Medical physics and medicine

In summary, the role of doctors in collaborating with medical physicists and engineers to design, research, and develop medical equipment and machines is limited. While medical scientists, who are often doctors, may play a role in device development, general practitioners are not heavily involved. In the US, medical physicists are primarily focused on treatment rather than equipment design, but there are instances where doctors and physicists may collaborate on the design of a device. However, the majority of the work is done by engineers, with doctors and physicists providing input and expertise as needed.
  • #1
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Do doctors (people who did medicine at university, be it MBBS or MD) get to collaborate with medical physicists and medical engineers to design, research and develop medical equipment and machines? Or is this the job of medical scientists and doctors only get to use the equipment?
 
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  • #2
The term "doctor" is extremely ambiguous. More times than not medical scientists are doctors. Are you asking if general practitioners (family medical doctors) play important roles in medical device development, i'd guess not very much. It's like asking if an auto shop mechanic plays an important role in designing a new engine.
 
  • #3
in the US, medical physicists are only for treatment, they don't design the equipments, the engineers do, which they don't really need to collaborate because the doctors arent the ones using the equipments, the technicians do.
 
  • #4
I beg to differ. At my company we have had to collaborate with both radiation oncologists in order to design a treatment planning system but also medical physicists and technicians in order to design a user friendly and streamlined workflow. In addition, we have 3 medical physicists on staff to help with designing QA tools necessary for performing quality assurance on the device (FYI, our device is a real time MRI for IGRT). Granted, the majority of work is done by the engineers, but there is room for doctors and MPs (several sit on both our Clinical Advisory Board and Scientific Advisory Board - our founder is an AMP).
 
  • #5


I can confirm that doctors do collaborate with medical physicists and medical engineers in the design, research, and development of medical equipment and machines. In fact, interdisciplinary collaboration is essential in the field of medical physics and medicine in order to effectively address complex healthcare challenges.

Medical physicists, with their expertise in physics and engineering, work closely with doctors to design and optimize medical equipment, such as imaging devices and radiation therapy machines. They also play a crucial role in conducting research to improve existing technologies and develop new ones. Medical engineers, on the other hand, work with doctors to design and develop medical devices and equipment that meet the specific needs of patients and healthcare providers.

Medical scientists also play a significant role in the development of medical equipment and machines. They conduct research to understand the underlying mechanisms of diseases and develop new treatments. However, their collaboration with doctors and other professionals, such as medical physicists and engineers, is crucial in translating their findings into practical applications.

Therefore, the collaboration between doctors, medical physicists, medical engineers, and medical scientists is essential for the advancement of medical technology and its effective use in patient care. Doctors not only get to use the equipment, but they also play a crucial role in its development and optimization to meet the needs of their patients.
 

1. What is medical physics and how does it relate to medicine?

Medical physics is a branch of physics that applies the principles and techniques of physics to the field of medicine. It is an interdisciplinary field that involves the use of physics in the diagnosis, treatment, and prevention of diseases. Medical physicists work closely with physicians and other healthcare professionals to ensure the safe and effective use of radiation and other technologies in medical procedures.

2. What are the main applications of medical physics in medicine?

The main applications of medical physics in medicine include diagnostic imaging, radiation therapy, nuclear medicine, and medical radiation safety. Diagnostic imaging techniques such as X-rays, MRI, CT scans, and ultrasound all rely on the principles of medical physics to create images of the body. In radiation therapy, medical physicists work with radiation oncologists to plan and deliver precise doses of radiation to treat cancer. Nuclear medicine uses radioactive substances to diagnose and treat diseases. Medical physicists also play a critical role in ensuring the safe use of radiation in medical procedures.

3. What type of education and training is required to become a medical physicist?

To become a medical physicist, one must have a strong background in physics, mathematics, and biology. Most medical physicists hold a graduate degree in medical physics, physics, or a related field. They also complete a clinical residency program and pass a certification exam to become licensed medical physicists. Continuing education and training is also necessary to maintain licensure and keep up with advancements in the field.

4. How does medical physics contribute to patient safety in medicine?

Medical physics plays a crucial role in ensuring patient safety in medicine. Medical physicists are responsible for calibrating and maintaining medical equipment used in diagnostic and treatment procedures to ensure accurate and safe delivery of radiation. They also work closely with healthcare professionals to develop and implement radiation safety protocols to minimize radiation exposure to patients and healthcare workers.

5. What are some current developments and challenges in the field of medical physics?

Some current developments in medical physics include the use of advanced imaging techniques, such as PET/CT and MRI-guided radiation therapy, to improve the accuracy and effectiveness of cancer treatments. There is also ongoing research in developing new technologies and techniques for disease detection and treatment. Some challenges in the field include addressing issues of radiation safety, developing standardized protocols, and keeping up with advancements in technology and treatment methods.

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