 2005 when the first intimations of the size of the Olympic Dam expansion emerged.[5] The orebodies occur between 350 metres and 1 km down, so that to start the open pit a hole 3 km by 3 km by 350 m down will be excavated and the spoil set to the side, before the first copper and uranium ores are reached. BHP anticipate that the initial excavation will take 4 years to remove 3 cubic kilometres of rock. The scale of the excavation can be seen in the aerial picture[6] of the Escondida copper mine in Chile, which it is expected to rival.

The most interesting aside from this interview was that Mike Higgins stated that "Without the copper and the other products, gold and silver, there wouldn't be a mine here". The uranium ore grade at Olympic Dam is around 0.04%, so it can be concluded that the other uranium deposits in Australia, with an average grade of 0.045% would only be viable in association with other products. Unless the prospecting finds other more remunerative co-products, further uranium mining projects in Australia can be ruled out.

Olympic Dam's infrastructure

Water

The current underground mine and ore processing requires a 12 billion litres/annum water supply, which comes from two well fields in the Great Artesian Basin. An additional 44 billion litres of water a year (120 megalitres/day) will be required for the expansion and it is proposed to build a seawater desalination plant at Port Bonython, North East of Whyalla on the Upper Spencer Gulf. This will require the laying of a 330 km pipeline and associated pumping. The desalination plant will require 35 MW electricity supply.

South Australia is Australia's driest region and uses recycled water for crops. Recent rains have not entirely replenished the acquifers. Uranium mining might not enjoy a high priority for energy-consuming desalination if farmers continue to suffer the consequences of the recent severe drought.

Electricity

The expansion will require the building of a 275 KV transmission line providing 400 MW of electricity or a gas pipeline to supply a power station.

Transport

An 80 km rail extension is planned from Pimba to transport of over 2 million tonnes per annum of materials and products. Port facilities will be extended. The Roxby Downs airport will have to be moved.

Town

Roxby Downs will be extended to cater for an additional 5,000 inhabitants and a temporary construction camp for 3,000 workers for 3-4 years will be built.

Although the infrastructure capital expenditure may be raised by public bodies, the costs of using the facilities will be reflected in the product prices.

Energy capital

 Energy will be required for the prospecting and development of the mine and its processing plant as well as its infrastructure requirements. However, the main input will be the excavation of the open pit, which will require predominantly diesel for the drilling of holes for explosives, the side-loading excavators and the haul trucks.

Australia is a net importer of diesel equivalent to around 100 PJ, which at 38.66 GJ/m3 is 2.6 million m3 or 2.17 million tonnes diesel imported per annum. The excavation of 3 cubic kilometres of rock and depositing it around the hole would require around 6.6 million tonnes of diesel alone over the four years, or 1.65 million tonnes per annum. This single project would increase Australia's diesel imports by 70% over the four years.

There are other energy expenditures associated with the excavation of the hole, such as the manufacture of the explosives and the maintenance of the equipment and administration services.

  • Other energy capital will be expended when building the
  • desalination plant and
  • water pipeline,
  • the electricity transmission line,
  • the rail connection,
  • the moving of the airport and
  • the building of the town extension and temporary accommodation and not least
  • the manufacturing and
  • transporting of the processing plant and
  • its erection and
  • commissioning on site.

Energy consumption

It is anticipated that around 40 million tonnes of ore will be mined and milled per annum, producing 500,000 tonnes of copper and 15,000 tonnes of uranium. Assuming a waste rock to ore ratio of 2½ : 1; some 100 million tonnes will be excavated and set aside as waste. To accomplish this some 600,000 to 700,000 tonnes of diesel per annum will be required.

There will be added to this the process energy consumptions. As the ore contains all four co-products which are chemically separated, it will be difficult to attribute the various energy consumption to the products and the company's published environmental data refrains from doing so.

As far as the non-uranium co-products are concerned the project feasibility study will have to compare costs and prices, taking into account the constant fluctuations in fuel and commodity prices. In the case of uranium, the task is somewhat easier as the energy inputs can be compared with the energy outputs over a subsequent nuclear fuel cycle.

If it does go ahead, the Olympic Dam expansion will be uniquely viable. If the extraction of the copper and other co-products proves to be economic, it will compensate for the energy losses occasioned by mining and milling the low grade uranium ores.

The future of Australian uranium mining

Australia has played its part in inspiring a "nuclear renaissance", claiming to have the world's largest uranium reserves. It would appear, however, that this has to be tempered with caution. This Olympic Dam expansion is likely to be the last viable mine unless other prospects arise having equally valuable co-products.

The University of Sydney ISA report (Integrated Sustainability Analysis) Figures 5.4 and 5.5 on page 95 provide a useful comparison of ore grades in Australia and Canada.[7] The low grades of ore in Australia compare unfavourably with those in Canada with 0.045% and 8% average grades respectively. Although economic "cut-off" grades may decline from the present 0.08% with rising uranium prices, it is unlikely that investment in mines with lower grades will take off.

The Rio Tinto cut-off grade at the Ranger mine applies to existing ore stocks, judging that milling can continue for several years after the mine has closed. However, the criteria applied to a new venture would have to include the initial overburden removal and infrastructure capital. It seems highly unlikely that there will be investment in solely uranium mines with ore grades below 0.2%.

The OECD Nuclear Energy Agency (NEA) argues differently, assuming that uranium prices rise add to extractable reserves. It is further argued that nuclear fuel costs are marginal and that the price of uranium has only a moderate effect on generating costs. Uranium is currently US$ 187/kg, whereas if the ore grade equated to the low grades of gold ores mined by similar open pit methods, the extraction costs would be similar around US$ 12,000/kg, at which level nuclear generation would certainly not be viable. There is an overall nuclear fuel cycle economic cut-off grade where uranium is the sole mined product. Australia needs to demonstrate what this is before it can claim that its uranium ore grades warrant investment.

Uranium mining in Australia depends initially on the price of copper and how BHP Billiton judges its future price movements, but thereafter (and perhaps from now if the Olympic Dam expansion is turned down) it has an uncertain future if any at all.

[1] Energy from Uranium , Jan Willem Storm van Leeuwen.

[2] http://www.uic.com.au/emine.htm

[3] http://www.riotinto.com/media/media_releases_1305.asp

[4] http://www.abc.net.au/am/content/2005/s1497518.htm

[5] http://www.bhpbilliton.com/bbContentRepository/2006112345802/ceda.pdf

[6] http://odx.bhpbilliton.com/index.asp

[7] http://www.isa.org.usyd.edu.au/




BHP plans to expand Olympic Dam


AM - Friday, 4 November , 2005 08:20:00
Reporter: Hayden Cooper

PETER CAVE: BHP Billiton is planning to dig a massive crater a kilometre deep and three kilometres wide, in the middle of Australia's outback wilderness. The company is considering a major expansion of Olympic Dam in the far north of South Australia, to make it the world's largest uranium and copper mine.

Hayden Cooper reports from Olympic Dam.

HAYDEN COOPER: In the red dust of remote South Australia, BHP Billiton is drilling in search of a lucrative treasure.

Beneath the semi-arid scrub is a cocktail of silver, gold, copper, and uranium, a cache which BHP's Base Metals Chief Roger Higgins admits was the grand lure in the company's takeover of WMC Resources.

ROGER HIGGINS: The plan is that we'll turn this into one of the great open pit copper mines. We're quite confident of a good expansion project here. But the actual dimensions of that - the size and shape of that project - will probably take us a year or two to determine exactly, but we're quite confident there is a project here.

HAYDEN COOPER: The project is a $5 billion expansion, doubling copper production, quadrupling uranium output, and converting the mine from a network of underground tunnels, to a massive open pit.

But it'll still be two years before BHP Billiton decides whether to proceed, and it needs approval from federal and state governments, perhaps part of the reason why Premier Mike Rann is being given the royal treatment at Olympic Dam.

MIKE RANN: So we're basically standing above where the big open cut… so three kilometres by three kilometres, and a kilometre deep.

HAYDEN COOPER: Despite Labor's long-held caution of uranium mining, this is one project Mr Rann is desperate to secure.

MIKE RANN: What we're standing above now is essentially where there'll be, we believe, the world's biggest open cut mine, and also the biggest mixed ore body in the world. So we're talking about an ore body that's worth hundreds of billions of dollars… not hundreds of millions of dollars, but hundreds of billions of dollars.

HAYDEN COOPER: But opponents like the Australian Conservation Foundation's David Noonan say there's much more at stake if the expansion does go ahead.

DAVID NOONAN: This is to turn Roxby into the world's largest uranium mine. It's to turn South Australia into the uranium quarry for the world nuclear industry.

It will make South Australians responsible for much of the nuclear risk, much of the potential nuclear accidents such as Chernobyl, for the proliferation of potential nuclear terrorism and plutonium production right across the globe. That's certainly not good news for South Australia.

HAYDEN COOPER: BHP's Roger Higgins says valuable though it is, uranium is just a by-product, and he dismisses questions about the future of nuclear power in Australia.

ROGER HIGGINS: Without the copper and the other products, the gold and silver, there wouldn't be a mine here. So the uranium is a very important by-product, and that's the part of the nuclear energy cycle that we're in. And there is no policy in Australia for nuclear power, and we're not interested in seeing that change, and if it does, then we'll react to that at the time.

HAYDEN COOPER: In the meantime, as the drilling continues 24 hours a day, the company's geologists say so big is the resource that the challenge is not finding the ore body, but rather, finding where the ore body ends.

PETER CAVE: Hayden Cooper reporting from the Olympic Dam

2002 - Honeymoon uranium project in South Australia stalled
"With the Honeymoon project in SA unapproved and the Jabiluka site in Kakadu being rehabilitated it is time to cap, clean up and close this toxic trade," said ACF's Adelaide-based nuclear free campaigner, David Noonan at the time.
"Uranium is the asbestos industry of the 21st century -

the costs are simply too high".
2006 ACF's lobbying saves Great Artesian Basin
(Remember: the nuclear industry uses VAST AMOUNTS of water, huge, as does oil production!! Takes the LIFE right out of water.)

An agreement between the South Australian government and BHP Billiton that no additional artesian water will be used to service the Roxby Downs mine expansion was good news for the Great Artesian Basin - the largest underground water system in the world.

South Australian Premier Mike Rann announced the agreement in Adelaide on February, 17, saying that the government and BHP Billiton would now consider building a saltwater desalination plant in the Upper Spencer Gulf to supply the expanded mine's water needs.

The announcement "is a win for the Great Artesian Basin, the Murray River and the many thousands of concerned Australians who have urged the Government and the company to protect the Basin", said ACF Executive Director Don Henry.

Thousands of ACF's members and supporters wrote to both Premier Rann and BHP Billiton, urging them to dump plans for a fi ve-fold increase in water extraction - to over 150 million litres a day - that would have threatened the survival of the unique and fragile Great Artesian Basin springs. In an interview on ABC radio in Adelaide, Premier Mike Rann said, "I said I did not want the water being taken out of the River Murray. And also I had a very strong lobby from the environmental movement; hundreds and hundreds of letters. But also, the most effective lobbying campaign ever by Don Henry, of the Australian Conservation Foundation, who strongly argued about us issuing more licences to take water out of the Great Artesian Basin. So I've listened to the environmental movement. There will be no extra take out of the Great Artesian Basin."

ACF campaigner David Noonan took the victory as a chance to reiterate ACF's stance on uranium mining. "While this decision is good for the Great Artesian Basin, ACF is opposed to uranium mining," Noonan said. "With every gram of Australia's exported
uranium inevitably ending up as nuclear waste, this is an industry Australia should be getting out of, not expanding."

No Joy for Sydney in US Nuclear Waste Deal

A new radioactive waste deal between Australia and the US fails to cover the key threats posed by the planned new nuclear reactor in Sydney.

ACF has described a plan reported in the Australian newspaper to ship high-level waste to the US for storage as a partial and political short-term fix that will not reduce the threats posed by a new reactor at Lucas Heights.

"A nuclear reactor in our largest city is a daily nuclear threat to Sydney," said national nuclear campaigner Dave Sweeney. "Moving some of the radioactive waste offshore does not protect Sydney from the risks of an operating reactor or Australia from the risks of the rest of the waste."


ACF has called for the federal nuclear regulator, ARPANSA, to reject ANSTO's application for an operating license for the new reactor - a call supported by other national environment groups, local residents and the NSW government.

Large volumes of radioactive waste - currently stored at ANSTO's nuclear reactor site; set to be generated by a new reactor or due to come back to Australia after reprocessing in Europe - will not be covered by the US deal. There is no clear, proven and agreed plan for how or where to store these dangerous radioactive wastes.

"The costs and risks of the new Sydney reactor remain secret," said ACF campaigner David Noonan. "Details on health impacts, emergency procedures and security, sabotage and accident assessments are still confidential while ANSTO and the federal government are seeking backroom solutions to a long-term environmental threat."
According to a detailed Senate report the federal government has failed to provide a "clear and compelling" case for the Sydney reactor. The federal nuclear regulator is currently assessing an application for an operating license for the controversial plant.

"As in Australia, communities in the US are opposed to the dumping of nuclear waste," said David Noonan. "Instead of shipping this poison around the country and across the world we should be working to halt its production."


"The Sydney reactor is an unsafe and unnecessary facility situated in an inappropriate place and nothing about this US deal changes this radioactive reality."


A collection of 23 articles by David Noonan can be found below:

http://findarticles.com/p/search?qt=%22+David+Noonan%22&qf=hb4727

More to follow: Australian radiation leak reported

Newspapers reporting “radiation leak” -

that may or may not actually exist.

Some anti-nuclear folks here in Australia have quickly jumped on to this recent media report.

AN investigation is underway into a radiation leak at a Department of Defence site, a department statement issued tonight said.

“A minor contamination involving the chemical beryllium was reported on 2 November 2007 at the Defence National Storage and Distribution Centre, at Moorebank in New South Wales,” the statement said.

“It is believed the contamination occurred as a result of packaging of damaged equipment items returning from the Middle East.”

Everyone at the site was evacuated and firefighters were called in to assess the hazard.

Hazardous materials experts detected “two low-level positive indicators for the presence of beryllium”.

The area was declared safe on November 6.

“Occupational health and safety briefings have been provided to the small number of staff that may have been exposed and counselling is available on request.

“Those personnel exposed to the site will undergo thorough on-site medical testing.

“An investigation is currently underway to determine the immediate and follow-on action required to prevent a reoccurrence.”

It was not immediately clear why defence waited six days to issue the statement.

[Source]

Now - my question is how exactly the mainstream media can get from “A minor contamination involving the chemical beryllium” to a “radiation leak”.

Essentially all Beryllium in nature consists of the stable isotope Beryllium-9 - Beryllium, in general, is not radioactive, unless a sample of radioactive 10Be, for example, which has been produced in a particle accelerator or reactor, is being considered. Of all the the other isotopes, only Beryllium-7 and Beryllium-10, with half-lives of 53.2 days and 1.51 million years respectively, have long enough half-lives to be of radiological significance - the half-lives of all other isotopes are extremely short, anywhere from 13.8 seconds for Be-11 down to 92.6 keV for Be-6 (The “lifetimes” of such extremely unstable nuclear states, which are only of academic interest to experimental physicists, are usually expressed in terms of a resonance width, with units of energy - to convert to units of time, t = h-bar / E, where h-bar is the reduced Planck constant, which gives us, in this case, something of the order of 10^-21 seconds.)

Beryllium is a toxic metal - with the potential to cause severe health impacts if it is inhaled. As it is a stable, solid material with a very low atomic number, Beryllium is very useful as a neutron moderator - and as a neutron reflector. It has found applications in nuclear weapons technology for this reason, as well as nuclear reactors and similar technologies, occasionally. As a very lightweight, thermally stable metal, it is also extensively used in high-performance components for rocket engines, gyroscopes, satellites and missiles - clearly, it is not unheard of to find Beryllium metal components in military technologies.

10Be is a naturally occuring, cosmogenic radionuclide, and is one of the more common radioactive isotopes, along with 14C, produced in the atmosphere by cosmic ray spallation of oxygen and nitrogen. Cosmogenic 10Be accumulates at the soil surface, where its relatively long half-life of 1.51 million years permits a long residence time before it decays.
Studies of 10Be and its daughter products have been used to examine soil erosion, soil formation from regolith, the development of lateritic soils, as well as variations in solar activity and the age of ice cores.

However, radioactive 10Be or 7Be are not employed in any technological, industrial or practical applications, and these radionuclides are not manufactured, except for very small scale use in experimental physics, perhaps, or in biochemistry, where 7Be has been used as a biochemical tracer.

There was significant media attention and controversy earlier this year, after Tritium contamination was found at a workshop used for the repair of electronic instruments, where numerous devices such as compasses or gunsights containing Tritium light sources were handled, at an Australian Army barracks.

However, I find it hard to believe that any journalist could get Tritium confused with Beryllium, without willingly making stuff up. It should be noted that the phrase quoted from the official Department of Defence media release does not make any mention of radioactivity at all.

The other thing I considered is that we could be dealing with a neutron source, containing beryllium mixed with a alpha-emitting radioactive isotope, such as 241Am - although, in this case, it is not the beryllium that is radioactive, such sources are always sealed sources, and I can’t think of why they’d be used by the defence force in the Middle East - possibly in moisture gauges for civil engineering?

I await more information on this issue - hopefully I will be able to find the DOD’s media release. Until then, I’m strongly inclined to believe that this is little more than a badly written, unscruplous piece of journalism design to incite further hysteria about nuclear technologies and keep people scared of radioactivity, for the sake of someone’s political agendas.

UPDATE:

Beryllium optics and mirrors are commonly encountered in high-performance optical systems, particularly operating in the infra red spectrum - Thermal cameras, FLIR systems, Space Telescopes, and IR-sensing devices for military applications are amongst the largest applications of such optical components. Optical systems operating in the IR spectrum often use Thorium Fluoride as a coating material on the optical components.

I can confirm that the PAVETACK FLIR pod used on the F-4 and F-111 fighters, as well as the FLIR system used on the F-18, uses beryllium optics, and that the aperture windows on these systems have a Thorium(IV) Fluoride coating. Whilst it is only a tiny bit of Thorium, presumably the material can be released if the aperture window is broken, and this has been known to occur, for example, as a result of bird strikes on the aircraft’s FLIR pod.

It is possible that a damaged FLIR head, or Mirror Control Assembly from the PAVETACK, could be contaminated with Thorium - and toxic Beryllium too - but clearly this is of very minimal risk, and not of any risk to people, aside from people who are handling it.

In that regard, I wouldn’t consider it any different to handling Thorium-containing welding rods, which are routinely used and are available to the public, or the use of camera optics with Thorium oxide in the glass - again, these are a common item in public circles.

I cannot confirm that this was the actual material involved in this incident that is being reported, but it sounds like the most plausible explanation to me - and even in the event that a thorium fluoride coated optical component was involved, it’s a far cry from a “radiation leak” - do we cry “radiation leak” in the press every time somebody uses a TIG welding rod, or drops an old camera lens? I think not.

~ by enochthered on November 8, 2007.

One Response to “Newspapers reporting “radiation leak” - that may or may not actually exist.”

  1. I found the coverage of this to be a bit odd as well. The first article I read talked about a “beryllium leak”, which I thought was odd wording considering that its usually a metal or part of a metal alloy in end-user applications. Now I see all this talk of radiation and the whole thing becomes even more interesting, and confusing. I can’t imagine that ADF personnel would include much in the way of civil engineers, I’m not sure how much involvement our contingent has had in the reconstruction of Iraq. It is possible I suppose.

    My guess would be that the investigation and clean-up crew (the articles I’ve read talk about firefighters and HAZMAT experts) that arrived on site were wearing HAZMAT suits - possibly with radiation symbols on them - as part of a general procedure for cleaning up potentially dangerous materials and the reporters jumped in it as evidence of radioactivity. In the end I guess it depends on what the damaged equipment in question actually was, but I doubt the DoD will release those kinds of details.

Are we all being "cooked" from EMR????

Should Public Building Be Tested For Electro Magnetic Radiation?

ARE WE ALL BEING "COOKED" FROM

ELECTRO MAGNETIC RADIATION?

Thousands of people across Canada are being affected by a hidden danger, that of Electro Magnetic Radiation.

Recently, teesting at Woodstocks' Public Library on hunter street have revealed electro magnetic radiation in numbers higher than the meter would read. The test was conducted by Martin Weatherall of W.E.E.P. Canada.

Although no one is sure why these numbers are phenomenally high in the Library, one thing we do know is that there is a strong wireless network in the building, and that this wireless network may be responsible for transmitting this electrical pollution through the air.

According to Wikipedia, Electromagnetic (EM) radiation is a self propogating wave in space with electric and magnetic components. These components oscillate at right angles to each other and to the direction of propogation, and are in phase with each other. Electromagnetic radiation is classified into types according to the frequency of the wave: these types include, in order of increasing frequency, radio waves,microwaves, terahertz radiation, visible light, ultraviolet radiation,x-rays, and gamma rays.

EM radiation carries energy and momentum, which may be imparted when it interacts with matter.

Dr. Joseph Mercola a researcher in the USA, has put forth some information in the US on EMR and its' effects on the body. His recommendations are to error on the side of caution.

Are EMFs Hazardous to Our Health?

Can electromagnetic fields (EMF) from power lines, home wiring, airport and military radar, substations, transformers, computers and appliances cause brain tumors, leukemia, birth defects, miscarriages, chronic fatigue, headaches, cataracts, heart problems, stress. nausea, chest pain, forgetfulness, cancer and other health problems?

Numerous studies have produced contradictory results, yet some experts are convinced that the threat is real.

Dr. David Carpenter, Dean at the School of Public Health, State University of New York believes it is likely that up to 30% of all childhood cancers come from exposure to EMFs. The Environmental Protection Agency (EPA) warns "
There is reason for concern"
and advises prudent avoidance".

Martin Halper, the EPA's Director of Analysis and Support says
"I have never seen a set of epidemiological studies that remotely approached the weight of evidence that we're seeing with EMFs. Clearly there is something here."


Concern over EMFs exploded after Paul Brodeur wrote a series of articles in the New Yorker Magazine in June 1989. Because of Paul Brodeur's reputation. his articles had a catalytic effect on scientists, reporters and concerned people throughout the world.

In November 1989, the Department of Energy reported that
"It has now become generally accepted that there are, indeed, biological effects due to field exposure."


The EMF issue gained more publicity in 1990 when alarming reports appeared in Time, the Wall Street Journal, Business Week and popular computer publications. ABC's Ted Koppel and CBS's Dan Rather both aired special segments on EMFs.

In addition to the long-term health concerns, buying a house with high fields will be an economic disaster. In a few years, when power line radiation is as well known as asbestos and radon, a house with high fields will be practically impossible to sell. Already there are hundreds of lawsuits regarding EMFs and property devaluation.

EPA Says the Threat Is Real

By 1990, over one hundred studies had been conducted worldwide. Of these, at least two dozen epidemiological studies on humans indicated a link between EMFs and serious health problems. In response to public pressure, the Environmental Protection Agency IEPA) began reviewing and evaluating the available literature.

In a draft report issued in March 1990, the EPA recommended that EMFs be classified as a Class B carcinogen -- -a "probable human carcinogen and joined the ranks of formaldehyde, DDT, dioxins and PCBs.

After the EPA draft report was released, utility, military and computer lobbyists came down hard on the EPA. The EPA's final revision did NOT classify EMFs as a Class B carcinogen Rather, the following explanation was added:

"At this time such a characterization regarding the link between cancer and exposure to EMFs is not appropriate because the basic nature of the interaction between EMFs and biological processes leading to cancer is not understood."

Curiously, this rather unusual logic appears on the same page as the following:
"In conclusion, several studies showing leukemia, Iymphoma and cancer of the nervous system in children exposed to supported by similar findings in adults in several/ occupational studies also involving electrical power frequency exposures, show a consistent pattern of response that suggest a causal link. "

When questioned about the contradictory nature of these statements, the EPA responded that it was "not appropriate" to use the probable carcinogen label until it could demonstrate how EMFs caused cancer and exactly how much EMF is harmful.

This explanation does not satisfy many critics who claim that the EPAs upper management was influenced by political and economic considerations exerted by utility, computer and military lobbyists.

How Do I Measure EMFs?

A Gauss is a common unit of measurement of magnetic field strength. A Gauss meter is an instrument which measures the strength of magnetic fields. Inside a Gauss meter there is a coil of thin wire, typically with hundreds of turns. As a magnetic field radiates through the coil, it induces a current, which is amplified by the circuitry inside the Gauss meter.

Gauss meters may vary in the strength of the magnetic field they are capable of measuring. A meter used for measuring EMFs from power lines, transformers, substations and appliances around the home, for example, should be able to measure as low as .1 mg.

Gauss meters vary widely in price and accuracy. Meters have either a single axis coil or a triple axis coil. Single axis meters are much simpler than triple axis meters to manufacture and thus, are less expensive.

To use a single axis meter you must point the meter's one sensor in three directions -- -the x, y and z axis. Then, you combine the three readings in a mathematical equation to calculate the combined field strength. Obviously, its far easier and more accurate to use a 3-axis meter. Triple axis Gauss meters are quite accurate, but they are also more expensive.

Another thing to watch out for when purchasing or renting a Gauss meter is whether or not it is frequency weighted. Most meters will read the same EMF strength no mater what the frequency.

As the human body appears to be sensitive to both the field strength AND the frequency, Gauss meters used for biological purposes should be "frequency weighted".

This means that if the field is different than 60 Hz the meter will consider the frequency and use it in calculating and displaying the EMF's strength. This feature is why frequency weighted meters will show a higher EMF reading than those meters typically used by electricians and engineers.

Power Lines

An enormous amount of electricity is created at power generating stations and sent across the country through wires that carry high voltages. All power lines radiate electromagnetic fields.

The question is:

how much are the
power lines near YOUR home radiating?

The amount of EMFs coming from a power line depends on its particular configuration. Power companies know which power line configurations are best for reducing EMFs but most don't feel the evidence supports costly changes in the way they deliver electricity.

Substations

A substation is an assemblage of circuit breakers, disconnecting switches and transformers designed to substations have been blamed for causing cancer clusters among nearby residents. Paul Brodeur wrote about several such cancer clusters in the July 9, 1990 issue of the New Yorker Magazine.

Transformers

A key component of a utility's electrical distribution network depends upon numerous, small transformers mounted on power poles. A transformer looks like a small metal trash can, usually cylindrical.

Even when the electrical service is underground, you will often see a metal box (usually square} located on the ground near the street. Many people don't realize that when they see a transformer, the power line feeding the transformer is 4000 to 13,800 volts.

The transformer then reduces the voltage to the 120/240 volts needed by nearby homes. Since these transformers can be seen in almost every neighborhood, they are a source of concern.
EMFs near a transformer can be quite high, but due to its small structure, the field strength diminishes rapidly with distance, as it does from any point source. For this reason, having a transformer located near your home is usually not a major source of concern, although just to make sure, everyone should measure the field strength around it.

Home Wiring

If your home has high EMF readings, it is important to determine the sources of the EMF so that remedial action can be taken, if possible. Many times a particular room will have a higher EMF reading. Check to see if the electricity is coming into the house on the wall outside that room. When this is the case, it is usually a good idea to block off that room and only use it for storage purposes.

Sometimes, the source of a high magnetic field is incorrect wiring. If you suspect that your home is wired improperly, obtain the services of a licensed electrician. Warning: Do not touch electric wires, even if you think the current is turned off. If you need to disconnect electrical circuits to determine the source of magnetic fields, you should call a licensed electrician.

Computers

Computers are a complicated subject. Know this: EMFs radiate from all sides of the computer. Thus, you must not only be concerned with sitting in front of the monitor but also if you are sitting near a computer or if a computer is operating in a nearby room.

The Swedish safety standard, effective 711/90, specifies a maximum of 0.25 mG at 50 cm from the display. Many US manufactured computers have EMFs of 5 - 100 mG at this distance. And know this too: the screens placed over monitors do NOT block EMFs. Not even a lead screen will block ELF and VLF magnetic fields.

Space does not permit a more thorough discussion of computers. If you use a computer, it is important that you
measure your EMF exposure with a Gauss meter and review the literature concerning the health impacts of computer use.

Electric Blankets and Waterbeds

Electric blankets create a magnetic field that penetrates about 6-7 inches into the body. Thus it is not surprising that an epidemiological study has linked electric blankets with miscarriages and childhood leukemia.

This pioneering work was performed by Dr. Nancy Wertheimer and Ed Leeper, who originally discovered that magnetic fields were linked to childhood leukemia. Similar health effects have been noted with users of many electric blankets and waterbed heaters will emit EMFs even when turned off.

The devices must be unplugged to delete the EMF exposure Additionally, there is the issue regarding the vibrations that are generated by sleeping on standing water. There is less hard data in this area but some experts are concerned about the consequences.

Electric Clocks

Electric clocks have a very high magnetic field, as much as 5 to 10 mG up to three feet away. If you are using a bedside clock, you are probably sleeping in an EMF equivalent to that of a powerline Studies have linked high rates of brain tumors with chronic exposure to magnetic fields, so it is wise to place all clocks and other electrical devices (such as telephones and answering devices) at least 6 feet from your bed.

Fluorescent Lights

Fluorescent lights produce much more EMFs than incandescent bulbs. A typical fluorescent lamp of a office
ceiling have readings of 160 to 200 mg 1 inch away.

Microwave Ovens and Radar

Microwave ovens and radar from military installations and airports emit two types of radiation -- microwave and ELF.

Microwaves are measured in milliwatt per centimeter squared (mW/cm2) As of 1/1/93, the U.S. safety limit for microwave exposure is 1 mW/cm2, down from a previous 10 mW/cm2. The Russian safety limit is .01 mW/cm2. All microwave ovens leak and exceed the Russian safety limit. In addition, recent Russian studies have shown that normal microwave cooking coverts food protein molecules into carcinogenic substances.

When measuring microwaves from military and airport radar sources, 100% accurate readings can only be found with extremely expensive digital peak-hold meters. Why? Because analog devices begin to drop their reading immediately after the radar sweep passes. Thus, while an analog meter can show whether or not you are being exposed to radar EMFs, analog meters can't show your true exposure. Although thousands of dollars to purchase, digital-hold meters capable of accurately detecting radar EMFs can be rented for several hundred to over a thousand dollars per month.

Telephones and Answering Machines

Telephones can emit surprisingly strong EMFs, especially from the handset. This is a problem because we hold the telephone so close to our head. Place the Gauss meter right against the ear piece and the mouth piece before buying a phone.

Some brands emit no measurable fields and others emit strong fields that travel several inches....right into your brain. Answering machines, particular those with adapter plugs (mini-transformers), give off high levels of EMFs.

Electric Razors and Hair Dryers

Electric razors and hair dryers emit EMFs as high as 200 to 400 mG. This seems alarming, but we don't know if this is worse (or better) than a chronic exposure to a 2-3 mG field. Some EMF consultants recommend that hair dryers not be used on children as the high fields are held close to their rapidly developing brain and nervous system.

Prudent Avoidance

Electricity is an inseparable part of our modern day society. This means that EMFs will continue to be all around us. But as Discover Magazine postulated, aside from making our life easier, is electricity also making our lives shorter?

Most experts agree that limited, non-chronic exposure to EMFs is not a threat. For example, it is probably acceptable for a person to be near a toaster in the morning.

BUT, it is not advisable for a person to sleep under an electric blanket, up close, live near a powerline/substation, and sleep in a room where the power enters the home. This person is under an extreme case of chronic exposure. This condition, unfortunately, applies to millions of Americans.

If you wish to follows the EPA's advice and practice "prudent avoidance" then the following advice is offered:

Measure your home, work and school environments with a Gauss meter Measure EMFs both inside and outside your home. Don't let your children play near power lines, transformers, radar domes and microwave towers.

Avoid areas where the field is above 1 mG. Measure the EMFs from appliances both when they are operating and when they are turned off. Some appliances (like TVs) are still drawing current even when they are off.

Don't sleep under an electric blanket or on a waterbed. If you insist on using these, unplug them before going to bed (don't just turn it off). Even though there is no magnetic field when they are turned off, there may still be a high electric field.

Don't sit too close to your TV set. Distance yourself at least 6 feet away. Use a Gauss meter to help you decide where it is safe to sit.

Rearrange your office and home area so that you are not exposed to EMFs from the sides/backs of electric appliances and computers. In the home, it is best that all major electrical appliances, such as computers, TVs, refrigerators etc, be placed up against outside walls. That way you are not creating an EMF field in the adjoining room.

Don't sit too close to your computer. Computer monitors vary greatly in the strength of their EMFs, so you should check yours with a meter. Don't stand close to your microwave oven. Move all electrical appliances at least 6 feet from your bed. Eliminate wires running under your bed.

Eliminate dimmers and 3-way switches.

Be wary of cordless appliances such as electric toothbrushes and razors. You may choose not to wear a quartz-analog watch because it radiates pulsating EMFs along your acupuncture meridians.

An older mechanical windup watch would be an acceptable alternative. It is also recommended to wear as little jewelry as possible and to take it off at night. Many people have metal sensitivity which can be aggravated by placing it right on the skin. Measure with a gauss meter to be sure.
And last, but not least, always always always remember that EMFs pass right through walls. The EMF you are reading on your Gauss meter could be radiating from the next room...or from outside your home.

Additional Radiation Info:

Eyeglass frames should ideally be made from plastic with no wires in them, otherwise they can serve as an antenna to focus the radio and cellular phone waves directly into your brain.

What EMF Level Is Safe?

There's a heated debate as to what electromagnetic field (EMF) level is considered safe. Since the experts have not come to an consensus, you'll have to decide for yourself... Many government and utility documents report the usual ambient level of 60-Hz magnetic field to be 0.5 mG.


Thus, any reading higher than 0.5 mG is above the "usual" ambient exposure. Many experts and public officials, as well as the few governments that have made an effort to offer public protection, have adopted the 3 mG cutoff point. The EPA has proposed a safety standard of 1 mG. Sweden has set a maximum safety limit of 1 mG.

Dr. Robert Becker, an MD who has been studying the effects of EMFs for 20 years, states a lmG safety limit in his book Cross Currents. When electricians try to solve a magnetic field problem they do their best to drop the level to 1 mG or below.

Dr. Nancy Wertheimer, a Ph.D. epidemiologist who has been studying EMFs for 20 years, has been looking at the epidemiological data in a different way -- she is trying to associate EMF levels with
health rather than disease.

The level she is coming up with is a cut off of 1 mG.

Russian researchers claim that 1/1000ths of a mG should be the standard.

The BioElectric Body believes that there are several stages of health between "optimum wellness", "degenerative disease" and "Cancer".

Thus, we maintain our own living and sleeping quarters at 0.5mG and below.


Recommended Reading

Cross Currents The Perils of Electropollution. The Promise of Electromedicine Robert 0. Becker, M.D. Jeremy P. Tarcher, Inc., 1990
Currents of Death The Attempt to Cover Up the Threat to Your Health
Paul Brodeur
Simon and Schuster, 1989

Cyril W. Smith & Simon Best St. Martin's Press. Inc. 1989

Wireless Electrical and Electromagnetic Pollution
An association that is working to address the environmental concerns of electro magnetic pollution.
Co directed by Martin Weatherall.

Subject:
FW: Farm Stray Voltage (EB - 2007 - 0709)

Peter H. O'Dell Assistant Board Secretary
Ontario Energy Board
27th. Floor 2300 Yonge Street
Toronto, ON M4P 1E4
Tel: 416-440-7605
Fax: 416-440-7656
Email: Peter.ODell@oeb.gov.on.ca
________________________________

From: Martin Weatherall [mailto:weather@golden.net]
Sent: 2007 August 24 00:50

To: BoardSec
Cc: Dave Stetzer; Stephen Cain

Subject: Farm Stray Voltage (EB - 2007 - 0709)

Martin Weatherall
866729 Township Road 10
RR#3
Bright, Ontario N0J 1B0
Ontario Energy Board

24 August 2007

Dear OEB Board Secretary:

I wish to be included in the consultation process dealing with the problem of Farm Stray Voltage.

For the past three and a half years, my wife and I have been dealing with problems that have been caused by stray voltage in our house and on our farm property.

The problems have been so severe that we have been unable to live in our home for two and a half years. We endeavoured to resolve these problems by working co-operatively with Hydro One, but Hydro One would not address our concerns or the issues raised in our consultants' reports.1

During these years, we have had considerable discussion and correspondence with Hydro One and various Ontario Government Ministries about the problem of Ground Current Pollution (Farm Stray Voltage). We also hired the services of one of the best ground current consultants in North America, Mr. Dave Stetzer, an electrical specialist from Blair, Wisconsin.

Mr. Stetzer conducted extensive testing at our property and has much experience on many other farm properties in Ontario and much of North America.

I am also the co-director of W.E.E.P. (Wireless Electrical and Electromagnetic Pollution), an organization that help others and raises awareness of electrical pollution issues.

I own several meters and other equipment for detecting ground current electricity and other forms of electrical pollution. I have visited many other rural properties where I have observed and measured various forms of electrical pollution. I have read and studied the problems concerning ground current pollution and I am aware of the harm that is occurring to animals and humans alike.

If included in the consultation process, I will represent the interests of many other Ontario citizens who are concerned about this issue. I have read and understood the Practice Direction on Cost Awards.

Regarding section 5, I believe that I could contribute in a meaningful way as a result of my former experience as a police officer and legal director.

If included in this process, I would request cost awards for my involvement and cost awards for my consultant, Mr. Dave Stetzer.

I am retired and I have no further funding for this matter.

Yours sincerely, Martin Weatherall
519 462 3088
weather@golden.net 2

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News - Environment check from crab urine

Originaly from: News - Environment check from crab urine

Crabs’ urine and changes in snails’ sex hormones are helping UK scientists to monitor the health of the environment.

They are among new research tools being developed by the Environment Agency, as part of its first science strategy.

The agency’s priorities for research include climate change, environment and human health, and flood-risk science.

It also wants to identify problems in the future, for instance the possible risks of nanotechnology and the sorts of controls the industry may require.

The agency, responsible for environmental protection in England and Wales, says its science strategy is the result of “a significant culture change” which has set new research priorities.

Professor Mike Depledge, its head of science, said the crabs and snails were “biomarkers”, a practical way of giving the environment a proper health check.

In human terms, he said, it was the equivalent of counting the rise in the numbers of people with asthma, not just measuring air quality.

He said using urine and blood from creatures like these showed their responses to hydrocarbons, exposure to trace metals, and to pesticides, especially organophosphates.

Simple matter

A dating experts site builder project was starting in the Ribble river catchment in north-west England, looking at molluscs, worms and fish.



We’re targeting chronic low-level exposures to ionising radiation, where we have much less knowledge than for acute exposures


Dr David Copplestone

Sampling crabs was a simple matter, Professor Depledge explained: “They have two apertures between their eyes, and you just stick a hypodermic needle in there and take the urine.”

The new science strategy involves day-to-day advice to operational staff, and dating advices service franchises to policy teams.

Over three to five years the agency will also develop several themes: climate change impacts, the environment and human health, integrated catchment and flood risk science, and the sustainable use of resources.

It will engage in “horizon scanning” over the next decade and beyond, to develop planning for problems that lie ahead.

A fourth element is what it calls “breakthrough projects”, designed to improve its own operations: examples are the use of satellite data and solar-powered radio transmitters to send data from rivers.

One new research area involves the Erica project (Romantic dating idea Risk from Ionising Housewife dating advices: Assessment and Management), which brings together more than 50 scientists from seven countries.

Dr David Copplestone of the agency said it would be using the exclusion zone round the former Soviet nuclear reactor at Chernobyl as a field station.

In 2005 it would be monitoring frogspawn there, and would also be studying the sand dunes at Drigg, near the Sellafield nuclear plant in north-west England.

Mega drought

Dr Copplestone said:

“We’re targeting chronic low-level exposures to ionising radiation, where we have much less knowledge than for acute exposures.”

Professor Rob Wilby, the agency’s climate change science manager, said continuous rainfall records dating back more than 200 years showed the English Lake District had undergone a 20-year drought in the 1840s and 50s.

He said:

“Those mega-droughts then were more persistent and more severe than we’re used to today - and they were pre-industrial, so it was just Nature that caused them.”

He told the BBC:

“Future climate will have three components: human-induced change, the natural variability caused by volcanoes, the Sun and so on, and this internal variability in the system caused by the oceans and the atmosphere.

“You can’t just focus on one of the three and say that natural variability alone explains what’s happening today.”

The agency is sponsoring research to see how a 19th-Century “mega-drought” would affect society today.

NRC plans to update long-term storage guidelines

Agency to update low-level nuke storage guidelines by spring 2008


By SEANNA ADCOX
Associated Press Writer





COLUMBIA, S.C.—
The federal agency that oversees low-level radioactive waste said in a report that it will update its long-term storage guidelines and require tighter security because more power plants, hospitals and universities will store the hazardous material on their own property beginning next year.

"The agency's existing guidance on LLW (low-level waste) storage is in some cases obsolete and may also have gaps in areas related to security," according to the Nuclear Regulatory Commission report released Friday.

The update is needed because a South Carolina nuclear waste landfill plans to close its doors to most of the country July 1.

The commission said it will also issue guidelines for monitoring stored waste, preparing it for eventual disposal, whenever that may be, and sealing it from extreme temperatures, rain and humidity. The guidelines were last issued in 1990.

Some officials fear storing the waste in potentially hundreds of locations across the country could allow radiation to escape, or that small, highly concentrated sealed sources, such as gauges, could be stolen to make "dirty bombs" that scatter radioactive debris.

The update will include security requirements to guard against terrorism, said Jim Kennedy, senior project manager of the commission's low-level waste branch.

The report comes less than a year before a landfill in Barnwell County closes to all but three states, meaning many power plants, hospitals and other companies will be forced to store the more radioactive low-level waste onsite.

As of July 1, nuclear waste generators in 36 states will have nowhere to dispose of that waste - roughly an average of 20,000 cubic feet yearly, or enough to fill six tractor-trailers.

Only two other landfills now exist nationwide for low-level nuclear waste.

One, in Utah, takes only the least hazardous trash, such as slightly contaminated clothing that decays to non-hazardous levels within 100 years. It accepts waste from all states. The other landfill, in Washington, receives such material along with hotter waste that decays to non-hazardous levels within 500 years. But it accepts shipments from only 11 states, including Utah and Nevada.

A private company hopes to open a landfill in Texas within a few years for all classes of low-level waste, but it would accept waste only from Texas and Vermont.

Though nuclear power plants account for less than 5 percent of the 22,000 hospitals and other companies licensed to handle radioactive materials, they generate most of the hotter low-level waste. That includes contaminated tools and water purifying filters.

The commission expects to review and sign off on that industry's storage plans by next fall.

Also by the end of 2008, the agency expects to clarify when it will allow very-low-level nuclear waste to be taken to federal or municipal landfills where other hazardous waste, such as mercury, is dumped. The agency allows that only a handful of times yearly on a case-by-case basis, Kennedy said.

The report discusses some of the industry's suggestions for low-level waste disposal, including opening Energy Department dump sites for commercial disposal. But such decisions are beyond the commission's responsibilities, the report said.