Generate an explanation for the given claim using the provided supporting material from the paragraph. Please consider the following points while generating an output. 1) The claim will always have supporting proof in the paragraph, and the paragraph will have a clear point of view supporting the claim. 2) There can be instances where direct correlation to the claim is not available. Make use of the sentences in the paragraph to provide a corresponding output supporting the claim. 3) The explanation should be at least one and at most twelve sentences long.
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Question: Paragraph: Serge Haroche of France and American David Wineland, both 68, found ways to manipulate the very smallest particles of matter and light to observe strange behavior that previously could only be imagined in equations and thought experiments. Wineland once described his own work as a “parlor trick” that performed the seemingly magical feat of putting an object in two places at once. Other scientists praised the achievements as bringing to life the wildest dreams of science fiction. “The Nobel laureates have opened the door to a new era of experimentation with quantum physics by demonstrating the direct observation of individual quantum particles without destroying them,” said the Royal Swedish Academy of Sciences, which awarded them the 8 million crown ($1.2 million) prize. “Perhaps the quantum computer will change our everyday lives in this century in the same radical way as the classical computer did in the last century.”  Haroche said he was walking in the street with his wife when he recognized the Swedish country code on the incoming call to inform him of the award. “I saw the area code 46, then I sat down,” he told reporters in Sweden by telephone. “First I called my children, then I called my closest colleagues, without whom I would never have won this prize,” he said. Asked how he would celebrate, he said: “I will have champagne, of course.”  He told Reuters he hoped the prize would give him a platform “that will allow me to communicate ideas, not just in this field of research but for research in general, fundamental research”. Wineland was asleep at home in Boulder, Colorado, when the phone call from Stockholm arrived before dawn on Tuesday morning, he said at a press conference. (His wife answered.) Physics is the second of this year’s crop of awards; scientists from Britain and Japan shared the first prize on Monday, in medicine, for adult stem cell research. The prizes, which reward achievements in science, literature and peace, were first awarded in 1901 in accordance with the will of Swedish dynamite millionaire Alfred Nobel. “This year’s Nobel Prize recognizes some of the most incredible experimental tests of the weirder aspects of quantum mechanics,” said Jim Al-Khalili, professor of physics at the University of Surrey in Britain. “Until the last decade or two, some of these results were nothing more than ideas in science fiction or, at best, the wilder imaginations of quantum physicists. Wineland and Haroche and their teams have shown just how strange the quantum world really is and opened up the potential for new technologies undreamt of not so long ago.”  Quantum physics studies the behavior of the fundamental building blocks of the universe at a scale smaller than atoms, when tiny particles act in strange ways that can only be described with advanced mathematics. Researchers have long dreamt of building “quantum computers” that would operate using that mathematics - able to conduct far more complicated calculations and hold vastly more data than classical computers. But they could only be built if the behavior of individual particles could be observed. “Single particles are not easily isolated from their surrounding environment, and they lose their mysterious quantum properties as soon as they interact with the outside world,” the Nobel committee explained. “Through their ingenious laboratory methods Haroche and Wineland, together with their research groups, have managed to measure and control very fragile quantum states, which were previously thought inaccessible for direct observation. The new methods allow them to examine, control and count the particles.”  Both scientists work in the field of quantum optics, studying the fundamental interactions between light and matter. The Nobel committee said they used opposite approaches to the same problem: Wineland uses light particles - or photons - to measure and control particles of matter - electrons - while Haroche uses electrons to control and measure photons. In one of the strange properties of quantum mechanics, tiny particles act as if they are simultaneously in two locations, based on the likelihood that they would be found at either, known as a “superposition.”  It was long thought that it would be impossible to demonstrate this in a lab. But Wineland’s “parlor trick” was to hit an atom with laser light, which according to quantum theory had a 50 percent chance of moving it, and observe the atom at two different locations, 80 billionths of a meter apart. In a normal computer, a switch must either be on or off. A quantum computer would work with switches that, like the particles in Wineland’s experiment, behaved as if they were in more than one position at the same time. An example is a computer trying to work out the shortest route around town for a travelling salesman. A traditional computer might try every possible route and then choose the shortest. A quantum computer could do the calculation in one step, as if the salesman travelled each route simultaneously. Wineland is a dedicated experimentalist, not bothered by the bizarre philosophical implications of quantum mechanics, such as the notion that reality does not exist until an observer measures it. “You can find debate on this, but I’m not sure we’re so special in the universe” as to have the power to bring reality into being, he told Reuters. His realism extends to applications of his work. “I wouldn’t recommend anybody buy stock in a quantum computing company,” Wineland told reporters, but he said he was optimistic that it might be possible to build one eventually. He plans to be part of the quest. Asked if his science career was nearing an end, he said he had no plans to retire “until they drag me out of here for being too old”. ($1 = 6.6125 Swedish crowns) Claim: "Nobel for quantum ""parlor trick"" that could make super computers."

Answer: A French and an American scientist won the Nobel Prize in physics on Tuesday for finding ways to measure quantum particles without destroying them, which could make it possible to build a new kind of computer far more powerful than any seen before.


Question: Paragraph: Irish-born William Campbell and Japan’s Satoshi Omura won half of the prize for discovering avermectin, a derivative of which has been used to treat hundreds of millions of people with river blindness and lymphatic filariasis, or elephantiasis. China’s Tu Youyou was awarded the other half of the prize for discovering artemisinin, a drug that has slashed malaria deaths and has become the mainstay of fighting the mosquito-borne disease. She is China’s first Nobel laureate in medicine. Some 3.4 billion people, most of them living in poor countries, are at risk of contracting the three parasitic diseases. “These two discoveries have provided humankind with powerful new means to combat these debilitating diseases that affect hundreds of millions of people annually,” the Nobel Assembly at Sweden’s Karolinska Institute said. “The consequences in terms of improved human health and reduced suffering are immeasurable.”  Today, the medicine ivermectin, a derivative of avermectin made by Merck & Co, is used worldwide to fight roundworm parasites, while artemisinin-based drugs from firms including Novartis and Sanofi are the main weapons against malaria. Omura and Campbell made their breakthrough in fighting parasitic worms, or helminths, after studying compounds from soil bacteria. That led to the discovery of avermectin, which was then further modified into ivermectin. The treatment is so successful that river blindness and lymphatic filariasis are now on the verge of being eradicated. Omura, 80, said the real credit for the achievement should go to the ingenuity of the Streptomyces bacteria, whose naturally occurring chemicals were so effective at killing off parasites. “I really wonder if I deserve this,” he said after learning he had won the prize. “I have done all my work depending on microbes and learning from them, so I think the microbes might almost deserve it more than I do.”  Omura is professor emeritus at Kitasato University in Japan, while Campbell is research fellow emeritus at Drew University in Madison, New Jersey. “This was the work of a team of researchers so it is by no means my work, it’s our work,” said Campbell, 85, who learned of his prize in a pre-dawn phone call from Reuters that woke him at his home in North Andover, Massachusetts. “In the first decade, there were 70 authors that I co-authored papers with. That gives you some idea of the number of people involved,” he said. Tu, meanwhile, turned to a traditional Chinese herbal medicine in her hunt for a better malaria treatment, following the declining success of the older drugs chloroquine and quinine. She found that an extract from the plant Artemisia annua was sometimes effective but the results were inconsistent, so she went back to ancient literature, including a recipe from AD 350, in the search for clues. This eventually led to the isolation of artemisinin, a new class of anti-malaria drug, which was available in China before it reached the West. Tu, 84, has worked at the China Academy of Traditional Chinese Medicine since 1965. World Health Organization spokesman Gregory Hartl said the award of a Nobel prize for the discovery was a great tribute to the contribution of Chinese science in fighting malaria. “We now have drugs that kill these parasites very early in their life-cycle,” said Juleen Zierath, chair of the Nobel Committee. “They not only kill these parasites but they stop these infections from spreading.”     Death rates from malaria have plunged 60 percent in the past 15 years, although the disease still kills around half a million people a year, the vast majority of them babies and young children in the poorest parts of Africa. The 8 million Swedish crowns ($960,000) medicine prize is the first of the Nobel prizes awarded each year. Prizes for achievements in science, literature and peace were first awarded in 1901 in accordance with the will of dynamite inventor and businessman Alfred Nobel. Last year, the medicine prize went to three scientists who discovered the brain’s inner navigation system. Claim: Beating parasites wins three scientists Nobel prize for medicine.

Answer: Three scientists from Japan, China and Ireland whose discoveries led to the development of potent new drugs against parasitic diseases including malaria and elephantiasis won the Nobel Prize for Medicine on Monday.


Question: Paragraph: The CDC said Friday health care providers have diagnosed about one case in each month since last November, and officials are trying to determine if they’re related. The CDC said all six individuals were hospitalized and that one died, although it’s unclear if the Legionella bacteria was to blame. Legionnaires’ disease is a severe form of pneumonia caused by inhaling water droplets containing the bacteria. The bacteria is common in streams and ponds, but it can also spread in buildings through air conditioning systems, hot tubs and fountains. Last year, there were 33 cases in Maine. The exact number is uncertain because healthy people generally don’t produce symptoms. Claim: Maine officials investigate Legionnaires’ disease cluster.

Answer:
The Maine Center for Disease Control and Prevention is investigating a cluster of six Legionnaires’ disease cases in the Bangor area.