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Technical advancement in medical field
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The application of the principles biomedical science is a pivotal component, if not the cornerstone of the modern healthcare setting; which has greatly impacted the longevity of humanity. The discoveries and advances made in this field, bolstered my motivation and passion to study biomedical science, not only to develop my understanding of the complexity of the human body and its process’ but also to potentially play a role in improving the lives of others; as well as answering some of the complex questions life presents. My interest in the field, specifically the discipline of haematology, came in the diagnosis of my father’s autoimmune disease which causes a depletion of platelets and thus affecting the ability of the blood to clot. Through my studies I was able to gain some basis as to …show more content…
In addition, this has allowed me to gain an understanding of both biological and chemical processes such as the polymerization that occurs to form amino acids and the relation of these in biological processes involving the formation of enzymes. Though not scientific, studying English has helped me to develop my communication and essay writing skills.
Furthermore, I enjoy using digital platforms such as TED and Talks at Google to further my learning beyond the scope of the classroom setting. The main point of interest is topics relating to technological advances and their application in the healthcare setting; a particular talk by Jim Al-Khalili about how quantum mechanics can be applied to biological principles to help to explain life processes on a molecular level. This talk goes into detail about how various scientific disciplines fit together to the understanding of human
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
Wilmoth Lerner. 4th ed. Detroit: Gale, 2008. Student Resources in Context. Web. 12 Mar. 2014.
Please explain your reasons for wanting to participate in the Garcia Center Summer Scholar Program.
Biological Level of Analysis (BLOA) deals with biological adaptations at a biological level. BLOA states that cognitions, emotions and behaviours have a physiological basis to all of them. There are 3 main principles that revolve and outline the BLOA. Foremost, Behaviour is innate, as it is genetically based, so it rational to conclude that behaviour is genetically influenced by evolution. Secondly, Animal research may inform our understanding of human behaviour, as to why a lot of research is done on animals. Lastly, Cognitions, emotions and behaviours are products of than anatomy and physiology of our nervous and endocrine systems. This essay will discuss how research has provided evidence to support the principle that animal research may inform our understanding of human behaviour.
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...
It is so thought-provoking, that one mutation in a single gene can cause alterations within phenotypes and genotypes that cause rare genetic disorders. I have also found interest in the neural sciences. I find the topics of neurotransmitters and synaptic transmission enthralling. Specifically, learning about the structure, receptors, and drugs affecting the neurons of GABA and acetylcholine. When I took Anatomy and Physiology, it was interesting to see the correlation between GABA and epilepsy.
My exposure to the rich and diverse marine life throughout my childhood and early adolescence, gained by travelling to various tropical destinations, has been the instigator for my interest in the marine environments; as a result I have been infatuated with the complex ecosystem that is the world's oceans. The idea of the undiscovered regions of the ocean holds particular interest, as they could hold various new species and ecosystems that may offer new information with regards to aquatic evolution and sustainability. Moreover, Phytoplankton is of fascination, in the way they use geothermal energy in chemosynthesis. The ocean intrigues me from a purely academic standpoint, as very little is known about the oceans, and in terms of discovery,
This led me to pursue a Master’s degree in Biophysics and Molecular Biology. It is my unchanging aspiration to explore and to discover the mysteries of the inner workings
Since then, I have read a plethora of scientific books which explore ideas which have revolutionized biochemistry such as ‘The Double Helix’ and ‘Microbiology: Nuts and Bolts’, both of which have stimulated my interest in learning more about the human body on the micro level. To increase my knowledge into complex medical problems I have completed a six week course from the University of Glasgow called ‘Cancer in the 21st century’. This drove me to complete a further course with certification called ‘Cardiovascular Health: A guide to cardiovascular disease’. Studying medicine was the first subject which came to mind, but I could not see myself working in a hospital on a
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.
I began to think about ways to apply the optimized and fine-tuned components in engineering to patient care. Studying bioreactor designs, airflow simulations in the lung, and circuitry connected to cardiac tissue, I viewed various organ systems and molecular pathways as a series of reactors intertwined with numerous interactions that have yet to be discovered. With this engineering perspective, I became more involved in research while asking clinically-oriented questions. I realized I wanted to become a physician scientist—to meld medical knowledge with this crucial strain of scientific inquiry that has sustained my curiosity and passion for the field since I was a teenager—and to be able to bring that research to help advance patient
“The purpose of life is not to be happy. It is to be useful, to be honorable, to be compassionate, to have it make some difference that you have lived and lived well.” said Ralph Waldo Emerson. The life-saving knowledge people use to eliminate pathogens and to provide medical care comes from biologists. Understanding biology interests me greatly, not only because of expanding my knowledge of how organisms work, but also because of the potential to help the people suffering from diseases. My interest in the biological sciences began with my first biology class in middle school, and continued through high school.
Being apart of the underrepresented, minority group teaches me the importance and value of educating oneself and overcoming stereotypes. My interest in science stems from both my personal and academic experiences, whereby I excelled in all of my science classes in High School, and witnessed my grandfather undergoing three heart attacks. It seemed logical for me to pursue a career in medicine because I convinced myself that I will one day be saving my grandfather’s life if he continues to ignore my amateur medical advices. I share a strong passion for medicine, not only because saving lives is an important factor fueling an aspiring physician’s interest, but making a difference in the world as well as contributing to the change is what serves as a greater impact. Nonetheless, a graduate degree in Biomedical Sciences will provide me with the opportunity to develop new skills and acquire the
My future plans are to become a biomedical scientist. Biomedical scientists serve in all levels of health science research from basic science working with cell cultures to human clinical trials experimenting the most cutting-edge breakthroughs to maximize human quality of life. I am interesting in researching rare diseases. There are many rare diseases that affect small proportions of the population and unfortunately go unnoticed for reason. Unfortunately, usually it is because therapeutic agents for these diseases would have a much smaller market than therapeutics for common diseases. There is an immense need for research attention to ultimately improve clinical outcomes in patients of rare diseases because many are a lifelong chronic prognosis and are genetic and non-modifiable by lifestyle factors and are lacking of often absent of current treatment options. The government helps by socializing the solution by having money set aside by public National Institute of Health (NIH) to research ‘orphan diseases’. An example of one such program from the NIH is Orphan Products Natural History Grants Program.