Here are five methods to determine whether your Google account has been compromised.
Utilize the Google Password Checker.
Keep an eye on recent login activities.
Verify the connected devices.
Examine approved websites and apps.
Verify the email forwarding configuration.
T-Mobile Delays Shutdown of Sprint’s 3G Network and Throws Shade at Partners
T-Mobile is postponing its arranged January closure of Sprint's inheritance 3G organization or CDMA organization since it asserts a portion of its accomplices "hasn't finished their obligation" to transition their clients to new organizations.
In a new uninvolved forceful news discharge, spotted by the Verge, T-Mobile said it was "moving forward" in the interest of accomplices who hadn't moved previous Sprint CDMA clients over to new organizations yet and giving them an additional three months to do as such, pushing back the closure of the 3G organization from Jan. 1 to March 31, 2022. T-Mobile converged with Sprint last year and needed to auction a portion of Sprint's prepaid remote organizations as a component of the arrangement.
Closing down Sprint's inheritance 3G organization, just as its LTE network next June, is essential for T-Mobile's work to focus on the extension of its 4G and 5G help.
"There ought to be no more space for pardons," T-Mobile said in its report on Friday. "We have given considerably additional time and those accomplices can follow after accordingly with the work that is expected to guarantee nobody is left on some unacceptable side of the advanced gap."
Despite the fact that it doesn't indicate any accomplices, almost certainly, T-Mobile is tossing conceal at Dish Network, which has alluded to T-Mobile as "the Grinch." T-Mobile sold Boost Mobile—Sprint's paid ahead of time MVNO that serves 9 million clients—to Dish Network to get its consolidation endorsed.
The two organizations have been battling noisily and out in the open over the movement cutoff time in the course of recent months. On one side, you have T-Mobile, which told Dish in 2020 that it would destroy the 3G organization in 2022. The move came as an astonishment to Dish, as the organization comprehended that closure was quite a long while away. T-Mobile keeps up with that the organization has had a lot of time to relocate.
On the opposite side, you have Dish, which considers T-To be's activities as against serious. It additionally brings up that it's an especially tough chance to attempt to get new telephones for Boost Mobile clients considering the worldwide chip lack, the Verge announced.
"A constrained movement of this scale under this sped up time span is just unrealistic and will leave possibly a huge number of Boost supporters disappointed and without cell administration come January 1, 2022," Dish said in a letter to the Federal Communications Commission in April.
When T-Mobile closes down the 3G organization, Boost Mobile clients with more established telephones still on that organization will at this point don't approach cell administration.
SpaceX planning to launch the first orbital starship test flight in July
SpaceX could operate the starship's first orbital test flight in a few weeks.
According to CNBC, SpaceX President Gwynne Shotwell told them at the Online International Space Development Conference that the company was shooting "for July" when planning an orbital trip.
Shotwell was aware of the challenges, but said his determination was "in the true sense" of the original journey.
The current orbital flight plan from Boca Chika in Texas has a starship prototype and its super-heavy booster stage has been lowered into the Gulf of Mexico about three minutes later.
The spacecraft entered orbit and landed a soft water near Hawaii after a total time of about 90 minutes.
As before, it doesn't anticipate any major complications - and that's the biggest issue for SpaceX so far.
This includes high-altitude aircraft, with its own portion of the risk in orbit. Although some major disadvantages exist in the past, the corrections made since then do not guarantee that this time will guarantee a transparent trip.
Apple and Google mobile ecosystem dominance under scrutiny by UK antitrust regulator
For many years, Google and Apple are the two biggest and most dominant names in mobile ecosystems globally, but the UK's competition regulator is now asking whether this duopoly is offering phone users the best deal.
On Tuesday, the Competition and Markets Authority,
the country's antitrust regulator, announced that it's "taking a better
look" at iOS and Android. This isn't like a full probe, it's just a
precursor during which the CMA will consider whether there's enough evidence
that the 2 companies could be stifling competition to justify opening a formal
investigation.
"Apple and Google control the foremost
gateways through which individuals download apps or browse the online on their
mobiles -- whether or not they have to buy for for , The
CMA is specifically checking out evidence that Apple's and Google's dominance
within the market is stifling competition, or that it might be leading to
people paying higher prices for devices, apps and other services.
Apple and Google didn't immediately answer request
for comment.
This closer scrutiny comes as a results of a
post-Brexit push by the united kingdom to research the actions of tech giants
through its newly established Digital Markets Unit. Previously it had relied on
the EU's Competition Commission to fulfil this role, however it's still working
with the ecu regulator because the two agencies conduct simultaneous
investigations into potential ad data abuse by Facebook.
The CMA is additionally investigating Apple separately over App Store developer terms.
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Unknown Facts about DARK WEB
Hacking groups and services:
Hoaxes and unverified content:
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Time of season also influences hurricane paths
Shape of the seafloor matters for destructiveness
Climate change changes the risk
Huawei Launches Operating System After U.S. Blacklist Restricts Company's Access to Google
Microsoft is using AI to turn natural language into code
India passes grim milestone of 200,000 COVID-19 deaths
India became the fourth country in the world to pass 200,000 deaths from the COVID-19 pandemic on Wednesday as the country continues to struggle against a deadly second wave of infections that has overwhelmed most of the country's hospitals.
Data compiled by Johns Hopkins University indicated that Indian health officials had recorded just over 201,000 deaths from the virus as of Wednesday morning, U.S. eastern time. India has now also recorded nearly 18 million total cases of COVID-19 since the pandemic began, second only to the U.S.
The country joins a grim club of nations who have experienced the worst of the pandemic; only India, the U.S., Mexico and Brazil have recorded more than 200,000 deaths since the beginning of 2020.
U.S. COVID-19 deaths sat at just above 573,000 as of Wednesday, far outpacing any other country including Brazil, which has recorded the second-most deaths at 395,000.
Indian hospitals face dwindling supplies, not enough vaccines and insufficient space for new patients as the country's death toll and case count continue to climb; supplies including oxygen are in particular short supply, and have left many with severe COVID-19 symptoms unable to find a hospital where they can receive treatment.
Prime Minister Narendra Modi said last week that the country was in its most serious battle against the virus so far.
"The country is today fighting a very big battle against COVID-19. The situation had improved for a while, but the second COVID-19 wave has come like a storm," Prime Minister Narendra Modi said last week during a national address.
"I express my condolences to all those who have lost their loved ones due to COVID-19," he added. "Just like a member of your family, I am with you in this hour of sadness. The battle is long and difficult, but we have to overcome it together with our dedication and courage."
New Delhi, the country's capital, remains under lockdown as officials cite a test positivity rate as high as 36 percent throughout the country.
More young people are getting hospitalized as a 'stickier,' more infectious coronavirus strain becomes dominant
What used to be a mysterious new variant first detected in the UK is now the most dominant coronavirus strain in the US.
And unlike the original strain of the novel coronavirus, the
more contagious B.1.1.7 strain is hitting young people particularly hard.
"(Covid-19) cases and emergency room visits are
up," said Dr. Rochelle Walensky, director of the US Centers for Disease Control
and Prevention.
"We are seeing these increases in younger adults, most
of whom have not yet been vaccinated."
Now doctors say many young people are suffering Covid-19
complications they didn't expect.
And it's time to ditch the belief that only older adults or
people with pre-existing conditions are at risk of severe Covid-19.
Why B.1.1.7 is more contagious :
Viruses mutate all the time, and most mutations aren't very
important. But if the mutations are significant, they can lead to dangerous new
variants of a virus.
"The B.1.1.7 variant has mutations that allow it to
bind more" to cells, said Dr. Jonathan Reiner, a CNN medical analyst and
professor of medicine and surgery at George Washington University.
"Think of this mutation as making the virus
stickier."
Coronavirus latches onto cells with its spike proteins --
the spikes surrounding the surface of the virus.
"There is a little difference in the way the (B.1.1.7)
spike protein holds that makes it stick to your cells a little more
easily," said emergency physician Dr. Megan Ranney, director of the
Brown-Lifespan Center for Digital Health.
With the original strain of the novel coronavirus, "you
need a certain inoculum -- a certain amount of virus -- in order for the
infection to basically stick," Reiner said.
"Is one viral particle enough to make you sick? No,
probably not. On the other hand ... sometimes a massive inoculum can kill an
otherwise healthy person. And we've seen that in health care workers," he
said.
"So these new variants, particularly the UK variant,
seem to be stickier. So the notion is that it's more contagious, so to speak,
because potentially you don't need as much of an inoculum to get sick."
What this means in real life: "You can be in a place
and maybe have a briefer exposure or have a smaller exposure -- more casual
exposure -- and then get infected," Reiner said.
And because B.1.1.7 is stickier, "you may indeed have a
higher viral load."
"If you have a higher number of viral particles in your
respiratory tract, then it's going to be easier to spread it to other
people," Ranney said.
That's another reason why it's so important for young adults to get vaccinated.
More young people are being hospitalized with Covid-19 :
B.1.1.7 cases have now been reported in all 50 states, the CDC said.
"What we're seeing in a bunch of places now is sick,
young people -- hospitalized young people. Whereas earlier on in the pandemic,
it was primarily older people," Reiner said.
"The reason for this might be as simple as the older
population in this country has either been exposed to this virus, killed by the
virus, or now vaccinated against the virus."
As of Saturday, more than 80% of people age 65 and over have
received at least one dose of vaccine, and 65% have been fully vaccinated, according
to CDC data.
"The unvaccinated -- those are the people who are
getting infected -- we're seeing a large number of young people, and they're
the ones we're seeing in hospitals now."
In March, New Jersey saw a 31% jump in Covid-19
hospitalizations among young adults ages 20 to 29, the state health
commissioner said. And the 40-49 age group saw a 48% increase in Covid-19
hospitalizations.
Ranney said she's also noticed a stark change in who's
getting hospitalized.
"This has been kind of a gradual increase in the
proportion of folks who are younger over the last couple of months," she
said, citing data from COVID-NET -- which tracks cases from more than 250
hospitals in 14 states.
"Looking at the week of December 26 or January 2, age
65-plus would be, say, 3,000 (hospitalizations). And then everything else
together is 3,000. More than 50% were age 65-plus."
But by March 27, "it was about one-third (ages) 18 to
49 ... about one-third ages 50 to 64, and then about one-third 65-plus,"
Ranney said.
As an emergency room doctor, Ranney said she regularly sees
young, previously healthy patients struggling with coronavirus.
"I see at least a few people on every ER shift that I
work who are there because they are having persistent trouble breathing or
other side effects as a result of Covid-19," she said.
Ranney said she generally defines "young people"
as those under 50. But "no matter which age cutoff you use, right now,
we're seeing more B.1.1.7 than the older variants."
"We're certainly seeing it more in 20s and 30s as
well," she said. "And people in their 20s and 30s are less likely to
be vaccinated and more likely to be out and about."
The vast majority of positive coronavirus tests don't go
through genomic sequencing to figure out whether it's B.1.1.7 or another
strain. But as genomic sequencing increases nationwide, health experts say
there's no doubt B.1.1.7 is fueling more hospitalizations among young people.
Dr. Justin Skrzynski is a Covid hospitalist -- or specialist
in the care of Covid-19 patients -- at Beaumont Hospital, Royal Oak in
Michigan. He said the facility sends a portion of its coronavirus samples to
the state for DNA analysis.
"Right now, the regular Covid test we do -- that's
still just showing Covid (or) no Covid," Skrzynski said.
"But we do send a lot of those out to the state, and we
are seeing something like 40% of our patients now (with) B.1.1.7."
Reiner said he thinks both human behavior and the
"stickiness" of B.1.1.7 are leading to more Covid-19 hospitalizations
among young people.
"It may be simply because of just (more young people)
getting infected ... and perhaps the inoculum (viral load) is higher," he
said.
Sometimes, young people can be victims of their own strong
immune systems.
Throughout the pandemic, doctors have noticed some young,
previously healthy patients suffer from Covid-19 cytokine storms. That's
basically when someone's immune system overreacts -- potentially causing severe
inflammation or other serious symptoms.
As B.1.1.7 keeps spreading, it's possible the number of
young people with cytokine storms will increase, Reiner said.
"We've certainly seen people come into our hospital,
very young people (in their early 20s) ... need to be put on ECMO, which is
basically a heart-lung machine for days or even weeks because they come in with
cardiomyopathy -- which is a response to a cytokine storm," he said.
'Covid-19 doesn't have to kill you to wreck your life' :
As more young people get infected, doctors are worried they'll see more of a disturbing trend they've noticed for months -- long-term complications.
"I cannot tell you how many people I've taken care of
in the ER who are in their 20s, 30s and 40s, who are never sick enough to end
up in the ER with Covid, but who now have long-lasting respiratory
difficulties," Ranney said.
"Or they have persistent loss of taste and smell, and
they're losing weight because there's no joy from eating. Or they have that
kind of brain fog that we hear about with long Covid. And it's not universal.
It's not every person who gets Covid who's going to get that. But there is the
reality that this disease is not benign -- regardless of whether they get
hospitalized or in the ICU," she said.
"So I think there's this false sense of both 'I'm
immune to it just because I'm young,' and 'Even if I catch it, I'll be fine.'
You may be lucky. And that may be true, that if you catch it, you'll be fine.
But there's also a chance that you won't."
Reiner said some long-haul symptoms in young people have
lasted roughly a year now -- "debilitating symptoms that have come in the
aftermath of their coronavirus infection," he said.
Mixed messages from states don't help :
Health experts say it's critical to keep practicing Covid-19
safety precautions until many more people get vaccinated. Yet some states have
ditched mask mandates or reopened bars to full capacity just as B.1.1.7 was
spreading rapidly.
And that's likely fueling the spread of B.1.1.7 among young
people, Reiner said.
"They're the people going out to the bars. They're the
people meeting for brunch. The older people in this country have been hunkered
down for a year because they've been worried about dying from this virus. Young
people in this country haven't worried so much about dying from this virus. And
there's a lot of pandemic fatigue."
Reiner said he understands many businesses have been
devastated and need to fully reopen once it's safe to.
"But easing the mask mandate makes zero sense," he
said. "There is no economic hardship, and there's no personal hardship to
require a person to wear a mask when they're out in public."
Ranney said young people may misinterpret the lifting of
safety mandates.
"When you hear that ... as a regular person who's not
following the day-to-day (data), you think, 'Well, my governor wouldn't open it
if it's not safe,'" she said. "So I think there is that mixed
message."
B.1.1.7 is also spreading among children :
It's not just young adults who are getting infected with
this variant. More cases of B.1.1.7 are showing up among children, too.
"Absolutely, we are seeing a higher number of kids test
positive for B.1.1.7 than we have seen for the other virus types," Ranney
said.
"It's not necessarily that kids are more susceptible to
B.1.1.7. But it's just that they're more likely to be exposed to it both
because they're out and about, and because this version is more
transmissible."
While classroom learning is relatively safe when the right
safety precautions are taken, health officials say after-school activities --
such as youth sports and other extracurriculars -- are causing more children to
get Covid-19.
And while Covid-19 deaths among children are extremely rare,
they have happened.
Some children who contracted coronavirus have experienced MIS-C, or multisystem inflammatory syndrome in children, which is rare but can sometimes cause severe illness or death.
The easiest ways to quash B.1.1.7 :
The good news about B.1.1.7: We don't need a new playbook to
fight it. But we do have to follow the existing playbook closely to snuff out
this highly contagious variant.
"Even though it is more transmissible, every piece of
data that we have supports that we can still stop it using the same techniques
that we have used for other variants," Ranney said.
"So it's still about masks and physical distancing and
ventilation and vaccines. And our current vaccines -- and this is really
critical -- the current vaccines work really well against B.1.1.7."
But here's the catch: The longer a virus circulates, the
more opportunities it has to develop new mutations. And if the mutations are
significant, they can lead to more problematic variants -- including some that
might evade vaccine protection.
"To me, this is a warning sign. This is a shot across
the bow of what could happen," Ranney said.
B.1.1.7 "does spread more easily. It is increasing the
number of cases. We're seeing some increases in hospitalizations, probably due
to the B.1.1.7 spread. But the vaccines work against it," she said.
"There may be future variants for which we are not so
lucky."
PLUTONIUM AND BOMBS
Clearly, there are several different stories to tell about plutonium. We will start with the future benefits, then discuss the weapons connection, and conclude with the toxicity question.
Fuel of the Future
As uranium occurs in nature, there are two types, U-235 and U-238, and only the former, which is less than 1% of the mixture, can be burned (i.e., undergo fission) to produce energy. Thus, present-day power reactors burn less than 1% of the uranium that is mined to produce their fuel. This sounds wasteful but it makes sense economically, because the cost of the raw uranium at its current price represents only 5% of the cost of nuclear electricity (see Chapter 13 Appendix). However, there is only a limited amount of ore from which uranium can be produced at anywhere near the current price, perhaps enough to provide lifetime supplies of the fuel needed by all nuclear power plants built up to the year 2025. Beyond that, uranium prices would escalate rapidly, doubling the cost of nuclear electricity within several decades.
Fortunately, there is a solution to this problem. The fuel for present-day American power plants is a mixture of U-238 and U-235. As the reactor operates, some of the U-238, which cannot burn, is converted into plutonium. This plutonium can undergo fission and thus serve as a nuclear fuel. In fact, some of it is burned while the fuel is in the reactor, enough to account for one-third of the reactor's total energy production. But some of it remains in the spent fuel from which it can be extracted by chemical reprocessing. This plutonium could be burned in our present power reactors, but an alternative is to use it in another type of reactor, the breeder, whose fuel is a mixture of plutonium and uranium (U-238). Much more of the U-238 in the breeder is converted to plutonium than in our present reactors, more than enough to replace all of the plutonium that is burned. Thus, a breeder reactor not only generates electricity, but it produces its own plutonium fuel with extra to spare. It only consumes U-238, which is the 99+% of natural uranium that cannot be burned directly; therefore, it provides a method for indirectly burning this U-238. With it, nearly all of the uranium, not less than one percent as in present type reactors, is eventually burned to produce energy. About a hundred times as much energy is thus derived from the same initial quantity. That means that instead of lasting only for about 50 years, our uranium supply will last for thousands of year. As a bonus, the environmental and health problems from uranium mining and mill tailings will be reduces a hundred fold. In fact, all uranium mining could be stopped for about 200 years while we use up the supply of U-238 that has already been mined and is now in storage.
Deriving 100 times as much energy from the same amount of uranium fuel means that the raw fuel cost per kilowatt-hour of electricity produced is reduced correspondingly. In fact, the fuel costs per unit of useful energy generated in a breeder reactor are equivalent to those of buying gasoline at a price of 40 gallons for a penny! (see Chapter 13 Appendix). Instead of contributing 5% to the price of electricity as in present-type reactors, the uranium cost then contributes only 0.05% in a breeder reactor. If supplies should run short, we can therefore afford to use uranium that is 20 times more expensive, for even that would raise the cost of electricity by only (20 x .05 =) 1%. How much uranium is available at that price?
The answer is effectively infinite because it includes uranium separated out of seawater.1 The world's oceans contain 5 billion tons of uranium, enough to supply all the world's electricity through breeder reactors for several million years. But in addition, rivers are constantly dissolving uranium out of rock and carrying it into the oceans, renewing the oceans' supply at a rate sufficient to provide 25 times the world's present total electricity usage.2 In fact, breeder reactors operating on uranium extracted from the oceans could produce all the energy humankind will ever need* without the cost of electricity increasing by even 1% due to raw fuel costs.
The fact that raw fuel costs are so low does not mean that electricity from breeder reactors is very cheap. The technology is rather sophisticated and complex, involving extensive handling of a molten metal (liquid sodium) that reacts violently if it comes in contact with water or air. Largely as a result of the safety precautions required by this problem, the cost of electricity from the breeder will be substantially higher at today's uranium prices than that from reactors now in use.3 Nevertheless, France, England, and the Soviet Union have continued with developing breeder reactors, and several other countries, including Germany and Japan, are involved to a lesser degree. The American program was at the forefront 20 years ago, but it became a political football and is now essentially dead.
On the surface, the opposition to the U.S. breeder reactor is based on the fact that uranium supplies are plentiful and cheap, leaving little incentive for an expensive development program at this time (less expensive research is continuing, most notably in a test reactor at the Hanford site in Washington State). Why, then, have other countries continued to press on with their development programs? First, even if development goes forward at the hoped-for pace, it will be many years before the first commercial breeder can become operational and many more before its use would become widespread; it is better to start up any new technology slowly, allowing the "bugs" to be worked out before a large number of plants is built. Second, we are not that certain about our uranium resources; they may be substantially below current estimates. Having the breeder reactor ready would be a cheap insurance policy against that eventuality, or against any sharp increase in uranium prices for whatever the reason. And third, the breeder reactor development program has substantial momentum, with lots of scientists, engineers, and technicians deeply involved. It is much more efficient to carry the program to completion now than to stop it, allow these people to become scattered, and then start over with a new team of personnel later.
Not far beneath the surface, there is substantial opposition to the breeder because of distaste for plutonium and general opposition to nuclear power. There are also some fears about the safety of breeder reactors, but experts on that subject (of which I am not one) maintain that they are extremely safe, and even safer than present reactors.3,8 They have the important safety advantage of operating at normal pressure rather than at very high pressure, as is the case for present reactors. There are therefore no forces tending to enlarge cracks or to blow the coolant out of the reactor (this is the blowdown discussed in Chapter 6.).
A key part of the breeder reactor cycle is the reprocessing of spent fuel to retrieve the plutonium. In fact, this must be done with the spent fuel from present reactors in order to obtain the plutonium necessary to fuel the first generation of breeder reactors. As long as there is no reprocessing, the plutonium occurs only in spent fuel, where it is so highly dilute (of 1% of the total) that it is unusable for any of the purposes usually discussed. Moreover, spent fuel is so highly radioactive (independently of its plutonium content) that it can only be handled by large and expensive remotely controlled equipment. It therefore cannot be readily stolen or used under clandestine conditions. Without reprocessing, there is no use for plutonium for good or evil.
It should also be recognized that plutonium plays only a minor role in waste disposal problems, and a negligible role in reactor accident scenarios. Thus, as long as there is no reprocessing, which is the present status in the United States commercial nuclear power program, plutonium issues have no direct relevance to the acceptability of nuclear power.
However, it is my personal viewpoint that it is immoral to use nuclear power without reprocessing spent fuel. If we were simply to irretrievably bury it, we would consume all the rich uranium ores within about 50 years. This would deny future citizens the opportunity of setting up the breeder cycle, the only reasonably low-cost source of energy for the future of which we can be certain. By such action, our generation might well go down in history as the one that denied humankind the benefits of cheap energy for millions of years, a fitting reason to be eternally cursed. On the other hand, if we develop the breeder reactor, we may go down in history as the generation that solved the world's energy problems for all time. Future generations might well remember and bless us for millions of years.
Unfortunately, the people in control are not worried about the long-range future of mankind. People in the nuclear power industry are concerned principally about the next 30 or 40 years, and politicians rarely extend their considerations even that far into the future. Whether or not we do reprocessing will have little impact over these time periods; thus the prospects for early reprocessing are questionable.
The situation was very different only a few short years ago. A large reprocessing plant capable of servicing most of the power plants now operating in the United States was constructed near Barnwell, South Carolina, by a consortium of chemical companies. The main part of the plant, costing $250 million, was completed in 1976, but two add-ons that would have cost about $130 million were delayed by government indecision. Since the add-ons would not be needed for several years, it was expected that the main part of the plant could be put into immediate operation.
At that critical point, the U.S. Government decreed an indefinite deferral of commercial reprocessing. The reason for the decree involved our national policy on discouraging proliferation of nuclear weapons, which will be discussed later in this chapter, but from the viewpoint of the plant owners, it was a disaster. They had been strongly encouraged to build the plant by government agencies — for example, federally owned land was made available to them for purchase — and every stage of the planning was done in close consultation with those agencies. They had scrupulously fulfilled their end of the bargain, laying out a large sum of money, and now they were left with a plant earning no income.
By the time the Reagan Administration withdrew the decree forbidding reprocessing 5 years later, the owners had lost heart in the project and were unwilling to provide the money, now increased to over $200 million, to provide the add-ons. The Barnwell plant was abandoned. It is generally recognized that there will be no commercial reprocessing in the United States unless the government provides assurances that money invested would be compensated if the project were again terminated by political decree, and guarantees to purchase the plutonium it produces. The latter requirement is necessary because the Barnwell plant was originally built with the understanding that utilities could purchase the plutonium to fuel present reactors, but the government has not taken action to allow this and probably will never do so. It is now widely agreed that it would be better to save the plutonium for breeder reactors. Since there are no commercial breeder reactors in the United States and will not be any for many years, this leaves the government as the only customer for the plutonium from a reprocessing plant.
Aside from the idealistic considerations of providing energy for future generations, an additional driving force behind getting reprocessing plants into operation is their contribution to waste management. Power plants are having difficulty in storing all of the spent fuel they are discharging; reprocessing gives them an outlet for it. Furthermore, the amount of material to be buried is very much reduced if the uranium is removed in reprocessing. There is also considerably more security in burying high-level waste converted to glass and sealed inside a corrosion-resistant casing, than in burying unreprocessed spent fuel encased in asphalt or some similar material.
On the other hand, there has been strong opposition to reprocessing. There have been well publicized attacks on its environmental acceptability, ignoring the contrary evidence in the scientific literature in favor of "analyses" by "environmental groups" tailored to reach the desired conclusion. There were widely publicized economic analyses of unspecified origin claiming that reprocessing was a money-losing proposition, even when the real professionals in the business considered it to be economically advantageous.9 There was a considerable amount of publicity for a paper issued by the DOE claiming that the Barnwell plant was technically flawed,10 but it turned out the paper was by a scientist with little experience in the field who had never visited the plant and was confused over differences between reprocessing fuel from present power reactors and breeder reactors; the paper had accidentally slipped through the DOE reviewing process and was disavowed and strongly critiqued by the head of the division that had issued it.11
A major part of this opposition to reprocessing came from those opposed to nuclear power in general for political and philosophical reasons. They realized that it was too late to stop the present generation of reactors, but if they could stop reprocessing, nuclear power could have no long-term future. However, the most important opposition to reprocessing came from its possible connection to nuclear weapons. If there is a connection between nuclear electricity and nuclear explosives, reprocessing is the bottleneck through which it must pass. We now turn to a discussion of that matter.













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