Medical Applications User Guide (pdf) - Freescale Semiconductor
Medical Applications User Guide (pdf) - Freescale Semiconductor
Medical Applications User Guide (pdf) - Freescale Semiconductor
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Introduction<br />
1.1<br />
<strong>Freescale</strong> Offers Technology for Life<br />
According to the World Health Organization there are over one billion overweight adults, 860<br />
million chronic disease patients and over 600 million elders age 60 or older1 . Combine that with a<br />
study from the U .S . Centers for Disease Control (CDC) showing modern medical breakthroughs<br />
have raised the average global life expectancy in developed nations to over 75 years2 . With a<br />
large percentage of the total healthcare spend addressing chronic disease, the issue of runaway<br />
healthcare costs and the need to abate them has never been more significant . Proactive and<br />
preventative approaches to healthcare are required .<br />
<strong>Semiconductor</strong> technology will continue to play a critical role in the development of new technologies<br />
that assist with patient monitoring, diagnostics, therapy and imaging . <strong>Freescale</strong> is focused on what<br />
we can do as a semiconductor company to not only help extend life, but to promote a better quality<br />
of life . By designing products with the highest safety and reliability standards, healthcare devices using<br />
<strong>Freescale</strong> technologies work when it counts . Helping to extend life, improve the quality of life, and<br />
providing technologies that enable proactive health and wellness monitoring, <strong>Freescale</strong>’s technologies<br />
are powering future healthcare devices to benefit everyone who is in contact with this technology . This<br />
is what we mean when we say, “<strong>Freescale</strong> offers technology for life .”<br />
These market factors along with advancements in semiconductor technologies provide the potential for<br />
transforming the care that we all receive . <strong>Medical</strong> imaging technology commonly found in radiology or<br />
imaging centers, can now be found in the field—ambulatory or combat situations . Clinical equipment<br />
formerly relegated to the hospital or doctor’s office is now moving into the home . Portable medical<br />
equipment such as blood pressure monitors, blood glucose meters, and weight scales are now<br />
connecting to data aggregators or hubs and transmit your personal health data to the medical cloud<br />
where it is stored in a secure place . All types of healthcare equipment are being pushed from their roots<br />
in clinics or hospitals and into the home .<br />
Developers of medical devices face several challenges . The need to balance processing<br />
requirements with power consumption, the need to provide a faster time to market, and the need<br />
to navigate the regulatory environment are common to all healthcare applications . <strong>Freescale</strong> designs<br />
a range of embedded products and applicable reference designs so that developers can choose<br />
MCUs, MPUs, analog, sensors, and wireless solutions to meet the requirements of their designs .<br />
Introduction<br />
freescale .com/medical<br />
1 World Health Organization who.int/research/en/<br />
2 CDC, U.S National Center for Health Statistics<br />
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