Sentences with phrase «biomedical devices»

His clients cut across a wide range of industry types, including high - tech and biomedical device companies, medical practice groups, and nonprofit institutions.

Later he developed DNA - based «walkers» as a step towards creating devices that can move cargo, for example, drugs in molecular machines and in biomedical devices.

As biomedical devices get more sophisticated, biomedical engineers must draw on more and more disciplines.

But to power biomedical devices inside the body, a flexible generator could provide more versatility.

The chip could be used to power remote environmental sensors or gauges and even biomedical devices.

So make sure to choose a lab that is truly multidisciplinary or at least has some connections with other disciplines, the clinical environment, or people developing biomedical devices, she adds.

To make a safe, legally - compliant and industry - compliant biomedical device, one must build that device to a certain set of standards.

• Participated in the company's international campaign of installation of biomedical devices in 18 countries in Africa.

This month's featured dividend growth stock is Medtronic (MDT), the world's largest manufacturer of implantable biomedical devices.

They promise new materials for biomedical devices.

For now, the company mostly makes money, it seems, by printing biomaterials for implanting biomedical devices — an area, Tao says, «that has a very huge market and very great potential, especially in China.»

This superthin, 2 - D material — incredibly strong, flexible and light — could have diverse applications in areas that include biomedical devices and consumer tech.

Our clients range from biomedical device inventors to financial services firms to manufacturing companies, so we understand the needs of a variety of industries.

The pop - up assembly technique trumps 3 - D printing on many levels and is expected to be useful in building biomedical devices, sensors and electronics.

«It promises to enable myriad applications across biomedical devices, 3 - D electronics, and consumer products.

Those effects could be important to designers of devices such as high resolution 3D printers that use nanoscale nozzles, nanofluidic systems and even certain biomedical devices.

University of Colorado Boulder researchers have developed a new type of malleable, self - healing and fully recyclable «electronic skin» that has applications ranging from robotics and prosthetic development to better biomedical devices.

The institute has excellent facilities and teams of professionals dedicated to the development of innovative biomedical devices and products, evaluation of medical devices to global specifications, training in novel medical specialties and research in medical and public health areas of social relevance.

Involved in process development, chemical management, biomedical device design and supervision of manufacturing departments.

• Reduced repair cost of the company by performing calibrations and tests to old biomedical devices.

In an era of medical apps, remote - controlled biomedical devices and 3D printing, regulatory and quality - control challenges will enter unprecedented territory, the latest Consumers Health For... Read more

Another long - term goal of the Lipomi lab is to produce electronic polymers whose properties — extreme elasticity, biodegradability, and self - repair — are inspired by biological tissue for applications in implantable biomedical devices and prosthetics.

Developing solutions to these problems is part of a broader area of active research, as the science and technology underlying flexible displays is also applicable to many other fields, such as biomedical devices and solar energy.

«Cellulose nanogenerators could one day power implanted biomedical devices.»

«This will advance 4 - D printing into a wide variety of practical applications, including biomedical devices, deployable aerospace structures, and shape - changing photovoltaic solar cells.»

Similar design strategies have great potential for use in a wide variety of human - made systems, from biomedical devices to microelectromechanical components, photonics and optoelectronics, metamaterials, electronics, energy storage, and more.

Guasto says the new understanding could help in the design of medical equipment to reduce such infections: Since the phenomenon peaks at particular rates of shear, he says, «Our results might suggest additional design criteria for biomedical devices, which should operate outside this range of shear rates, when possible — either faster or slower.»

What it does: Develops materials used in biomedical devices, wearables and packaging

Medtronic is the world's largest manufacturer of biomedical devices.

VentureDeal founder Don Jones says there's keen investor interest in biomedical devices that can cut healthcare costs by reducing the need for surgery.

Dr. Miles Palmer is a co-founder of 8 Rivers Capital, a company that commercializes technologies related to the energy, internet, biomedical device, telecom and automotive industries.

Bill Brown is a Professor at Duke Law School and a co-founder of 8 Rivers Capital, a company that commercializes technologies related to the energy, internet, biomedical device, telecom and automotive industries.

Johnhan works as a senior engineer at a biomedical device company, and Jeanne's a student services manager at a university.

I've examined environmental and social impacts of cellphones, pondered hummingbird flight mechanics, broken solar panels, and assisted with cadaver studies of biomedical devices.

The category that saw the biggest increase in investment was also biology related: biomedical devices.

The biomedical device company CryoLife, Inc. is now using the researchers» design to build ring implants for further studies in lab animals, Karp says.

Nanoengineering professor Darren Lipomi is developing new «molecularly stretchable» electronic materials for applications in energy, biomedical devices, wearable sensors and consumer electronics.

The course «gave me a big vision to understand all the steps going from the research to the application of this research to help people,» says Frias, who hopes to start a company or sell her hip technology to a biomedical device company.

«We are developing the design rules for a new generation of plastic — or, better, rubber — electronics for applications in energy, biomedical devices, wearable and conformable devices for defense applications, and for consumer electronics,» said Lipomi.

Modern medicine increasingly relies on implantable biomedical devices but their effectiveness is often limited because of unsuccessful integration with host tissue or the development of untreatable infections, necessitating replacement of the device through revision surgery.

Such capabilities position the technique for potential use in tissue engineering and industrial applications, such as biomedical devices, energy storage and microelectromechanical systems.

Both silkworm and spider silk, for example, have potential uses in biomedical devices, he notes.

After six years of painstaking effort, a group of University of Wisconsin - Madison materials scientists believe the tiny sheets of the semiconductor zinc oxide they're growing could have huge implications for the future of a host of electronic and biomedical devices.

It could also create a new area of soft robotics, and enable new applications in flexible sensors and actuators, biomedical devices and platforms or scaffolds for cells to grow, Lee said.

In particular, flexible magnetic memory devices have attracted a lot of attention as they are the fundamental component required for data storage and processing in wearable electronics and biomedical devices, which require various functions such as wireless communication, information storage and code processing.

They are currently used as additives to strengthen various structural materials, and may also be used for energy storage as well as in the next generation of nanoelectronics and biomedical devices.

Such materials could be used in applications ranging from nanoscale electronics to biomedical devices.

Devices to harvest ambient mechanical energy to convert to electricity are widely used to power wearable electronics, biomedical devices and the so - called Internet of Things (IoT)-- everyday objects that wirelessly connect to the internet.

USC has made research in convergent bioscience and biotechnology a priority to address health issues across the lifespan through the development of new diagnostic tools, treatments and biomedical devices.