Posts Tagged ‘sensors’
By Tina Hilding, College of Engineering and Architecture
PULLMAN, Wash. – Washington State University researchers have received a National Science Foundation grant to share their “smart home in a box” technology with 60 institutions and scientists around the world in what will be the largest-ever installation of such home monitoring systems.
The collaborators will develop their own monitoring projects in a home or a lab and report back their results. With this data, the WSU researchers will be able to develop a system for using and sharing cutting-edge, smart environments data on a large scale. Read the rest of this entry »
Austin, Texas (Sept. 5, 2013)–The world market for blood pressure monitors will enjoy steady growth in the years ahead as aging populations climb in number and diseases exacting their toll require observation and supervision, according to a new report from IHS Inc., a leading global source of critical information and insight.
Global revenue for blood pressure monitors is set to reach $854.9 million by year-end, up a modest 2 percent from $838.8 million in 2012. Revenue expansion will hold firm at the 2 to 3 percent range for the next three years, before bounding to a 5 percent increase by 2017. By then, industry takings will amount to $963.2 million, as shown in the attached figure. The majority of revenue will stem from automatic upper-arm monitors, which is the preferred type of blood pressure monitor. Read the rest of this entry »
This article is about the power of the Internet as a learning and research tool, and the role that young, Internet-savvy innovators are playing as they develop the future of healthcare.
Easton, a 17-year old inventor, spoke recently at TEDxMileHigh about his 3D printing & animatronics project and the future of prosthetic & animatronic limbs. He started this work at age 14 and used the Internet to research and learn about electronics & sensor technologies, programming & modeling software, 3D printing & industrial design, and wireless networking. He’s now living in Houston and working at NASA on robotics projects. Read the rest of this entry »
As shown in the infographic below, digital devices with access to the Internet are redefining healthcare and driving a revolution in its delivery systems.
FIRST is the wealth of medical information available online and the tools to find and make sense of it. This helps medical professionals and patients alike, and consumers can now take more responsibility for their own wellness. Realizing they have a greater stake in the game than their physician, they’re regularly engaging in online conversations using social media or searching online websites like WebMD, PatientsLikeMe and mHealthTalk for healthcare information.
Brian Profit wrote a good article about technology embedded in ordinary objects and how they are being connected in ways the industry calls “The Internet of Things.” Since I introduced IBM to the connected home market in the early 1990s and ran a Digital Home consulting firm after retiring, I felt compelled to share my perspective in a comment to Brian’s article, which I include below.
The “smart home” concept has been stuck in the niche of DIY geeks and high-end new homes with professional installation for over 40 years, always just on the cusp of becoming a mainstream market. Brian touched on the issue of protocol compatibility, but why is that such an issue, and what other issues are there? Read the rest of this entry »
Dr. Mark Humayun was going to be a doctor all along, but when a family member lost her eyesight, he soon began his journey as an innovator. “When I was going through medical school, my grandmother went blind and there was really no cure for her,” the Duke University graduate says. “And it made me rethink my career and focus more on how to restore sight to those who are going blind.”
Now a professor at the Keck School of Medicine at the University of Southern California, Humayun has invented the Argus Ocular Implant, which allows blind patients to see again. According a press release on the school’s website, the intraocular retinal prosthesis “restores some visual capabilities for patients whose blindness is caused by Retinitis Pigmentosa (RP). RP is an inherited retinal degenerative disease that affects about 100,000 people nationwide.”
Read the rest of the story and comment at Huffington Post.
Le Web Paris (see video) explores a future of technology that connects everyday devices all the time, often described as The Internet of Things.
This story and video from Reuters and the Huffington Post form the basis of my own observations and developer recommendations as a 30-year IBM technologist, futurist and Digital Home consultant. Included at the end are four interesting infographics from Cisco, Intel, Casaleggio Associati, and Beecham Research. Read the rest of this entry »
Based almost entirely on an article by Stacy Lu,
Freelance Writer and TEDMED.com Blog Editor
Imagine a comprehensive, clinically relevant well-patient checkup using only smartphone-based devices. The data is immediately readable and fully uploadable to an electronic health record. The patient understands — and even participates — in the interaction far beyond faking a cough and gulping a deep breath. For real?
Johns Hopkins medical student and Medgadgeteditor Shiv Gaglani says it is not only possible, but may in fact be the checkup of the future. Gaglani and a team of current and future physicians will do a first-of-its kind demo of a “smartphone physical” for hundreds of attendees at TEDMED 2013 on April 16 to 19 in Washington, D.C.
The checkup will capture quantitative and qualitative data, ranging from simple readings of weight and blood pressure to more complex readings such as heart rhythm strips and optic discs. Measurements and instruments will include: Read the rest of this entry »
Swiss researchers have unveiled a prototype “lab on a chip” that is surgically implanted in the interstitial tissue just beneath the skin, where it analyzes compounds in the blood, and sends results to a phone or tablet through wireless radio connections.
How does it work? The microchip has seven chemical & molecular sensors and gets inductive power from a patch worn on top of the skin. Every 10 minutes the collected data is sent through the patch and a Bluetooth connection to a patient or doctor via smartphone or tablet.
Although the device will not be widely available for at least a few years, its potential practical applications are widespread and include:
- Glucose monitoring in diabetics, more frequently and without a finger prick.
- Post surgery patient monitoring
- Facilitate predictive medicine, including a pending heart attack
- Measure metabolism and drug absorption
- Athletes monitoring fluids & nutrition