3-D printing in orthopedics is gaining momentum in the production of customized implants, medical devices, and orthotics from diverse materials. 3-D printing technology reduces surgery times, saves money, leads to better stability of the implant in the long run, and improves the clinical outcomes of surgical procedures. 3-D printing applications in orthopedics include:
As we look back on the medtech developments of 2015 there’s definitely a sense that we’re living through revolutionary times. Nearly every day exciting and fascinating technologies are being unveiled by small and large companies, universities, and even tiny independent groups. Empowered by high-powered computers, 3D printers, and other technologies, researchers, scientists, and engineers are coming up with novel solutions to age-old medical problems. Everything from treating gunshot wounds to how fetuses inside the womb are monitored is going through change thanks to technologies developed by thousands of independent minds around the world.
Welcome to the 2nd Indian Brain Computer Interface and Neurostimulation Workshop
This 2 day workshop (7th and 8th November 2015 from 9h00 to 18h00) will focus on EEG data analysis, neuro-feedback, Brain Computer Interface (BCI) applications and Neurostimulation. The registration is free of cost. Coffee breaks and meals will be provided.
The tentavive agenda will cover:
-Advances in BCI
This workshop will also bring the opportunity to participants to get involved in the emerging Indian BCI community.
EPFL scientists have developed a tiny, portable personal blood testing laboratory that sends data through mobile phone network. This is a tiny device that can analyse the concentration of these substances in the blood. Implanted just beneath the skin, it can detect up to five proteins and organic acids simultaneously, and then transmit the results directly to a doctor’s computer. This method will allow a much more personalized level of care than traditional blood tests can provide. Health care providers will be better able to monitor patients, particularly those with chronic illness or those undergoing chemotherapy. The prototype, still in the experimental stages, has demonstrated that it can reliably detect several commonly traced substances.
Students will be able to apply the principles of electronic circuits and devices to the use and design of instrumentation in the biomedical area. They will have gained a basic knowledge of the operating principles of electrical and other transducers, analog and digital instrumentation, applied signal acquisition and processing, electrical safety in the medical environment, electrical properties of nerve and muscle physiology; and instrumentation used in cardiopulmonary, neurological, surgical, and rehabilitation areas of medicine.
The heart is a complex three-dimensional structure with mechanical properties that are inhomogeneous, non-linear, time-variant and anisotropic. These properties affect major physiological factors within the heart, such as the pumping performance of the ventricles, the oxygen demand in the tissue and the distribution of coronary blood flow.
During the cardiac cycle the heart muscle tissue is deformed as a consequence of the active contraction of the muscle fibers and their relaxation respectively. A mapping of this deformation would give increased understanding of the mechanical properties of the heart. The deformation induces strain and stress in the tissue which are both mechanical properties and can be described with a mathematical tensor object.