Isn’t medical technology a beautiful thing — your own personal doctor and on your terms.
The new trend on healthcare technology is found to let you see your robot doctor in just a few taps in your mobile phones.
Isn’t medical technology a beautiful thing — your own personal doctor and on your terms.
The new trend on healthcare technology is found to let you see your robot doctor in just a few taps in your mobile phones.
Leaders at Davos are bracing for huge technology shocks.
Implantable mobile phones. 3D-printed organs for transplant. Clothes and reading-glasses connected to the Internet.
Amazing stuff!
Image-analyzing software has been a possibility for a while now. It’s how Google’s reverse image search works. It’s how you are able to deposit a check via ATM or even smartphone. Image creation is a newer development. Google’s Deep Dream, released last year, recreates images that are fed to it by compositing other images, shapes, and colors into a twisted version of the original. The obvious next step here is software that can create an image from a description, which WordsEye has gotten to first.
WordsEye is a new software that converts language to 3-D images. In its current beta state, WordsEye’s images are constructed from pre-existing, manipulatable 3-D models, textures, and light sources. The results are surreal, cartoon-y and a little unsettling. But don’t let this detract from such an advancement in artificial intelligence.
A basic description for WordsEye to interpret might look like this:
I’m standing on the corner of 15th Street and Third Avenue in New York City, and I’m freezing. But my iPhone is on fire. After connecting to one of LinkNYC’s gigabit wireless hotspots, the futuristic payphone replacements that went live for beta testing this morning, I’m seeing download speeds of 280 Mbps and upload speeds of 317 Mbps (based on Speedtest’s benchmark). To put it in perspective, that’s around ten times the speed of the average American home internet connection (which now sits at 31 Mbps). And to top it all off, LinkNYC doesn’t cost you a thing.
Interesting; your own Digital DNA.
Neura, an Israeli Internet of Things startup that pulls together data from users’ connected devices, has raised $11 million to expand its “business reach and make the service ubiquitous.” The Series A round was led by AXA Strategic Ventures and Pitango Venture Capital, with participation from Liberty Israel Venture Fund and Lenovo Group.
Founded in 2013, Neura launched in the U.S. out of UpWest Labs, a Silicon Valley-based accelerator specifically for Israeli startups. The following year, Neura announced a $2 million funding round.
Neura’s core raison d’être is to serve up back-end analysis to the Internet of Things industry, and its technology can gather data on individuals from a range of connected devices, including phones, tablets, apps, and more. Neura’s artificial intelligence recognizes and analyzes human behavior and develops what it calls a “digital identity” for each person, insight that can be used to personalize applications, services, and devices.
Imagine: What happens when you’re in 2027 on the job competing with other AI; and there is so much information exposed to you that you’re unable to scan & capture all of it onto your various devices and personal robot. And, the non-intrusive nanobot for brain enhancement is still years away. Do you finally take a few hundred dollars & get the latest chip implant requiring a tricky surgery for your brain or wait for the nanobot? These are questions that folks will have to assess for themselves; and this could actually streamline/ condition society into a singularity culture. https://lnkd.in/bTVAjhb
A mom pushes a stroller down the sidewalk while Skyping. A family of four sits at the dinner table plugged into their cell phones with the TV blaring in the background. You get through two pages in a book before picking up your laptop and scrolling through a bottomless stream of new content.
Information technology has created a hyper-connected, over-stimulated, distracted and alienated world. We’ve been living long enough with internet-connected computers and other mobile devices to have begun to take it for granted.
But already the next wave is coming, and it promises to be even more immersive.
It’s about 12 millimeters in size, and embedded under your skin, most likely in the hand. The RFID chip is here. Swiping cards when we make purchase transactions will be a thing of the past. A ride on public transport, simple tasks such as accessing the photocopier at work or sending a business card to a client’s phone at a literal tap of the finger.
The RFID chip stands for Radio Frequency Identification, and a company in Sweden, Epicenter, is embracing the new technology for their employees. Co-Founder and CEO of the company Patrick Mesterton says their employees have a personal choice to be chipped or not, it’s a voluntary decision.
Intel has unveiled a smartphone devkit and Lenovo is planning to launch a smartphone (for consumer) both supporting Google ATAP Project Tango 3D motion tracking and depth sensing technology using three cameras.
Last week at CES, South San Francisco based Profusa showed off an upcoming injectable sensor that can be used to continuously monitor oxygen levels in tissue. Measuring only five millimeters long and a tiny 250 microns in diameter, the biosensor can be injected into tissue with just a hypodermic needle. It consists of a soft hydrogel scaffold that allows it to be biologically compatible with the surrounding tissue without any foreign body response. The sensor also contains a special chemical marker that changes fluorescence depending on the amount of oxygen that reacts with it. An optical reader placed on the skin measures the fluorescence and relays the data to a smartphone. The biosensor can last as long as two years (at which point the chemical marker begins to lose its potency), and because it contains no electronics and is completely biocompatible there’s no need to remove it.
On stage at the CES Digital Health Summit, Profusa CEO Dr. Ben Hwang gave a live demonstration of how the sensor works in action. As two of his colleagues with the sensors implanted and using a blood pressure cuffs performed stretches to simulate changes in blood flow, a graph displayed the live view of the changing tissue oxygen levels at the site of the sensors.
We had the opportunity to talk to Dr. Hwang after his talk, and he shared that the first application of the sensor is the Lumee Oxygen Sensing System, which is designed to monitor oxygen levels during the wound healing process. Sufficient oxygen flow through a wound is vital to the healing process, and Lumee can detect low oxygen levels early in the healing process and even before treatment or surgery begins.
We met Loughborough-based Intelligent Energy at CES, where they showed us a hydrogen-powered iPhone 6 that lasts for a week without a charge.