The Basics of MRI
About the Author
Dr. Hornak is Professor of Chemistry and Imaging Science at the Rochester Institute of Technology where he teaches courses in magnetic resonance imaging, nuclear magnetic resonance spectroscopy, analytical chemistry, and physical chemistry. He is also Director of the Magnetic Resonance Laboratory, a research and development laboratory on the RIT campus. His research interests include multi-spectral tissue classification with magnetic resonance images, near-surface MRI, low-frequency electron spin resonance of free radicals, magnetic resonance hardware development, and magnetic resonance imaging of materials.
This is a preview of The Basics of MRI : Magnetic Resonance Imaging (Free E-book).
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A leading Middle East biomedical organization is looking to fill positions for application specialists and biomedical engineers to support the Sequencing and Microarray products within its life sciences division
1. Job responsibilities will include -but not limited to- the following tasks:
• Technical and product support and guidance to all distribution partners across the region
• Liaise with product and marketing personnel to offer the necessary support to distribution partners & customers and fully service their accounts.
• Attend and comprehend technical training sessions and be able to provide the necessary technical support and back up to customers.
The Department of Biomedical Engineering (www.imt.liu.se) is a national center for research and education within the field of medical technology. The research is based on the needs within health care and is carried out in close cooperation with the medical industry and medical clinics.
Our research group in medical informatics is internationally known, among other things for our work with the development of new theories and algorithms for analysis of multidimensional data.
Successful applications include; analysis of local image structure, adaptive filtering of volume sequences and imaging of
brain activity using functional magnetic resonance imaging (fMRI).
Currently we have an open position for a PhD student in medical informatics at the Department of Biomedical Engineering.
Background: The aim of medical informatics is to develop general methods in order to find the best representations and presentations of different types of information. We are currently seeking a PhD student in medical informatics, specializing in neuro-economics and multidimensional signal analysis. In neuro-economics, the parts of the brain that are activated at different decisions are studied, with the aim to investigate the neurological mechanisms that govern economic decision making. The analysis of neuro-economic data has some major challenges, thus, to develop and to improve statistical analysis is central to the development of the field of neuro-economics. Work within this new
position will be a part of the research conducted at the Center for Medical Image Science and Visualization (www.cmiv.liu.se).
This is a preview of PhD in Biomedical Engineering at Linköping University, Sweden.
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Designation: Application Specialist
Department: Medical Imaging
Location: Mumbai / Hyderabad
Job Profile:
As an Application Specialist you will be responsible for :
* for finding out best it solutions and integration of Apple technology in the field of medical imagining.
• for Should be able to learn, excel and demonstrate DiCOM Viewer and PAC System to health care customer.
• for developing,creating and delivering presentation of Radiology solutions to customer.
• for supporting and helping with customer quarries related to radiology.
• for helping the software development team with customer requirement with customizing various imaging software and developing plug-ins.
This is a preview of Biomedical Application Specialist Required in Mumbai.
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For a professor in the Department of Aerospace Engineering and Engineering Mechanics, spending time crunching numbers is leading to technologies that could save lives.
Dr. Thomas Hughesand his colleagues have pioneered patient-specific 3-D models of blood flow through the heart and blood vessels that could help guide best practices for cardiologists.
Rather than relying on earlier computer models — where simple two-dimensional geometry shared little resemblance to actual anatomy — medical doctors can now use the work of Hughes to better understand how various medical interventions in the heart and vessels affect blood flow. As a result, crucial information can be provided about the safety and effectiveness of commonly used devices like stents, angioplasties and bypass grafts.
This is a preview of Biomedical Innovation: Patient Specific 3D Blood Flow Model.
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