Tag Archives: Medical research

The Global Biomedical Imaging Fellowship of a Lifetime

Make an impact on YOUR CAREER – and on THE WORLD

DEADLINES:

  • Application: January 25th
  • Reference Letter Submission: February 1st

Questions?

With a focus on accelerating innovation in biomedical imaging, promoting translational research, and encouraging entrepreneurship, the Madrid-MIT M+Visión Consortium is currently recruiting bright young talent from all over the world – engineers, physicians, scientists, and entrepreneurs interested in biomedical imaging who are in search of a career-enhancing experience and want to make their mark on the world.

BIOMEDICAL ENGINEER SIGNAL PROCESSING R&D JOB IN BANGALORE

Experience:2 – 7 Years

Location:

Bengaluru/Bangalore

Education:UG – Any Graduate – Any Specialization PG – Any PG Course – Any Specialization

Industry Type:Medical/ Healthcare/Hospital

Posted Date:11 Jan

Desired Candidate Profile

Strong publication record in the relevant field

Expertise in methods and technologies for signal analysis using signal processing and pattern recognition techniques with particular focus on biomedical signals

Job Description

Propose novel methods for signal analysis especially biomedical signals, requiring an in-depth knowledge of signal processing and pattern recognition techniques
• Implementation of proposed methods to demonstrate proof of concept

IS USE OF ANIMALS FOR RESEARCH GOOD OR BAD!!!! A DEBATE

Why must we use animals for medical research?
Animal research is the foundation for virtually every medical breakthrough over the past century. From antibiotics to blood transfusions, from dialysis to organ transplantation, from vaccinations to chemotherapy, bypass surgery and joint replacement, practically every present-day protocol for the prevention, treatment, cure and control of disease, pain and suffering is based on knowledge attained through research with laboratory animals. Animal are used as research models only when necessary. Scientists are constantly trying to reduce the amount of animals used, refine their techniques so fewer animals are needed and replace certain animal tests with alternatives, when possible.
What types of animals are used in research?
Approximately 95% of all lab animals are rodents – bred specifically for research. Rodents are the animal model of choice for researchers because their physiology and genetic make-up closely resemble that of humans. For instance, the mouse genome contains essentially the same complement of genes found in the human genome, so studying how the genes work in mice is an effective way of discovering the role of a gene in human health and disease. Scientists are also able to breed mice with genetic alterations that mimic human diseases. This has revolutionized medical research and opened many doors to finding new cures for disease. To some extent, research on dogs, cats, and non-human primates is necessary to study certain diseases. Yet these animals account for less than .05% of the total number of lab animals used in research. Several additional species are proving to be increasingly important animal models, including zebrafish, C. Elegans (worms) and fruitflies.
Aren’t the animals in laboratories suffering and in pain?
The use of animals in research and testing is strictly controlled, particularly regarding potential pain. Federal laws, the Animal Welfare Act and the Public Health Service Act, regulate the alleviation and elimination of pain, as well as such aspects of animal care as caging, feeding, exercise of dogs and the psychological well-being of primates. Further, each institution must establish an animal care and use committee that includes an outside member of the public as well as a veterinarian. This committee oversees, inspects and monitors every potential experiment to help ensure optimal animal care. The scientific community advocates the highest quality of animal care and treatment for two key reasons. First, the use of animals in research is a privilege, and those animals that are helping us unlock the mysteries of disease deserve our respect and the best possible care. Second, a well-treated animal will provide more reliable scientific results, which is the goal of all researchers.
Is animal research regulated in any way?
Yes. All animal research is subject to strict federal regulations. The United States Department of Agriculture (USDA) has set forth federal regulations governing the care and use of animals in biomedical research that are considered more extensive than those covering human research subjects. The Animal Welfare Act sets these high standards of care for research animals.
Can we replace animal research with alternatives methods?
To date, there is no comprehensive substitute for animal models in research. Certainly, computer models and cell cultures, as well as other adjunct research methods, are excellent avenues for reducing the number of animals used. But the pathway to fully duplicating a whole, living system does not yet exist. Therefore, it is still necessary to conduct humane and responsible animal research in order for the research community to uncover, find and develop new cures for diseases. Over the past ten years, the Interagency Coordinating Committee on the Validation of Alternative Methods (ICCVAM) has evaluated more than 185 non-animal methodologies and has approved several research alternatives, particularly in the realm of toxicity testing. When additional non-animal alternatives are developed, science will naturally reduce the need and use of animal models. This progression will only happen when viable alternatives exist and are scientifically verified. It is exciting to dream of the day when no animal research is needed and no human lives are ended by disease. Until that day comes, we need to continue using the method that works.
What are the recent achievements of animal research?
Most recently, scientists discovered spinal cord regeneration techniques because of rodent models. That may mean that some day in the foreseeable future, people will be able to get out of their wheelchairs. Non-human primates played key roles in the development of the hepatitis B vaccine and rabbits were an important model in the development of the Human Papillomavirus Virus (HPV) vaccine. People with Parkinson’s disease are benefiting from deep brain stimulation that was perfected on monkeys. Ferrets have been crucial in the development of the bird flu vaccine. Everyday, scientists are using animal research to find cures for the diseases affecting people and animals.

POSITION OF PROFESSOR IN NEURAL ENGINEERING,REGENERATION & REHABLITATION @ UNIVERSITY OF TORONTO

Job Description

Professor – Neural Engineering, Regeneration and Rehabilitation
University of Toronto
The Institute of Biomaterials and Biomedical Engineering and The Edward S. Rogers Sr. Department of Electrical and Computer Engineering invite applications for a tenure-track position (all ranks) in the area of Electrical or Biomedical Engineering or a closely related field. The appointment will begin on July 1, 2011.

The successful candidate will be expected to initiate and lead an independent research program of international calibre. The successful candidate will also be expected to teach at the undergraduate and post-graduate level in biomedical, electrical and computer engineering. Collegial interaction will be an important element in success. Salary will be commensurate with qualifications and experience.

Toronto has one of the most concentrated Biomedical Research communities in the world with >5,000 principal investigators affiliated with the University and its hospital network and an $800M in annual research investment. The successful applicant will be expected to contribute to collaborative research initiatives with IBBME?s affiliated neural research centres at the Toronto Western Hospital and the Toronto Rehabilitation Institute, where Internationally recognized research in the areas of deep brain stimulation, Parkinson’s disease, epilepsy, dystonia, spinal cord injury, cognitive disorders, neural regeneration and other neural related challenges are pursued. Exceptional candidates may be nominated for a Canada Research Chair http://www.chairs-chaires.gc.ca/home-accueil-eng.aspx

Biomedical scientists give man his sight back

Diseases and conditions where stem cell treatm...
Image via Wikipedia

Stem cell research carried out by biomedical scientists has enabled a man who was left partially sighted after intervening in a fight to recover his vision.

In 1994, Russell Turnbull lost most of the sight of his right eye after being sprayed in the face with ammonia while trying to break up an altercation on a bus, the Times reports.

The 38-year-old was left with pain, extreme sensitivity to light and cloudy vision.

NOW GET COLORED MRI'S- INTERESTING UPDATE

Customized microscopic magnets that might one day be injected into the body could add color to magnetic resonance imaging (MRI), while also potentially enhancing sensitivity and the amount of information provided by images, researchers at the National Institute of Standards and Technology (NIST) and National Institutes of Health (NIH) report.  The new micromagnets also could act as “smart tags” identifying particular cells, tissues, or physiological conditions, for medical research or diagnostic purposes (www.nature.com). NIH has already filed for a patent for the micromagnets. The micromagnets are compatible with standard MRI hardware.
NIST and NIH investigators have demonstrated the proof of principle for a new approach to MRI.  Unlike the chemical solutions now used as image-enhancing contrast agents in MRI, the NIST/NIH micro-magnets rely on a precisely tunable feature—their physical shape—to adjust the radio-frequency (RF) signals used to create images. The RF signals then can be converted into a rainbow of optical colors by a computer.  Sets of different magnets designed to appear as different colors could, for example, be coated to attach to different cell types, such as cancerous versus normal.  The cells then could be identified by tag color.
“Current MRI technology is primarily black and white.  This is like a colored tag for MRI,” says lead author Gary Zabow, who designed and fabricated the microtags at NIST.
Tiny Tracking Tags
The micromagnets also can be thought of as microscopic RF identification (RFID) tags, similar to those used for identifying and tracking objects from nationwide box shipments to food in the supermarket. The device concept is flexible and could have other applications such as in enabling RFID-based microscopic fluid devices for biotechnology and handheld medical diagnostic toolkits.
The microtags would need extensive further engineering and testing, including clinical studies, before they could be used in people undergoing MRI exams.  The magnets used in the NIST/NIH studies were made of nickel, which is toxic, but was relatively easy to work with for the initial prototypes.  But Zabow says they could be made of other magnetic materials, such as iron, which is considered non-toxic and is already approved for use in certain medical agents.  Only very low concentrations of the magnets would be needed in the body to enhance MRI images.
Each micromagnet consists of two round, vertically stacked magnetic discs a few micrometers in diameter, separated by a small open gap in between.  Researchers create a customized magnetic field for each tag by making it from particular materials and tweaking the geometry, perhaps by widening the gap between the discs or changing the discs’ thickness or diameter.  As water in a sample flows between the discs, protons acting like twirling bar magnets within the water’s hydrogen atoms generate predictable RF signals—the stronger the magnetic field, the faster the twirling—and these signals are used to create images.
Visit www.nibib.nih.gov for more biomedical news.
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