Admissions open for Nursing programs in TAU

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Texila American University (TAU) one of the best Caribbean Medical school is located in Guyana, the only English-speaking country in South America. 4 Years Bachelor of Science in Nursing Provides student an opportunity to get in touch nursing profession practically as well as theoretically. The program is designed on the basis of requirement of professional at Developed and Developing economy Eligibility:

  1. Students from HIGH School will Undergo a 4 year [ 12 Semester program ] as we RUN 3 semesters a year.
  2. Students from A levels or Higher Secondary schooling with the last 2 years focusing on Subjects in Biology and Chemistry will Skip the two 2 semesters of the BSN nursing program

Salient Features of the program

  • Opportunity for learning at the College, local hospitals, and community health agencies.
  • Preparation to take the National Council Licensure Examination for Registered Nurses.
  • Oppturnity work as a Nurse in the healthcare facilities of United States of America.
  • Job options in a variety of environments including hospitals, GP surgeries, clinics, nursing and residential homes, occupational health services, voluntary organisations.

For more details visit our website and apply online


Admissions Open for Doctor of Medicine Program – Texila American University

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About Texila American University

Texila American University (TAU) one of the best Caribbean Medical school is located in Guyana, the only English-speaking country in South America. TAU offers Health Science and Doctor of Medicine programs with a high level of professionalism, exactness and problem solving skills, upon which the foundations of specialist training and an independent medical practice can be built, which facilitates further education and development of their knowledge throughout their life.

Programs Offered:

  •  BS MD (5.5years )
  •  BS MD US Track (5.5years)
  •  Direct MD (4years )
  •  Direct MD US Track (4 years )

 5.5 Years Medicine Program:
Eligibility: High School or “A” Level

 4 Years direct MD program:
Eligibility: Diploma/Bachelor degree in Health Science

Advantages of the program

  •  The nature of the Premedical Foundation with TAU allows the students to obtain strong foundation in the natural sciences recommended by USA/UK medical universities
  •  Opportunity for USA Clinical Rotation and greater advantages in applying to U.S. residencies
  •  Learning new methods and techniques, and studying new theories through our continuous education platform
  •  Students are counseled throughout their undergraduate careers about opportunities available to them at every stage
  •  Skilled Faculty with a passion for teaching with personal attention

Apply Online 


MCI mulls shortening of MBBS course duration by 1 year

The duration of the MBBS course could be shortened by one year with the Medical Council of India (MCI) thinking about introducing specialist skills for undergraduates earlier than what is the practice at present.

Official sources said that the MCI academic council is likely to meet next week to finalise the new curriculum and send it to the government for approval.

The MBBS course presently stretches for five-and-a-half years four-and-a-half years of academic studies and one year of internship.

Sources said that the curriculum is seen as devoting too much time to general medical studies and the various aspects of the human anatomy, which may not be of much use to students who opt for specialisation in later years.

The new curriculum, which they said would take away nothing while giving more freedom to students, envisages adequate skill training at the initial level while introducing students to clinical and analytical courses.

“The idea is to let students study in detail the subject of their choice and develop expertise in that topic instead of studying all subjects in detail. It will save a lot of time and sharpen their skills,” they said.

Experts believe that students should be allowed to carry on studying their subject of specialisation once they become conversant with the human anatomy.

They were also of the view that the present curriculum did not provide sufficient skills in the early years, which they said was crucial at a time of growing specialization and super -specialization.

Source: zee news


Raman Effect Comes to Improve Brain Tumour Surgery

Scientist have turned to Raman effect – named after Nobel Laureate Indian physicist C.V. Raman who discovered inelastic scattering of light 80 years ago – to solve complicated brain tumour surgeries.

A research by the Innovation Institute at Henry Ford Hospital shows promise for developing a new method to clearly identify cancerous tissue during surgery on one of the most common and deadliest types of brain tumour.

The findings offer improved outcome for those undergoing surgery to remove glioblastoma multiforme (GBM) – a tumour that attacks tissue around nerve cells in the brain.

While some tumours have clearly defined edges, or margins, that differentiate it from normal brain tissue, GBM margins are diffuse, blending into healthy tissue.

“This leaves neurosurgeons uncertain about successfully finding and removing the entire malignancy,” said neurosurgeon and lead author Steven N. Kalkanis.

“Even with intensive treatment, including surgical removal of as much cancerous tissue as is currently possible combined with radiation and chemotherapy, the prognosis for GBM patients remains dismal,” he added.

The Henry Ford team set out to develop a highly accurate, efficient and inexpensive tool to distinguish normal brain tissue from both GBM and necrotic (dead) tissue rapidly, in real time, in the operating room.

The researchers chose Raman spectroscopy, which measures scattered light to provide a wavelength ‘signature’ for the material being studied.

It was only very recently that the processing technology was able to be condensed into a tiny space.

The researchers decided to take full advantage of these advancements that lend themselves exceptionally well to a small, portable hand-held device, potentially yielding immediate results in real-time.

“When developed, it would be the first of its kind in the world for this sort of brain tumour application,” said Kalkanis.

With this method, the researchers were able to distinguish the three types of tissue with up to 99.5 per cent accuracy.

Future studies would focus on methods of collecting and identifying Raman ‘signatures’ from tissue with freeze artefact, said the study appeared in the Journal of Neuro-Oncology.

Source: New Indian Express


Famous Amnesia Patient’s Brain Cut into 2,401 Slices

Image of the frozen brain at the level of the temporal lobes during the cutting procedure.

A new examination of the brain of Patient H.M. — the man who became an iconic case in neuroscience when he developed a peculiar form of amnesia after parts of his brain were removed during surgery in 1953 — shows that his surgeon removed less of his brain than thought.

At age 27, H.M., whose real name was Henry Molaison, underwent an experimental surgical treatment for his debilitating epilepsy. His surgeon removed the medial temporal lobe, including a structure called the hippocampus.

Thereafter, H.M. was unable to form new memories. His case brought about the idea that the hippocampus may have a crucial role in retaining learned facts, replacing the notion that memories are scattered throughout the brain. H.M. became the focus of more than 50 years of memory research, working closely with the researchers who had to introduce themselves every time they met.

“Much of what we know about human memory, it has one way or another to do with H.M.,” said study researcher Jacopo Annese, director of The Brain Observatory in San Diego.

After H.M.’s death in 2008, Annese and his colleagues cut the patient’s frozen brain into 2,401 slices, each 0.7-millimeters thick. They took a picture of every slice, and created a high-resolution, 3D model of his brain.

In the new study detailed online today (Jan. 28) in the journal Nature Communications, they report that a significant portion of the hippocampus, which was thought to have been removed in surgery, was actually intact.

What happened to H.M.?

Research on H.M. showed that there are in fact different kinds of memory. He was unable to learn new facts, remember the events happening around him or learn people’s names, but he was able to recall events from his childhood. He also could learn skills, for example, he could get better at a new motor task with practice.

“Over 50 years of studies, the picture [of memory] was a little bit complicated,” because H.M. had some types of memory but not others, Annese said.

The only way to start teasing out H.M.’s memory impairment in light of the anatomy of the brain was to know what exactly had happened during the surgery

Until the 1990s, the researchers had only sketches drawn by the surgeon, Dr. William Scoville, to refer to. But after the advent of neuroimaging, researchers scanned H.M.’s brain in 1992 and found that a portion of the hippocampus had been spared.

In the new study, Annese and his colleagues measured the exact length of H.M.’s hippocampus, and found the spared portion was even larger than what brain scans had shown.

The posterior part of the hippocampus deals with memory, and the brain slices show this part wasn’t removed, and in fact, was undamaged at the cellular level, the researchers said.

“The most beautiful finding I think was the fact that we realized … that Scoville missed the posterior hippocampus,” Annese said.

The memory impairment

The new findings shed light on what happened to H.M., but likely won’t revolutionize what researchers know about memory, and are in fact in line with modern views of hippocampal function

Almost all connections from the hippocampus to the cortex go through a part of the temporal lobe called the entorhinal cortex, which Annese found had been removed from H.M.’s brain. As this region connects the hippocampus to other brain regions, the surgery may have nearly isolated the hippocampus from the rest of the brain.

This may mean that H.M.’s amnesia had more to do with the entorhinal cortex being removed, than with the parts of the hippocampus being removed, Annese said, although more study is needed to know for sure.

The new study presents “an extremely detailed post-mortem investigation of the remaining anatomy of [H.M.’s] brain,” said Neil Burgess, a memory researcher at University College London, who wasn’t involved in the new analysis. “These extra details will no doubt continue to fuel the debate as to which bits of the medial temporal lobe are responsible for which aspects of memory.”

Source: live science


Almost 200 years later, are we living in the final days of the stethoscope?

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An editorial in Global Heart, journal of the World Heart Federation, suggests the world of medicine could be experiencing its final days of the stethoscope, due to the rapid advent of point-of-care ultrasound devices that are becoming increasingly accurate, smaller to the point of being hand-held and less expensive as the years roll by.

The editorial is by Jagat Narula, editor-in-chief of Global Heart (Mount Sinai School of Medicine, New York) and Bret Nelson, also of Mount Sinai School of Medicine.

In the editorial, a brief history of both the stethoscope (invented in 1816) and the ultrasound (invented in the 1950s) is given, with the authors suggesting that the stethoscope could soon be exiled to the archives of medical history.

They say: “At the time of this writing several manufacturers offer hand-held ultrasound machines slightly larger than a deck of cards, with technology and screens modelled after modern smartphones.”

Compared with expensive, bulky, ultrasound machines of the past, the authors say, “Hand-held ultrasound devices introduced an alternative concept of relatively inexpensive, easy-to-use machines which could generate images interpretable by a wider spectrum of clinicians at the point of care. Soon concerns about smaller machines having inferior image quality compared to devices many times larger and more expensive were outweighed by evidence that rapid diagnostic decisions could be made with portable machines.”

The editorial highlights that nowadays, more than 20 medical specialties include use of point-of-care ultrasound as a core skill, and that mounting evidence suggests that compared with the stethoscope ultrasound technology can reduce complications, assist in emergency procedures and improve diagnostic accuracy.

The authors say: “Thus, many experts have argued that ultrasound has become the stethoscope of the 21st century. While few studies have pitted ultrasound head-to-head against the stethoscope, there is evidence that ultrasound is more accurate even than chest x-ray in the detection of pneumothorax, pleural effusion, and perhaps even pneumonia. Ultrasound allows visualisation of cardiac valve function, contractility, and pericardial effusions with greater accuracy than listening with the stethoscope. And beyond the heart and lungs lie dozens of other organs and structures — well-described in the literature of point of care ultrasound — which are opaque to the abilities of the stethoscope.”

Asking why the stethoscope has not yet made way for its more technically advanced counterpart, ultrasound, the authors say that while the cheapest available stethoscopes are literally disposable (though many can cost hundreds of dollars), the cost of the cheapest ultrasound devices is still several thousand dollars, making roll-out, especially in developing nations, much more difficult.

There may also be resistance from the older generation of healthcare workers who were not originally trained with this technology. Yet all the evidence shows that ultrasound can diagnose heart, lung, and other problems with much more accuracy than the 200-year-old stethoscope.

The authors conclude: “Certainly the stage is set for disruption; as LPs were replaced by cassettes, then CDs and .mp3s, so too might the stethoscope yield to ultrasound. Medical students will train with portable devices during their preclinical years, and witness living anatomy and physiology previously only available through simulation. Their mentors will increasingly use point-of-care ultrasound in clinical environments to diagnose illness and guide procedures. They will see more efficient use of comprehensive, consultative ultrasound as well — guided by focused sonography and not limited by physical examination alone. And as they take on leadership roles themselves they may realise an even broader potential of a technology we are only beginning to fully utilize. At that point will the “modern” stethoscope earn a careful cleaning, tagging, and white-glove placement in the vault next to the artefacts of Laennec, Golding Bird, George Cammann, and David Littmann? Or, as some audiophiles still maintain the phonograph provides the truest sound, will some clinicians yet cling to the analogue acoustics of the stethoscope?”

Source: India Medical Times

 


MCI asked to consider introducing PG level course in Gerontology

The National Human Rights Commission (NHRC) on Wednesday asked the Medical Council of India (MCI) and the Union Ministry of Health and Family Welfare to explore the possibility of introducing a new postgraduate level course in ‘Gerontology’ in medical colleges.

This is in keeping in view the problems in old age and the requirement for providing dedicated facilities to senior citizens as required under Section 20 of the Maintenance and Welfare of Parents and Senior Citizens Act, 2007, the NHRC said in a statement.

The NHRC also observed that with the passage of time, the percentage of aged persons in the country is liable to go up considerably. “To deal with their problems, it is necessary that the healthcare system in the country should be well equipped,” it said.

The Commission in its notice to the Secretaries, Medical Council of India and the Union Ministry of Health and Family Welfare sought their response within eight weeks.

Source: India Medical times


Medical student finds real illness in actor faking symptoms

Diagnosing medical conditions can be a tricky business at the best of times, but University of Virginia medical student Ryan Jones recently made the perfect call during a training exercise.

During the simulation last March, medical actor Jim Malloy’s job was to accurately and convincingly portray a patient with the symptoms of abdominal aortic aneurysm, a condition in which a small section of the lower aorta begins to balloon.

The university medical facility says the condition is common in men between 65 and 75 years old, adding that such aneurysms can easily go undetected and possibly be fatal if they burst.

Even though it was just a simulation, Jones said he detected the symptoms of a real aneurysm. He felt a mass in Malloy’s abdomen.

“I figured [the university] must have found a man with an aneurysm who was willing to volunteer,” Jones said.

“I thought it was all prearranged,” he said, adding that Malloy even kept in character when he informed him what he had found.

Jones informed an attending physician, who advised Malloy to consult a cardiologist.

A subsequent ultrasound revealed Malloy had a 5.9-centimetre-long aneurysm.

Last August, he underwent stent placement surgery at the university medical centre, and is now doing fine.

Since making that very real diagnosis, Jones has graduated from medical school and is currently applying for residency.

Click the audio at left to hear the interview from As It Happens with Jones and Malloy.

Source: CBC news


3D brain maps on iPhone guide doctors during surgeries

Many brain surgeons in developing countries look to their smartphones for guidance, and luckily for them, phones have started fulfilling this role in part, thanks to the thousands of 3D brain images, produced by Dr. Albert Rhoton at the University of Florida, that are freely available online.

“I’ve had young surgeons from Africa, Brazil and other countries tell me they’re pulling the images into the operating room, Live Science quoted Rhoton, head of the Neuro-Microanatomy Lab at the University of Florida’s McKnight Brain Institute, as saying.

As a training tool for surgical residents, Dr. Rhoton’s image library has grown into the world’s largest collection of 3D brain images. Physicians from across the globe now use the detailed anatomical images to train residents, prepare for surgeries and even guide them while performing surgeries.

Dr Rhoton said the images are their small contribution to making what is a delicate, awesome experience for neurosurgery patients more accurate, gentler and safer.

Rhoton has collected images of brain anatomy for as long as he’s been teaching surgery 50 years ago and began moving to 3D technology 25 years ago.

However, only recently did he realize how smartphones and online downloads could expand the reach of his educational tools. Two and a half years ago, Rhoton and his colleagues began working with the American Association of Neurological Surgeons (AANS) to make the brain images and videos available on iTunes University free of cost.

Even before the iTunes U venture, Rhoton had shared his brain images with hospitals and universities as a visiting instructor.

The 3D images show the detailed structure of various sections of the brain, with blood vessels and nerves color-coded in bright red and blue. The colors make the details of neural anatomy clearer than in the normal, grayish brain matter.

Rhoton and the residents he instructs have built up the library over decades, performing careful dissections and transferring the images they obtain to 3D photography and video.

The iTunes U content is engineered to be usable across device platforms, from iPhones to laptops to 3D television.

Rhoton’s work earned him the 2011 Surgeon of the Year award from the journal World Neurosurgery.

Seeing how surgeons have used the images during actual surgeries, Rhoton and AANS next hope to feed the brain maps directly into endoscope screens used in surgery

Source: Ani news

 


Aulakh, Mahajan elected to Medical Council of India executive body from north

Baldev Singh Aulakh, a professor of Urology and Transplant Surgery, is the only government nominee elected unopposed to the executive committee of the coveted Medical Council of India from the northern region.

Aulakh, professor at the Dayanand Medical College and Hospital in Ludhiana, has been elected to the executive committee of MCI for the second time, as he was previously part of the panel during the tenure of Ketan Desai, before it was disbanded following Desai’s arrest by CBI for graft.

He has been associated with field of urology and transplant surgery for the more than 25 years.

A consummate surgeon, he has more than a 1000 kidney transplant surgeries to his credit.

Anil Mahajan, a professor and head of the department of general medicine in the Government Medical College, Jammu, is the lone nominee of the universities from the northern region elected to the executive committee of MCI.

While Aulakh was Punjab government’s nominee, Mahajan was elected to MCI to represent the universities from Jammu and Kashmir.

It is after a gap of over three years that the Medical Council of India, the apex regulatory body for medical education in the country, has an elected body.

In May 2010, the government had appointed a Board of Governors to run the body.

MCI has been established by the government to establish uniform standards of higher qualifications in medicine and recognition of medical qualifications in India and abroad.

The MCI also recommends recognition/de-recognition of medical qualifications of medical institutions of India or foreign countries and maintains a permanent registration/ provisional registration of doctors with recognised medical qualifications

Source: economic Times