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Particle accelerator quizlet
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Far away, on the border of both France and Switzerland, lies the massive CERN Accelerator Complex. This series of particle accelerators increases the momentum of packets of nuclei to almost light speed, then collides them. It collects the debris of the resulting destruction in hopes of finding the basic building blocks of matter. This is a basic overview of what happens at CERN, but when examined more closely, this process becomes far more difficult and complicated. How does this “Atom Smasher” work? How is it built? Most importantly, how do the thousands of euros poured into this costly research benefit the practical world?
The CERN Accelerator Complex uses advanced technology and complicated processes to speed up particles just below light speed. The first step is that hydrogen atoms are fed into a chamber and striped of their electrons. This provides the particles that are accelerated. The LINAC-2 linear accelerator, an accelerator that boost particles to high speeds via electromagnets in a linear vacuum tube, increases the nuclei’s speed to one-third the speed of light. The next accelerator, the Proton Synchrotron Booster, splits the packet into four parts, then accelerates them further. This is a circular accelerator, as opposed to linear, because at this velocity, speeding protons in a straight line would be impractical. This beam could travel around the world within a second. The electromagnets in the booster bend the beam around the ring, while the electric field increase the speed in a way much like one would push a child on a swing. The booster flings the packets into the Proton Synchrotron recombining them as a single packet. This is where things begin to get extremely fast. The Proton Synchrotron, 628 meters in circ...
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...Particle accelerators could even cure the great modern day plague known as cancer. By firing a carefully controlled 400 EV beam at the cancer tumor, it would kill the cancer, saving the subject life. The people at CERN are doing an excellent job, and are well worth their funding.
The particle accelerator is a complex machine with many complicated parts, and costs a fortune to run, but if they continue in assisting in advances like this, it will be worth it many times over. Particle accelerators are growing constantly better, and there could be many other things they could help the world discover, like alternate dimensions and new particles. There is still a whole universe out there, and every puzzle of physics we solve, every new gadget we make, every new cure we find, exposes new problems for the world to solve, because the more we know, the more there is to know.
According to Neal Conan from Talk of the Nation there are trillions of cells growing in laboratories now than there ever were in her
... been beneficial to humans by improving the lives of those who have potentially fatal diseases. In the future of stem cells research more and more fatal diseases will be cured because of the technology gained from stem cells research. That’s why we need to keep on researching stem cells.
... plus 19 to 22 children were found cancer free after gene therapy was given (Global News).
...y may be another area of research that may enhance anti-tumor activity. Creating better antibodies, like rituximab and others we are able to better target the tumor cell. There are many targets on our bodies immune cells and by being able to locate them specifically and boost the immune system in order for it to work better than it already can proves to be beneficial and harnessing this power can lead to a dramatic impact on the way we treat cancer. Maintaining and preserving patients quality of life and looking for lifelong cure is what scientists are looking for. Improving the efficacy of these immunotherapy treatments can lead to significant breakthroughs including longterm remission and being able to treat patients with cancer that is hard to treat. I look forward and can't wait to see the advances that will be made in this field or research in the near future.
In 1946, a woman by the name of Mary Lasker, a member of the original ASCC, helped raise more than $4 million for the Society, where one million of it was used to establish and fund infamous cancer research (ACS Inc, 2011). Soon after, Dr. Sidney Farber, one of the Society’s first research grantees, achieved the first temporary cancer remission in a child with acute leukemia using the drug Aminopterin (ACS Inc, 2011). The ACS has been developing research theories for decades, with approximately $3.5 billion dedicated to finding a cure to cancer through research (ACS, 2011). With the ACS name nationally recognized, they were able to help fund many national, government, and hospital prevention strategies and research.
"Stem cell research is the key to developing cures for degenerative conditions like Parkinson's and motor neuron disease from which I and many others suffer." -- Stephen Hawking
How is radiation therapy being improved some might ask,"Doctors and other scientists are conducting research studies called clinical trials to learn how to use radiation therapy to treat cancer
...s, Alzheimer, birth defects, organ transplant and many more. Imagine how other people will benefit from those studies. We may be even able to assist other countries with the study of embryonic stem cell. We could save people’s lives or make them live a bit longer until a real cure is found.
nanotubes and microchips. Research is expensive though, so I do not see the cost of
From the day Pierre met Marie at a friend’s house, he was smitten. Together the scientific couple published over thirty papers on radioactivity. They could have become rich by patenting their process of extracting radium, but the Curies refused to do so. They were generous. They thought that scientific research should not be hidden but belong to everyone (Bailey). The Curie’s work, which dealt with changes in the atomic nucleus, led toward the modern understanding of the atom as an entity that can be split to release enormous energy (“Marie and Pierre Curie”).
The largest and most powerful particle collider in the world, based in CERN on the border of France and Switzerland, it is a huge undertaking. It is built to assists the scientists in discovering what the Earth is made of; it also plays a crucial part in resolving many theories by scientists. It is a 27 kilometer ring with super magnets that help the particles speed along the way. Some people also argue that it’s a machine that could possibly be dangerous, because it has the capability of creating small BLACK HOLES! “One way or another, it's the world's largest machine and it will examine the universe's tiniest particles. It's the Large Hadron Collider (LHC).”
Bioengineering analysis is pointing a new way to better drug designs and better drug testing. The disease of cancer has taken the life of many patients, but through new medicines and procedures many more are surviving. A significant progress has been made against cancer, allowing people to live longer and fuller lives. There have been more than one-million less cancer deaths since 1990and 1991(aacr.org). On January 1, 2012 there were 13.7 million survivors in the United States. These numbers are achieved by using new techniques to cure cancer like, immunotherapies to avoid toxins, Targeted cancer therapies to target different types of cancer, and weakling cancerous tumors making them susceptible to drugs. Cancer is still a significant problem and is far from being cured, but step by step biomedical engineers are getting closer and closer.
...h cesium ions and then to focus it into a fast moving beam. The ions that are produced become negative, which helps prevents the confusion of Carbon-14 with Nitrogen-14 since Nitrogen does not have a negative ion. The first magnet is used to select ions with an atomic mass of fourteen. The ions then enter the accelerator. As they travel to the terminal, they are accelerated to an incredible speed so when they collide with the gas molecules, all of the molecular ions are broken up and most of the carbon ions have four electrons removed, turning them into Carbon3+ ions. The second magnet selects ions with the speed expected for the Carbon-14 ion and a filter makes sure their momentum is also right. Finally, the filtered Carbon-14 ions enter the detector where their speed and energy are checked so that the number of Carbon-14 ions in the sample can be counted (Oxford).
... new ways to treat other diseases like the cancer genes that soon could very well be stopped before they even start. The changes it could bring are amazing there is really no reason to stop learning more about helping to heal the human body.
The procedures that will be the future of modern medicine currently fall into the realms of taboo and fictional. These procedures encompass every aspect of medical science, from exploration of the human body, curing diseases, to improving a person’s quality of life. Many of these procedures are not very well known, while a few have been in the spotlight. These procedures include cloning, nano-robotics, retro-viruses, and genetic manipulation via gene-specific medications. For any serious breakthroughs in modern medical science, we must embrace these new forms of treatment instead of shying away from them. Second, I’ll attempt to explain how these methods and procedures could benefit mankind.