Wait a second!
More handpicked essays just for you.
More handpicked essays just for you.
Biomedical ethics problems
Nanotechnology in biomedical field
Ethical issues in biomedical
Don’t take our word for it - see why 10 million students trust us with their essay needs.
Recommended: Biomedical ethics problems
Biomedical engineering is a branch of science that connects engineering sciences with biological sciences that started around the 1940s (Citron & Nerem, 2004). Biomedical engineering is the discipline that promotes learning in engineering, biology, chemistry, and medicine. The objective for biomedical engineers is to enhance human health by incorporating engineering and biomedical sciences to solve problems. Some of the accomplishments made from biomedical engineering are prosthetics, robotic and laser surgery, implanted devices, imaging devices, nanotheranostics and artificial intelligence. As we head towards the future, biomedical engineering is anticipated to become an even greater part of the medical industry and bring about innovating …show more content…
Typically, in this line of work, biomedical engineers work collaboratively, and tend to work together with physicians, nurses, and technicians in order to determine new and creative ways to find solutions to problems that are complicated and have never been thought of to solve. In addition, biomedical engineers offer, physicians and other professionals, state of the art medical equipment to receive an insight of biological processes that occur in the human body, which benefit physicians choose the best possible treatment for their patients. Although biomedical engineering benefits the medical industry and has its supporters, there are those who contemplate the ethical implications of some of their research. All in all, biomedical engineering is the driving force to providing a better and more effectual health care to society by using new and innovating …show more content…
Nanomedicine is offering incredible and innovative therapies like cancer nanomedicine, nanosurgery, and tissue engineering. In cancer nanomedicine, they use “targeted drug delivery” to target the tumor itself and avoid harming the normal, healthy cells (Berger, 2017). This in return, offers a more effective treatment with better outcomes and less side effects. In cancer nanomedicine, nanoparticles are used as tumor destroying mediators that use high temperatures to destroy them. These nanoparticles have to be injected into the tumor, then they have to be activated to produce this heat and then they are destroyed via a magnetic field, X-rays, or light (Berger,
The fact that there have been many advancements in biomedical technology over the years have given us the ability to cure and prevent diseases that have once devastated the human population. These breakthroughs have allowed people to live longer and healthier lives, yet others believe that it runs the risk of “playing God” and that such matters should be left into the hands of a higher power. Today, this ethical debate still continues to raise questions on whether these scientific breakthroughs are morally acceptable. While I support the use of scientific breakthroughs, I believe that it should only be used for human benefit to cure those who are suffering from cancer. This approach seems more reasonable than using this technology to choose one’s eye color or keep someone on life support just because it is something that can be done, whether or not that is acceptable or not.
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
Having described the scenario, this essay will now focus on the anatomy and physiology during Laura’s third stage. After the delivery of her baby, Laura’s uterus continued to contract and retract due to the effect of oxytocin on the myometrium. Herman (2000) and Herman et al. (2002) describe the placental separation in three stages; latent, contraction/detachment and expulsion. During the latent phase Laura’s myometrium begun to contract and retract. During the contraction/detachment phase Laura’s myometrium continued to contract and retract. Therefore, the surface area decreased under the placenta and it detached from the spongy layer of the decidua, consequently exposing the maternal spiral arteries. During the expulsion phase, Laura’s placenta descended into her lower uterine segment and the membranes peeled away from the walls of her uterus. With further contractions of her uterus, Laura’s placenta and membranes descended into her vagina and expelled from it.
...ure will not be successful, then the doctor should let the patient know. This is to prevent bad results such as death or illness from a procedure or research that will not be successful. Statement II.1.e says that “Engineers shall not aid or abet the unlawful practice of engineering by a person or firm” (NSPE). This is saying that engineers should not be involved in illegal operations because there is a high chance that there would be un-desirable outcomes. An example being if there were illegal augmentation of metal foam into a soldier. If that soldier did not follow commands and instead created destruction and death, that would be a undesirable outcome.
Ingram, David, and Jennifer A. Parks. "Biomedical Ethics." The Complete Idiot's Guide to Understanding Ethics. Indianapolis, IN: Alpha, 2002. N. pag. Print.
Potential grave consequences that can result from irresponsible, or criminal, medical experiments. While we must be vigilant to protect innocent victims from such experimentation we cannot let that stifle our duty to continue making advances in healthcare and improving the lives of patients.
Biomedical engineering supports devices used in direct patient support services. Tasks include calibrating machines and replacing and testing batteries used in the equipment.
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...
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.
Many parents want a child that will achieve a lot and leave a mark on this earth, leave a legacy behind. Egg donation, karyomapping and IVF allow for parents to create this child they want. But can “playing god” and creating a child through these options cause more health, social, and ethical problems down the road. Bioengineering through egg donation, IVF, karyomapping, and other techniques should be totally illegal in the United States because of expectations parents will have for children, leftover embryos, medical risk, and custody problems.
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.
Many people don't know what biomedical engineers do. A biomedical engineer’s job is actually quite interesting. They analyze and create solutions to improving the quality and effectiveness of patient care. They also design technology to accommodate the needs of people with disabilities. They have a big role in helping people begin new lives. The main job of a biomedical engineer is to help create prosthetic limbs or organs for those who are in need of one.
Dr. Jon Schiller describes genetic medicine as the newer term for medical genetics and incorporates areas such as gene therapy, personalised medicine and a new emerging speciality, predictive medicine. Medical genetics is the specialty of medicine that involves the diagnosis and management of hereditary disorders (Dr. Jon Schiller, 2010).
Biological engineering is a type of engineering that uses biological and medical science to create products ranging from medicines to genetically-altered animals and plants in order to solve medical problems that is occurring in the world as of right now in hopes to cure diseases such as AIDs, STIs, and even cancer. A biological engineer’s job is to analyze and design solutions to problems in biology and medicine with intentions to advance the quality of medical care. Biological engineers usually work in places like universities, hospitals, research facilities, and government areas and they normally work full time. In order to pursue this career, you need a bachelor’s degree. Locations of employment occur in at least 30 states such as Texas, Florida, and California (please refer to the second link of the “works cited” page for the full list) in the urban areas. As of May 2012(due to lack of reliable sources for the pay of 2014), the pay people receive from this career varies depending on location and the industry. Hourly pay, according to the “U.S. Bureau of Labor Statistics” (BLS), ranges from $41.81 to $43.84 or $86,960 to $139,450 per year with the highest wages coming from Colorado ($104,550) and Minnesota ($103,440) while the lower pay states ($58,380-$74,030) are reported to come exclusively from Arizona, Nebraska, Indiana, Kentucky, South Carolina and Oklahoma. It is also shown that the longer you work in biological engineering, the more money you can receive as if you work for less than a year, you are expected to earn between $40,709-$79,631 while if you worked for more than 20 years, expect your salary to be in between $49,833-$127,477.