Medical Equipment Industry One of Many to Benefit from UH/TI Collaboration
Medical equipment manufacturers are not the only companies looking to capitalize on the latest technology. Whether a technology giant like Texas Instruments (TI) wants to compete with the latest industrial and commercial devices, or a telecommunications leader is creating the next generation of smart phones; there is one key development that will be a major interest. It is the embedded processor.
While the embedded processor is nothing new to the medical equipment industry, it has become more widely used and more powerful than ever before. And thanks to a recent grant, a University of Houston (UH) professor will work with TI to create new and innovative ways to utilize this technology.
For the past two years, design engineers from TI have partnered with UH Professor Barbara Chapman’s team of computer science researchers. For the second time, she has received a generous grant of $100,000 from TI to continue this important research.
In addition to discovering new ways to use embedded processors for commercial applications such as phones, cars, toys and power tools, the team expects to develop more advanced technology for medical imaging and medical electronic devices. However, in order to achieve the level of performance required for this new medical equipment, it will be necessary to build multicore processors. Essentially, this means the chips contain more than one central processing unit (CPU), but these heterogeneous multicore processors differ from the homogeneous PC-based systems, like those from Intel. Because of their complexity, it can be difficult to develop software for these systems, which is why TI and UH are collaborating.
Ultimately, the technology developed by this talented research team may be used across multiple industries, with portable medical equipment being just one of many innovations. The team’s research will make it easier for medical equipment suppliers to develop the advanced software necessary to include embedded multicore processors in their designs, resulting in medical applications that were not previously possible.






