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Career goals in biomedical engineering
What is the importance of biomedical engineering
Career goals in biomedical engineering
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Many great inventions have been made through research in biomedical engineering, for example, genetic engineering, cloning, and insulin. After insulin has been invented, there are still a lot of problems with the purity and the quantity of the insulin produced. Biomedical engineering devised a way to produce large quantities of insulin with a higher level of purity, which has saved a lot of human lives. Although biomedical engineering just been officially founded 200 years ago, its practice has been with us for centuries. According to The Whitaker Foundation website, 3,000-year-old mummy from Thebes, which uncovered by German archeologists, with a wooden prosthetic tied to its foot to serve as a big toe is the oldest known limb prosthesis and Egyptian listen to the internal of human anatomy using a hollow reed, which is what today’s stethoscope. No matter what the date, biomedical engineering has provided advances in medical technology to improve human health. These advances by biomedical engineering have created a significant impact to our lives. I have determined to become a biomedical engineer. Biomedical engineering will have a good prospect because it will become one of the most important careers in the future.
According to Bureau of Labor Statistics, biomedical engineers “develop devices and procedures that solve medical and health-related problems by combining their knowledge of biology and medicine with engineering principles and practices.” Biomedical engineers are expected to have employment growth of 72 percent over the projections decade, much faster than the average for all occupations. The employment growth is very high even compared to other engineers.
Employment growth for engineers (Projection to 2018):
Occu...
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...m these advancements that are from human body parts. Instead, it is imperative to honor and preserve those who have made these interventions possible
In the late twentieth century, the field of biotechnology and genetic engineering has positioned itself to become one of the great technological revolutions of human history. Yet, things changed when Herber Boyer, a biochemist at the University of California, founded the company Genentech in 1976 to exploit the commercial potential of his research. Since then the field has exploded into a global amalgam of private research firms developing frivolous, profit-hungry products, such as square trees tailor-made for lumber, without any sort of government regulation.
Tiner, John Hudson. Exploring the History of Medicine: From the Ancient Physicians of Pharaoh to Genetic Engineering. Green Forest: Master, 2009. Print.
These studies, in my opinion, hold to be necessary on my intended path to research breast cancer, and hopefully extend my investigations and findings to other types of cancerous diseases as well. Besides that, these degrees could not only be useful for research on cancer, but also in other types of disease research or development of modern technologies with the focus on sharpened imaging and detection, regenerative technologies, and biomechanics. That is why I also desire to apply my outstanding analytic and problem solving skills to extend my horizons. Therefore, I aim to earn a Bachelor of Science in Mechanical Engineer before completing graduate school or medical school, which would succor my future in research activities. Thus, I know that in order for to develop the latest technology additional fields of study remain necessary to create a cutting-edge and satisfactory solution to resolve a
My future career goal is to become an anesthesiologist. An anesthesiologist administers an anesthetic to patients before going into surgery. They also have to keep monitor of vital life signs and make sure everything in the body is functioning properly while under the anesthetic. I think being an anesthesiologist is something I’d enjoy being because I like being in control. I like making sure people are okay and that is specifically what anesthesiologists do; they make sure the patient can’t feel any pain and is comfortable during surgery.
It is frequently argued that genetic patents are the root cause of innovation in research and development (R&D). Particularly, biotechnology companies assert that patents allow them to conduct innovative research by guaranteeing market control and royalties to the company, which reduces the overall risk of investing time and resources into costly research. Without
I can never forget the time I wrapped slices of raw onions onto my grandpa's foot. I looked up at his strained face, and very calmly he said to me, "It burns, can you please take it off?" My dad, next to me, told me to ignore his requests. He studied Chinese medicine, and this was an Eastern remedy to lower blood pressure. My grandpa had recently had a spike in blood pressure, and it was terrifying to realize that I could have easily lost him to a heart attack or stroke.
The one instant I can pinpoint as the genesis of my interest in biomedical science was the winter of sixth grade, when I picked up a book on creativity and the brain. I found it fascinating, but what really struck me was that here was a several hundred page book that mostly talked about how little we knew about its topic. It made me think. This was supposed to be a book about how much we’ve learned, and what it’s saying is that the progress we’ve made is only in finding out how little we know. This didn’t upset me; it made me curious. Because, of all the things that we should know about, surely our own minds and our own bodies are paramount among them, and yet we still have so much to learn. I’ve since learned that this phenomenon is not restricted to the biological – gravity is one of the most important things in our lives, yet we do not know its cause. But the biomedical questions continue to fascinate me, perhaps because the answers are so vital. Sure, cosmology is intriguing, but what about a cure for cancer, or even the common cold? What about a way of repairing or bypass...
The career field I am studying is anesthesiology. The reason I am studying anesthesiology is so I can learn about a possible future career field for me. I choose anesthesiology because it seems to be an interesting career choice. It seems like it would be cool to be one. That is the reason I am writing this paper to so if I would be interested in becoming an anesthesiologist.
My long term career goals include the pursuit of research in the field of Bioinformatics and teaching in an academic environment. I have found that a career in research is both intellectually stimulating and satisfying and hence I have decided to take this up as my career objective.
The most important and influential discovery was the practice of surgery. With this invention, human life became more sophisticated, humans lived longer, and we obtained a knowledge of ourselves sufficient enough to break the boundaries built by ignorance. Lacking prescription drugs, accurate tools, computer technology, and any background experience to build from, our ancestors struggled to learn how to repair the human body. They did an suprisingly competent job of treating the sick and injured. Some of the medical technology developed in ancient times surpassed anything available in the modern world until the 18th century or 19th century. In eras wherein religious views took precedence over medicine and logic, surgical advancement was difficult. The knowledge we have now was obtained from these people's exploits.
Biomechanical engineering is driven by needs similar to those of biomedical engineering. There is always a constant need to improve medical equipment while keeping it cost efficient. These are the two main needs for all biomedical engineers. Biomechanical engineering is specifically dedicated to applying the scientific of knowledge mechanical systems and engineering to biology and the human body. One of the many needs that drives this biomedical subfield is society’s need for more advanced equipment and machinery. Some recent advances show this need. In the last decade, biomechanical engineers have invented and innovated new robots and machines that can assist a surgeon in surgery or serve as an artificial liver. These machines satisfy the need to improve and innovate new equipment that can save lives and improve how people in the medical field perform their
By convention, the field of healthcare research was entirely occupied by physicians and doctors. They were the ones who came up with new methods to treat diseases and get better results from diagnostic tests. Technology, on the other hand, was always looked at as a way to solve problems that we faced that didn’t pertain to the medical sector. It was employed to enhance the quality of life and make day to day work easier. But as technology progressed, so did the areas of application. The structural balancing techniques which were previously used to hold a building steady were now being used to develop near-perfect artificial joints and prosthetic limbs. Transparent polymers, developed to enhance robotic vision, were being suggested as a candidate for an artificial lens for the human eye. Before anyone could even understand what was happening, engineering had taken up the mantle to further medical technology to dizzying new heights.
The history of anatomy and physiology dates back to ancient Egyptian times when humans were mummified after death and bodies would be stripped of their internal organs during the embalming process. It was not until much later when Hippocrates II, known as the father of medicine, was the first to write about human anatomy. Shortly after that, the Alexandrian Medical School was established, where human dissection was allowed for the first time, which promoted research and new discoveries in the field. From there, many other influential researchers came up with theories regarding the cardiovascular and nervous systems, etc; however, the missing links in some of the earlier theories was found with the discovery of the microscope, which changed the focus of research and led to many advancements in the field.
...ll human organs and the systems that they belong to. "This would be the most revolutionary type of alternative, especially for human related experiments"().