Tuesday, October 28, 2008

Medical Physics and Biomedical Engineering Conference 2009

The World Congress on Medical Physics and Biomedical Engineering - the triennial scientific meeting of the IUPESM- being held in Munich, Germany, on September 7 – 12, 2009 is the world’s leading forum for presenting the results of current scientific work as well as major innovations in health-related technologies to an international audience. We expect more than 4,000 visitors to attend the event.

Held every three years, the congress provides an ideal inter- and multidisciplinary platform that brings together people from basic research, R&D, industry and medical applications, incorporating key aspects such as information and communication technologies, micro- and nano-systems, optics, tissue engineering and biotechnology.

The World Congress 2009 is dedicated to supporting and promoting an intense inter- and multidisciplinary knowledge exchange among professionals in the areas that will be the major driving force for future innovations in medical technologies and medicine.

We invite you to participate in this world-class scientific event and have a unique opportunity to present your research, innovations and technologies to the world.

Don’t miss this outstanding opportunity!

http://www.wc2009.org/World-Congress-2009/Pages/Home.aspx


From Nano to Macro

2009 6th IEEE International Symposium on Biomedical Imaging


http://www.biomedicalimaging.org/

World Biomedical Technology Event

Attend BiOS 2009 the world's largest biomedical technologies event


http://spie.org/bios.xml

Biomedical Asia 2009

The biggest biomedical sciences event in Asia
Bringing the global biomedical industry to Asia - A place where players across the entire biomedical value chain will convene

http://www.terrapinn.com/2009/bma/


Monday, October 20, 2008

Research Assistant

Based in Dublin City University (DCU), the Biomedical Diagnostics Institute (BDI www.bdi.ie) are currently seeking a laboratory scientist skilled in bioconjugation and sythetic organic chemistry to join a world-class research team within the BDI based at DCU

Closing date for Applications: 1st November 2008

Download the attached PDF file for more information

http://ww2.dkit.ie/student_life/student_services/careers/job_vacancies/biomedical_diagnostics_institute_dcu_research_assistant

4th European Congress for Medical and Biomedical Engineering 2008

http://www.mbec2008.be/

Saturday, October 11, 2008

Informatics and Biomedical Services Firm Looks Toward the Future of Healthcare

Binovia's new bITomed employs cross-training to improve healthcare efficiencyand patient careOMAHA, Neb., July 21 /PRNewswire/ -- Recognizing the need to streamlinethe information flow in today's technologically advanced patient-carefacilities, Binovia, an informatics and biomedical services firm, hasintroduced bITomed (bye-T-omed), a service that cross-trains technicians inbiomedical engineering and information technology (IT). bITomed technicians ensure that medical information is properlytransmitted starting with the electrodes on the patient's skin to a centralmonitor and from there to medical records, referring physicians and billing.Binovia is one of the only companies in the country that cross-trainstechnicians in biomedical engineering and IT. The fusion of IT and biomedical engineering departments provideshealthcare facilities with quality customer service as well as the ITknowledge necessary to ensure information reaches its destination. By using abITomed technician, healthcare facilities can increase efficiency, especiallyin rural areas where one employee can fill the needs for both biomedicalengineering and IT. "At Binovia, we see the bITomed as a tool to help hospitals transmitpatient information to electronic medical records (EMRs) which will berequired by the government in the future," said Jesse Fisher, Binovia's ChiefExecutive Officer. Fisher has seen firsthand how bITomeds can improve patient care bydecreasing downtime and described this recent situation, perfectly suited fora bITomed technician. "A neo-natal monitor at a Binovia client healthcare facility wasn'tsending information to the nurse's central station," said Fisher. "Withoutreceiving vital sign information, nurses could not monitor the baby's vitalsigns, nor determine if the baby's health suddenly declined." "The hospital's IT department found no problem on their end and thebiomedical department confirmed that the monitor was working properly.However, the nurse's station still wasn't receiving the information. OurbITomed, because of cross-training, was able to solve the problem quickly andget the neo-natal monitor transmitting again." Binovia currently services healthcare facilities with bITomed technicians.Fisher expects the need for bITomed cross-trained technicians to expand around250 percent over the next two years as the use of informatics and biomedicaltechnology increases in healthcare facilities. About Binovia: Binovia provides superior informatics and biomedicalservices customized to the technologically advancing needs of healthcarefacilities. With the appropriate solution for each client, Binovia providesinformation technology and biomedical engineering to healthcare facilitiesthroughout the United States. For information visit www.binovia.com . Suzanne Titus 402-331-0202 stitus@binovia.comSOURCE Binovia

Paper predicts bioengineering future

Over the next 25 years, the development of more sophisticated biomedical devices will revolutionize the diagnosis and treatment of conditions ranging from osteoarthritis to Alzheimer's disease, according to MIT professors in an article in the February 7 issue of the Journal of the American Medical Association (JAMA).
The MIT article was also one of three from the issue to be featured at a February 6 media briefing on "Opportunities for Medical Research in the 21st Century." It was selected from among 24 in the special theme issue.
In the article, Associate Professor Linda G. Griffith and Professor Alan J. Grodzinsky explored the recent history of biomedical engineering and made projections for the future of field. Dr. Griffith presented the article at the New York media briefing, which was a collaboration between the Albert and Mary Lasker Foundation and JAMA.
"The most visible contributions of biomedical engineering to [current] clinical practice involve instrumentation for diagnosis, therapy and rehabilitation," wrote Professors Griffith and Grodzinsky. Dr. Griffith has positions in the Department of Chemical Engineering and the Division of Bioengineering and Environmental Health (BEH). Dr. Grodzinsky is director of the Center for Biomedical Engineering and a professor in the Department of Electrical Engineering and Computer Science and the Department of Mechanical Engineering.
Biomedical engineering is broadly defined as the application of engineering principles to problems in clinical medicine and surgery. A revolution in disease diagnosis began in the 1970s with the introduction of computerized tomography, magnetic resonance imaging and ultrasonic imaging.
The field also has been responsible for the development of new therapeutic devices such as the cochlear implant, which has helped many hearing-impaired people in the United States experience dramatic improvement. Cardiovascular therapy also has been changed by the introduction of life-saving implantable defibrillators in the 1980s. In addition, vascular stent technology for the treatment of aneurysms, peripheral vascular disease and coronary artery disease has made it possible for minimally invasive procedures to replace major surgery.
"Cell and tissue engineering also has emerged as a clinical reality," the authors wrote. "Products for skin replacement are in clinical use and progress has been made in developing technologies for repair of cartilage, bone, liver, kidney, skeletal muscle, blood vessels, the nervous system and urological disorders."
At the same time, biomedical engineering is undergoing a major ideological change. "The fusion of engineering with molecular cell biology is pushing the evolution of a new engineering discipline termed 'bioengineering' to tackle the challenges of molecular and genomic medicine," the authors wrote. "In much the same way that the iron lung (an engineered device) was rendered obsolete by the polio vaccine (molecular medicine), many of the device-based and instrumentation-based therapies in clinical use today will likely be replaced by molecular- and cellular-based therapies during the next 25 years."
Professors Griffith and Grodzinsky expect to see continued growth and development in the field of biomedical engineering, resulting in new diagnostic and treatment options for patients. "In the next 25 years, advances in electronics, optics, materials and miniaturization will push development of more sophisticated devices for diagnosis and therapy, such as imaging and virtual surgery," they wrote.
They suggest that the new field of bioengineering will give rise to a new era of "lab on a chip" diagnostics, enabling routine and sensitive analysis of thousands of molecules simultaneously from a single sample.
"A potentially even greater impact of bioengineering will result from the increased ability to incorporate molecular-level information into complex models. The result will be a revolution in diagnosis and treatment of diseases ranging from osteoarthritis to Alzheimer disease," they wrote.
"Either by looking for single-signature molecules (e.g., cancer antigens) or by using appropriate algorithms to derive relationships between many interacting molecules, early prediction of onset of disease may be possible," they continued. "For example, osteoarthritis might be detected just when cartilage degradation begins and before damage is irreversible; Alzheimer's disease might be detected in early adulthood when it is believed lesions might first form and before cognitive decline."
"In each case, new drugs developed with the aid of molecular and cellular engineering will likely be available to combat disease progression," they concluded. "For osteoarthritis, these advances would obviate the need for joint replacement surgery... For Alzheimer's disease, which lacks current therapeutic options, the impact of bioengineering will be extraordinary."

Wednesday, July 16, 2008

BIODEVICES 2009 - Oporto, Portugal

http://www.biodevices.org/cfp.htm

More information on the Congress and Satellite Event topics and important dates can be found at:http://www.biodevices.org/http://www.biostec.org/AMMD.htm

Engineering the biomedical future


The new head of a collaborative university biomedical engineering department hopes to transform it into a world leader in education and research.
Renowned biotechnology expert Larry McIntire became the chairman of the Wallace H. Coulter Department of Biomedical Engineering at Georgia Tech and Emory University in July. In the next five to 10 years, McIntire hopes to transform the institution into the world's leader in biomedical engineering education and research. Whether he's successful could play a significant role in the future of medicine and patient care.
To understand why McIntire chose to come to Atlanta, you must understand where the future of medicine is headed. Modern medicine will be completely driven by technology, McIntire said. In particular, developments in medical imaging will play a critical role in diagnosing illness and computer- assisted surgeries will play an increasingly important part in providing effective treatment.
"In the medical world, we like to use the phrase 'from the bench (science) to the bedside (patient),' " McIntire said. "There has to be a bridge between science and patients, and technology is that bridge."
Unique partnership
In 1997, the Emory School of Medicine joined with the Georgia Tech College of Engineering to form the Georgia Tech/Emory Department of Biomedical Engineering (BME). There are only a handful of other institutions around the country that have formed such partnerships, McIntire said. There is a similar collaboration between Harvard and MIT, but the venture between Emory and Georgia Tech is noteworthy because it is one of the few formed between a public and private institution.
More important than the anomaly of the collaboration is that Emory and Georgia Tech are committed to raising funds to increase the size and scope of the program. This is what lured McIntire from his position in Houston.
Prior to coming to Atlanta, McIntire served as the chairman of Rice University's Department of Bioengineering as well as Rice's Institute for Biosciences and Bioengineering. The Rice program consisted of 12 full-time faculty members, with plans to increase that number to 15 in the coming years, McIntire said. The Georgia Tech and Emory program already has 21 staff members, with plans to grow to 35 in the next three to five years.
"The size of your staff plays an important role in the areas you can cover," McIntire said. "At Rice, our focus was largely on cell studies and engineering. In Atlanta, that will be one of five areas we will focus on. You need critical mass to expand your areas of interest."
Don Giddens, the former BME chairman, now serves as dean of the Georgia Tech College of Engineering. Two of the program's main research areas will be cardiovascular research and brain imaging, Giddens said. BME is currently developing a tissue engineered vascular graft that could be used to help bypass surgery patients whose own arteries are unavailable for use.
Improved diagnostics
"In the field of imaging, we are working to be able to identify areas in the brain that would allow us to diagnose neurological problems before they become problems," Giddens said. "If we can find the trouble spots earlier, we can treat cancer, Alzheimer's and seizures at a much earlier stage."
In addition to his own research, McIntire is charged with recruiting faculty members and increasing communication between the two institutions.
Part of that goal will be accomplished by bringing faculty at both institutions geographically closer. The department of Biomedical Engineering at Emory and Georgia Tech recently moved into the new U.A. Whitaker Building for Biomedical Engineering on the Georgia Tech campus. The building is in a quadrangle that includes the Petit Institute for Bioengineering and Bioscience and the new Environmental Science and Technology Building. There are plans for a fourth building, which will be called the Molecular and Materials Science and Engineering Building. The schools have raised $10.8 million of the $60 million the new building is expected to cost, said Georgia Tech information specialist Larry Bowie.
McIntire plans to organize a number of faculty retreats and to bring in influential speakers to encourage staff at the two institutions to interact more frequently.
"I think there is a great deal of overlap taking place that people don't even know about," McIntire said. "A big part of my job is to find ways to increase communication."
McIntire is the perfect man for the job, Giddens said.
"Larry's what we refer to in the business as a hard-core engineer," Giddens said. "He has a tremendous background in all of the sciences. But because of his work at Rice, he also knows how to run a medical school from an administrative standpoint."
McIntire is excited about the opportunities that lie ahead. From hiring new staff to conducting research to graduating the first undergraduate class, he seems to be enjoying his stay in Atlanta so far.
"I'm probably one of the few people who don't think Atlanta summers are very hot," said McIntire, who moved here with his wife, also a scientist. "We have a chance to make this partnership something very special."
Sonny Lufrano is a contributing writer for Atlanta Business Chronicle. Reach him at atlantatechbiz@bizjournals.com.

Beyond Research Non-research careers in biomedical sciences

A career in biomedical sciences is not just limited to research. In fact, jobs in non-research areas far outnumber the available research positions. Senior managers from Lonza Biologics tell us more about these career possibilities.
By John Yip
Singapore has made significant progress in its biomedical industry in recent years. Manufacturing output grew to S$18 billion in 2005, and provided employment for 10,200 people, a new record for the industry.
Plans are in place to strengthen the industry’s ability to translate clinical discoveries into actual drugs for the global marketplace. This will require further expansion in the scope of research and manufacturing operations in Singapore.
As such, the recently announced joint venture between Lonza Biologics and Singapore’s Bio*One Capital to build a US$250 million large scale mammalian cell culture plant at Tuas Biomedical Park represents a significant milestone for the local industry.
The groundbreaking ceremony for the new plant was held on 15 February this year. The facility will include up to four mammalian bioreactor trains, each with a fl exible capacity of 1,000 to 20,000 litres inclusive of their respective purifycation units, and is expected to provide employment for more than 300 people when completed in 2009. It will be Lonza’s second large-scale mammalian manufacturing plant, and Singapore’s first commercial-scale biopharmaceuticals manufacturing facility.
Lonza BiologicsLonza Biologics, part of the Lonza Group based in Switzerland, specialises in microbial fermentation and mammalian cell culture starting from strain or cell line construction, through process development to manufacture for clinical or commercial supply.
It has been a leading participant of the global biotechnology industry since 1980. Lonza currently operates three 20,000 litre stirred bioreactors in Portsmouth, New Hampshire (USA) and Slough (UK). A fourth 20,000 litre bioreactor will be put on stream in 2006. Together with the announced project in Singapore, Lonza is well placed to keep up with the increasing number of biopharmaceuticals being launched globally, and it expects the business sector is to deliver strong growth in the years to come.
That growth also means more job opportunities for aspiring engineers. This year, Lonza has been actively seeking to place local undergraduates on training attachment programmes at either one of its manufacturing facilities in Portsmouth or Slough.
In fact, a few of Lonza’s senior managers came to Singapore in early April to interview more than 130 students from local universities who applied for the attachment programme. “I was personally very impressed by their background and their confidence levels. There were very few applicants we would reject outright,” says John McGrath, VP Global Operations (Mammalian).
A wide mix of talents needed“We like dynamic people who are flexible and team-orientated,” says Ann Taylor, Head of Human Resources – LBP. Even though there are no firm plans at the moment, Lonza will be looking to hire people for its production, engineering, maintenance and validation operations by early next year. Potential employees need not necessarily have an academic background in engineering or chemicals, but they will need to demonstrate a wide mix of talents.
“In a company like Lonza, there will always be opportunities for internal movement into other departments, even across international borders,” says Ann. “These openings can be openly viewed at the company’s website (www.lonza.com) — anyone within the company is free to apply for those positions.”
John is also keen to point out that a career in biomedical sciences is not limited to research and development alone. A lot of students have the mistaken perception that R&D is the only exciting area to work in. In truth though, manufacturing can turn out to be just as exciting and dynamic as research.
“Aspiring candidates need to be aware that research only makes up a small percentage of the available jobs at Lonza,” says John. “The career opportunities in the non-research areas are very broad and very diverse. We have jobs in manufacturing, quality assurance and regulatory affairs — there are more than 20+ career choices available. To think only of a career in research would very much limit your choices.”
Training and developmentBesides its attachment programme, Lonza provides a wide range of internal and external training to support an employee’s career development.
Core training in cGMP (current Good Manufacturing Practices) will be especially important. cGMP consist of guidelines, recommendations and agreements that are often derived from government regulations. Anyone involved in the planning, construction, validation and maintenance of modern pharmaceutical facilities will need to keep up with advances in technology, and be aware of how external regulation will affect biochemical production.
In this respect, both John and Ann are pleased to see that tertiary institutions in Singapore have begun to place a greater emphasis on practical training. “cGMP is a very good example,” says Ann. “It used not to be taught at universities. But now, they realise that students need to be taught about it before they get into the commercial world.”
“It used to be that students would have just done biology, microbiology or genetic engineering,” says John. “These are very specialized disciplines. In contrast, the graduates that are now coming out of Europe, the US and Singapore are taught enough about each area to be very adaptable.”
John further observes that most courses focused on biotechnology today include industrial placements to give students much needed hands-on experience. “These developments tie in very closely with the types of operations at Lonza.”
The future looks goodIn closing, those who are interested in biomedical sciences should take note that there are definite signs that the industry is starting to mature. In other words, long-term career prospects in the industry are looking better than ever before, especially for fresh graduates.
“There has been a lot of media attention on new products, on the new class of drugs that are being brought to market. We’re starting to see a lot more entry-level graduates who’ve studied courses directly related to biotechnology all around the world,” says John. “The industry is growing, and is projected to grow into the next decade.”
Indeed, as long as they are willing to explore the full range of job opportunities available, the future looks good for capable young graduates in biomedical sciences.

Tianjin banking on biomedical future

A high-profile biomedicine research institute is under construction in Tianjin, and several projects are expected to be developed there, Cheng Jinpei, vice-minister of science and technology, said yesterday.
Most of the construction work will be completed by the end of this year in the rising North China economic power-house, he said.
Developed at a cost of 1 billion yuan ($140 million), the Tianjin International Biomedicine Research Institute has already recruited two deputy directors to manage the operation, Cheng told China Daily on the sidelines of 11th NPC.
The two are from multinational pharmaceutical companies and have been tasked with bringing the very latest biomedical technologies and projects to Tianjin, he said.
"The institution is designed to research and convert biotechnology into usable drugs and, more importantly, integrate biomedicine resources within the coastal city of Tianjin," Cheng said.
The research center will differentiate itself from Beijing's Zhongguancun and Daxing institutes by focusing on the commercialization of biomedical research, he said.
Rao Zihe, president of Nankai University in Tianjin and director of the research institute, said the top priority for the lab is to commercialize biomedical technologies.
Although the main focus for projects has yet to be decided, research into cancer treatments and the development of stem cell bio-drugs are two promising options, Rao said.
Members of the research institute will also seek to broaden the scope of existing research, he said

The future is bright for biomedical industry

Medical tourism is flourishing in the country. And awareness on the root cause: Biomedical Engineering, is catching up albeit gradually.
A fusion of engineering, medicine, biology, basic sciences, mathematics and communication engineering, biomedical Engineering is the foundation for the reputation that India has earned for its advancements in Neuro Sciences, Cardiac Sciences, Orthoped ics, Gastroenterology, Ophthalmology, Oncology and Cardio Thoracic Surgeries, points out S. Raghavan, Senior Faculty, Electronics and Communication Engineering, National Institute of Technology – Tiruchi. He predicts a high demand for this discipline in future owing to the mushrooming of ultra modern hospitals.
With mathematical models, statistics and simulations, biomedical engineers have made advances in understanding many of the physiological signals generated by organs such as heart, skeletal muscle, retina and brain to make out how the body functions and how biological systems work. Expansion
Study of biomaterials is a must for development of artificial organs, and BioMEMS (Biomedical Micro Electro Mechanical Systems), a science representing an expansion into a host of new polymer materials, microfluidic physics, surface chemistry and modification, and bio compatibility provides cost effective solutions to biomedical problems by bringing together the creative talents of electrical, mechanical, optical and chemical engineers, material specialists, clinical laboratory specialists and physicians.
BioMEMS devices are the platform on which nanomedicine can be delivered. BioMEMS promises delivery of sensitive, selective, low cost, fast, less invasive and robust methods of diagnosis and pathogen detection. The need for designing, modelling and fabricating microdevices is poised to increase enormously in the coming years, and biomedical engineers will be looked upon to solve problems at the cellular and molecular level by developing nanotechnology and micro machines to repair damage inside the cell and alter gene function, explains Dr. Raghavan. Research
Biomedical engineers are in demand at research and development organisations, medical equipment manufacturing companies, state of art hospitals, teaching institutions, and well established corporates like GE, Wipro, Siemens, L & T, ECIL, SCL, and BEL. There are also ample opportunities for carrying out advanced research in universities abroad.
The IITs at Delhi, Bombay and Chennai have exclusive department for biomedical engineering.
In Tamil Nadu, Post graduation in Biomedical Engineering is offered in Anna University, SASTRA, VIT, and Amrita Institute of Engineering. Undergraduate programmes are also available in many affiliated engineering colleges of Anna University.
But, while choosing the institution, one should check for the availability of well equipped laboratory, qualified faculty, and tie-up with state-of-art health care hospitals.
R. KRISHNAMOORTHY

Wednesday, July 9, 2008

Online Faculty Position

Sub: Invitation for becoming faculty of "Thesis Correction Service" or "Online English Correction Service"
We are happy to inform that "Sevas Educational Society", which is dedicated for the development of villages, has started "Thesis correction service" & "Online English Correction Service". Interested faculties can join this service by sending their profile. Payments will be given as per your terms and conditions or "SEVAS Society" norms.
Eligibility: All academicians are eligible.Joining is completely free. No hidden charges.
Thanking you
DirectorR.R.Siva KiranSEVAS EDUCATIONAL SOCIETYKomatipalliVizianagaram (dt)Andhra PradeshIndiaPh: +91 - 9986-795754

Tuesday, January 29, 2008

Fresno State gets $4.5 million grant for biomedical research

(01-23) 18:16 PST Fresno, Calif. (AP) --
Federal health authorities are awarding Fresno State a five-year, $4.5 million grant to create a biomedical research center.
The center will focus on health disparities in the community, and will sponsor investigations including a study of pesticides' effects on breast cells of Hispanic farmworkers and the relationship between asthma, air pollution and viral infections.
California State University, Fresno plans to use part of the money to buy sophisticated laboratory equipment.
Fresno State was one of 19 universities nationwide, and two in California, that won grants from the National Center on Minority Health and Health Disparities, a division of the National Institutes of Health.

8th World Biomaterial congress, Amsterdam

For more information