The Future is Here: Google Glass for the Battlefield

q-warrior see through displayWearing a Google Glass headset in public may get you called a “hipster”, “poser”, and (my personal favorite) “glasshole”. But not surprisingly, armies around the world are looking to turn portable displays into a reality. Combined with powered armor, and computer-assisted aiming, display glasses are part of just about every advanced nation’s Future Soldier program.

Q-Warrior is one such example, the latest version of helmet-mounted display technology from BAE Systems’ Q-Sight line. The 3D heads-up display provides full-color, high resolution images and overlays data and a video stream over the soldier’s view of the real world. In short, it is designed to provide soldiers in the field with rapid, real-time “situational awareness”.

q-warrior1The Q-Warrior also includes enhanced night vision, waypoints and routing information, the ability to identify hostile and non-hostile forces, track personnel and assets, and coordinate small unit actions. As Paul Wright, the soldier systems business development lead at BAE Systems’ Electronic Systems, said in a recent statement:

Q-Warrior increases the user’s situational awareness by providing the potential to display ‘eyes-out’ information to the user, including textual information, warnings and threats. The biggest demand, in the short term at least, will be in roles where the early adoption of situational awareness technology offers a defined advantage.

The display is being considered for use as part of the Army Tactical Assault Light Operator Suit (TALOS) system, a powered exoskeleton with liquid armor capable of stopping bullets and the ability to apply wound-sealing foam that is currently under development.

q-warrior2As Lt. Col. Karl Borjes, a U.S. Army Research, Development and Engineering Command (RDECOM) science adviser, said in a statement:

[The] requirement is a comprehensive family of systems in a combat armor suit where we bring together an exoskeleton with innovative armor, displays for power monitoring, health monitoring, and integrating a weapon into that — a whole bunch of stuff that RDECOM is playing heavily in.

The device is likely to be used by non-traditional military units with reconnaissance roles, such as Forward Air Controllers/Joint Tactical Aircraft Controllers (JTACS) or with Special Forces during counter terrorist tasks. The next level of adoption could be light role troops such as airborne forces or marines, where technical systems and aggression help to overcome their lighter equipment.

iron_man_HUDMore and more, the life in the military is beginning to imitate art – in this case, Iron Man or Starship Troopers (the novel, not the movie). In addition to powered exoskeletons and heads-up-displays, concepts that are currently in development include battlefield robots, autonomous aircraft and ships, and even direct-energy weapons.

And of course, BAE Systems was sure to make a promotional video, showcasing the concept and technology behind it. And be sure to go by the company’s website for additional footage, photos and descriptions of the Q-Warrior system. Check it out below:


Sources: wired.com, baesystems.com

The Future is Here: “Ironman” Spec-Ops Suit

 

ironman3Army researchers have been working for years to incorporate powered armor, exoskeletons, and high-tech weaponry into the arsenal of next-generation soldiers. And this latest development from DARPA – the Defense Advanced Research Projects Agency, the research wing of the US Army – is being hailed as the closest thing there is to a real-life “Iron Man” suit to date.

Its known as the Tactical Assault Light Operator Suit (TALOS) and is designed to deliver “superhuman strength with greater ballistic protection”. Named in honor of the Greek automaton made of bronze that Zeus assigned to protect his lover Europa, this suit incorporates a powered exoskeleton, liquid armor, built-in computers and night vision, and the ability to monitor vital signs and apply wound-sealing foam.

DARPA-Warrior-Web-660x495Put together, the capabilities would make the already elite Special Operation Forces nearly invincible in the field, according to the Army. As Lt. Col. Karl Borjes, a U.S. Army Research, Development and Engineering Command (RDECOM) science adviser, said in a statement:

[The] requirement is a comprehensive family of systems in a combat armor suit where we bring together an exoskeleton with innovative armor, displays for power monitoring, health monitoring, and integrating a weapon into that — a whole bunch of stuff that RDECOM is playing heavily in.

For the sake of the suit’s design and high-tech features, DARPA reached out to engineers from MIT, who are currently working to produce the liquid body armor that is perhaps the most advanced feature of the suit. Composed of magnetorheological fluids, this armor will “transform from liquid to solid in milliseconds when a magnetic field or electrical current is applied.”

TALOS_Future_Army_Soldier_WideThe suit is expected to make a first-generation appearance some time next year. Because of the high number of highly integrated technical challenges with advanced specifications, the Army is also drawing on a broad range of collaborators from multiple fields to complete the design in time. And as Jim Geurts, USSOCOM acquisition executive, in a statement:

USSOCOM is interested in receiving white papers from a wide variety of sources, not just traditional military industry but also from academia, entrepreneurs, and laboratories capable of providing the design, construction, and testing of TALOS related technologies. The intent is to accelerate the delivery of innovative TALOS capabilities to the SOF operator.

US_Army_powered_armorFor some time now, the concept of advanced powered suits of armor has been a feature of science fiction. Examples abound from literary references, such as E.E. Smith’s Lensman series and Heinlein’s Starship Troopers, to RPGs like BattleTech and Warhammer 40k, and to the gaming world with the HALO and Fallout series’. And much like lightsabers, there has scarcely been a geek alive who didn’t want one!

Now it seems that something very close might be realizable within a year’s time. I don’t know about you, but I feel both inspired and more than a little jealous. Damn SOCOM, always getting the coolest gear first! And of course, there’s a video:


Sources:
wired.com, dailytech.com
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Digital Eyewear Through the Ages

google_glassesGiven the sensation created by the recent release of Google Glass – a timely invention that calls to mind everything from 80’s cyberpunk to speculations about our cybernetic, transhuman future – a lot of attention has been focused lately on personalities like Steve Mann, Mark Spritzer, and the history of wearable computers.

For decades now, visionaries and futurists have been working towards a day when all personal computers are portable and blend seamlessly into our daily lives. And with countless imitators coming forward to develop their own variants and hate crimes being committed against users, it seems like portable/integrated machinery is destined to become an issue no one will be able to ignore.

And so I thought it was high time for a little retrospective, a look back at the history of eyewear computers and digital devices and see how far it has come. From its humble beginnings with bulky backpacks and large, head-mounted displays, to the current age of small fixtures that can be worn as easily as glasses, things certainly have changed. And the future is likely to get even more fascinating, weird, and a little bit scary!

Sword of Damocles (1968):
swordofdamoclesDeveloped by Ivan Sutherland and his student Bob Sprouli at the University of Utah in 1968, the Sword of Damocles was the world’s first heads-up mounted display. It consisted of a headband with a pair of small cathode-ray tubes attached to the end of a large instrumented mechanical arm through which head position and orientation were determined.

Hand positions were sensed via a hand-held grip suspended at the end of three fishing lines whose lengths were determined by the number of rotations sensed on each of the reels. Though crude by modern standards, this breakthrough technology would become the basis for all future innovation in the field of mobile computing, virtual reality, and digital eyewear applications.

WearComp Models (1980-84):
WearComp_1_620x465Built by Steve Mann (inventor of the EyeTap and considered to be the father of wearable computers) in 1980, the WearComp1 cobbled together many devices to create visual experiences. It included an antenna to communicate wirelessly and share video. In 1981, he designed and built a backpack-mounted wearable multimedia computer with text, graphics, and multimedia capability, as well as video capability.

Wearcomp_4By 1984, the same year that Apple’s Macintosh was first shipped and the publication of William Gibson’s science fiction novel, “Neuromancer”, he released the WearComp4 model. This latest version employed clothing-based signal processing, a personal imaging system with left eye display, and separate antennas for simultaneous voice, video, and data communication.

Private Eye (1989):
Private_eye_HUDIn 1989 Reflection Technology marketed the Private Eye head-mounted display, which scanned a vertical array of LEDs across the visual field using a vibrating mirror. The monochrome screen was 1.25-inches on the diagonal, but images appear to be a 15-inch display at 18-inches distance.

EyeTap Digital Eye (1998):
EyeTap1
Steve Mann is considered the father of digital eyewear and what he calls “mediated” reality. He is a professor in the department of electrical and computer engineering at the University of Toronto and an IEEE senior member, and also serves as chief scientist for the augmented reality startup, Meta. The first version of the EyeTap was produced in the 1970’s and was incredibly bulky by modern standards.

By 1998, he developed the one that is commonly seen today, mounted over one ear and in front of one side of the face. This version is worn in front of the eye, recording what is immediately in front of the viewer and superimposing the view as digital imagery. It uses a beam splitter to send the same scene to both the eye and a camera, and is tethered to a computer worn to his body in a small pack.

MicroOptical TASK-9 (2000):
MicroOptical TASK-9Founded in 1995 by Mark Spitzer, who is now a director at the Google X lab. the company produced several patented designs which were bought up by Google after the company closed in 2010. One such design was the TASK-9, a wearable computer that is attachable to a set of glasses. Years later, MicroOptical’s line of viewers remain the lightest head-up displays available on the market.

Vuzix (1997-2013):
Vuzix_m100Founded in 1997, Vuzix created the first video eyewear to support stereoscopic 3D for the PlayStation 3 and Xbox 360. Since then, Vuzix went on to create the first commercially produced pass-through augmented reality headset, the Wrap 920AR (seen at bottom). The Wrap 920AR has two VGA video displays and two cameras that work together to provide the user a view of the world which blends real world inputs and computer generated data.

vuzix-wrapOther products of note include the Wrap 1200VR, a virtual reality headset that has numerous applications – everything from gaming and recreation to medical research – and the Smart Glasses M100, a hands free display for smartphones. And since the Consumer Electronics Show of 2011, they have announced and released several heads-up AR displays that are attachable to glasses.

vuzix_VR920

MyVu (2008-2012):
Founded in 1995, also by Mark Spitzer, MyVu developed several different types of wearable video display glasses before closing in 2012. The most famous was their Myvu Personal Media Viewer (pictured below), a set of display glasses that was released in 2008. These became instantly popular with the wearable computer community because they provided a cost effective and relatively easy path to a DIY, small, single eye, head-mounted display.myvu_leadIn 2010, the company followed up with the release of the Viscom digital eyewear (seen below), a device that was developed in collaboration with Spitzer’s other company, MicroOptical. This smaller, head mounted display device comes with earphones and is worn over one eye like a pair of glasses, similar to the EyeTap.

myvu_viscom

Meta Prototype (2013):
Developed by Meta, a Silicon Valley startup that is being funded with the help of a Kickstarter campaign and supported by Steve Mann, this wearable computing eyewear ultizes the latest in VR and projection technology. Unlike other display glasses, Meta’s eyewear enters 3D space and uses your hands to interact with the virtual world, combining the benefits of the Oculus Rift and those being offered by “Sixth Sense” technology.

meta_headset_front_on_610x404The Meta system includes stereoscopic 3D glasses and a 3D camera to track hand movements, similar to the portrayals of gestural control in movies like “Iron Man” and “Avatar.” In addition to display modules embedded in the lenses, the glasses include a portable projector mounted on top. This way, the user is able to both project and interact with computer simulations.

Google Glass (2013):
Google Glass_Cala
Developed by Google X as part of their Project Glass, the Google Glass device is a wearable computer with an optical head-mounted display (OHMD) that incorporates all the major advances made in the field of wearable computing for the past forty years. These include a smartphone-like hands-free format, wireless internet connection, voice commands and a full-color augmented-reality display.

Development began in 2011 and the first prototypes were previewed to the public at the Google I/O annual conference in San Francisco in June of 2012. Though they currently do not come with fixed lenses, Google has announced its intention to partner with sunglass retailers to equip them with regular and prescription lenses. There is also talk of developing contact lenses that come with embedded display devices.

Summary:
Well, that’s the history of digital eyewear in a nutshell. And as you can see, since the late 60’s, the field has progressed by leaps and bounds. What was once a speculative and visionary pursuit has now blossomed to become a fully-fledged commercial field, with many different devices being produced for public consumption.

At this rate, who knows what the future holds? In all likelihood, the quest to make computers more portable and ergonomic will keep pace with the development of more sophisticated electronics and computer chips, miniaturization, biotechnology, nanofabrication and brain-computer interfacing.

The result will no doubt be tiny CPUs that can be implanted in the human body and integrated into our brains via neural chips and tiny electrodes. In all likelihood, we won’t even need voice commands at that point, because neuroscience will have developed a means to communicate directly to our devices via brainwaves. The age of cybernetics will have officially dawned!

Like I said… fascinating, weird, and a little bit scary!

‘High Dynamic Range’

Jack Andraka and I Have a Chat!

photo(1)Folks, today I have a rare privilege which I want to share with you. Not that long ago, I reached out to a certain brilliant mind that’s been making waves in the scientific community of late, a young man who – despite his age – has been producing some life saving technologies and leading his own research team. This young man, despite his busy schedule, managed to get back to me quite quickly, and agreed to an interview.

I am of coarse referring to Jack Andraka, a man who’s medical science credentials are already pretty damn impressive. At the age of 16, he developed a litmus test that was capable of detecting pancreatic cancer, one that was 90% accurate, 168 times faster than current tests, and 1/26,000th the cost. For this accomplishment, he won first place at the 2012 Intel International Science and Engineering Fair (ISEF).

Winning at the 2012 ISEF
Winning at the 2012 ISEF

Afterward, he and the other finalists formed their own research group known as Generation Z, which immediately began working towards the creation of a handheld non-invasive device that could help detect cancer early on. In short, they began working on a tricorder-like device, something for which they hope to collect the Tricorder X PRIZE in the near future.

While this project is ongoing, Andraka presented his own concept for a miniature cancer-detecting device at this year’s ISEF. The device is based on a raman spectrometer, but relies on off-the-shelf components like a laser pointer and an iPod camera to scan tissue for cancer cells. And whereas a raman spectrometer is the size of a small car and can cost upwards of $100,000, his fits in the palm of your hand and costs about $15.

Talking with the Prez
Talking with the Prez

Oh, and I should also mention that Jack got to meet President Obama. When I asked what the experience was like, after admitting to being jealous, he told me that the President “loves to talk about science and asks great questions. [And] he has the softest hands!” Who knew? In any case, here’s what he had to tell me about his inspirations, plans, and predictions for the future.

1. What drew you to science and scientific research in the first place?

I have always enjoyed asking questions and thinking about how and why things behave the way they do. The more I learned about a subject, the more deeply I wanted to explore and that led to even more questions. Even when I was 3 I loved building small dams in streams and experimenting with what would happen if I built the dams a certain way and what changes in water flow would occur.

When I entered 6th grade, science fair was required and was very competitive. I was in a charter school and the science fair was really the highlight of the year. Now I did not only love science, but I was highly motivated to do a really good project!

That's him, building is dams.
That’s him, building his dams

2. You’re litmus test for pancreatic cancer was a major breakthrough. How did you come up with the idea for it?

When I was 14 a close family friend who was like an uncle to me passed away from pancreatic cancer. I didn’t even know what a pancreas was so I turned to every teenager’s go-to source of information, Google and Wikipedia, to learn more. What I found shocked me. The 5 year survival rate is just awful, with only about 5.5% of people diagnosed achieving that time period. One reason is that the disease is relatively asymptomatic and thus is often diagnosed when a patient is in an advanced stage of the cancer. The current methods are expensive and still miss a lot of cancers.

I knew there had to be a better way so I started reading and learning as much as I could. One day in Biology class I was half listening to the teacher talk about antibodies while I was reading a really interesting article on carbon nanotubes. Then it hit me: what if I combined what I was reading (single walled carbon nanotubes) with what I was supposed to be listening to (antibodies) and used that mixture to detect pancreatic cancer.

andraka_profileOf course I had a lot of work left to do so I read and read and thought and thought and finally came up with an idea. I would dip coat strips of inexpensive filter paper with a mixture of single walled carbon nanotubes and the antibody to mesothelin, a biomarker for pancreatic cancer. When mesothelin containing samples were applied the antibody would bind with the mesothelin and push the carbon nanotubes apart, changing the strips’ electrical properties, which I could then measure with an ohm meter borrowed from my dad.

Then I realized I needed a lab (my mom is super patient but I don’t think she’d be willing to have cancer research done in her kitchen!). I wrote up a proposal and sent it out to 200 professors working on anything to do with pancreatic research. Then I sat back waiting for the acceptances to roll in.

I received 199 rejections and one maybe, from Dr Maitra of Johns Hopkins School of Medicine. I met with him and he was kind enough to give me a tiny budget and a small space in his lab. I had many many setbacks but after 7 months, I finally created a sensor that could detect mesothelin and thus pancreatic cancer for 3 cents in 5 minutes.

ISEF2012-Top-Three-Winners3. What was your favorite thing about the 2012 Intel International Science and Engineering Fair – aside from winning, of course?

My brother had been a finalist at Intel ISEF and I attended as an observer. I was blown away by the number and quality of the projects there and loved talking to the other finalists. It became my dream to attend Intel ISEF as well. My favorite thing about getting to be a finalist was the sense that I was among kids who were as passionate about math and science as I was and who were curious and creative and who wanted to innovate and push their limits. It felt like I had found my new family! People understood each other and shared ideas and it was so exciting and inspiring to be there with them, sharing my ideas as well!

4. What was the inspiration behind you and your colleagues coming together to start “Generation Z”?

I met some other really interesting kids at Intel ISEF who were making huge advances. I am fascinated by creating ways to diagnose diseases and pollutants. We started talking and the subject of the X Prize came up. We thought it would be a fun challenge to try our hand at it! We figure at the very least we will gain valuable experience working on a team project while learning more about what interests us.

5. How did people react to your smartphone-sized cancer detector at this years ISEF?

Of course people came over to see my project because of my success the previous year. This project was not as finished as it could have been because I was so busy traveling and speaking, but it was great to see all my friends and make new ones and explain what I was aiming for.

Tricorder X6. Your plans for a tricorder that will compete in Tricoder X are currently big news. Anything you can tell us about it at this time?

My team is really coming together. Everyone is working on his/her own piece and then we often Skype and discuss what snags we are running up against or what new ideas we are thinking about.

7. When you hear the words “The Future of Medicine”, what comes to mind? What do you think the future holds?

I believe that the future of medicine is advancing so fast because of the internet and now mobile phones. There are so many new and inexpensive diagnostic methods coming out every month. Hopefully the open access movement will allow everyone access to the knowledge they need to innovate by removing the expensive pay walls that lock away journal articles and the important information they contain from people like me who can’t afford them.

Tricorder X_prizeNow kids don’t have to depend on the local library to have a book that may be outdated or unavailable. They can turn to the internet to connect with MOOCs (Massive Open Online Courses), professors, forums and major libraries to gain the information they need to innovate.

8. What are your plans for the future?

I plan to finish my last 2 years of high school and then go to college. I’m not sure which college or exactly what major yet but I can’t wait to get there and learn even more among other people as excited about science as I am.

9. Last question: favorite science-fiction/fantasy/zombie or superhero franchises of all time, and why do you like them?

I like the Iron Man movies the best because the hero is an amazing scientist and engineer and his lab is filled with everything he would ever need. I wonder if Elon Musk has a lab like that in his house!!

Yeah, that sounds about right! I’m betting you and Musk will someday be working together, and I can only pray that a robotic exoskeleton is one of the outcomes! And I would be remiss if I didn’t point out that we had a Superhero Challenge here on this site, where we designed our own characters and created a fictional crime-fighting league known as The Revengers! We could use a scientifically-gifted mind in our ranks, just saying…

Thank you for coming by and sharing your time with us Jack! I understood very little of what you said, but I enjoyed hearing about it. I think I speak for us all when I say good luck with all your future endeavors, and may all your research pursuits bear fruit!

Tony Stark’s Mansion For Sale!

iron-man-3-official-hd

Guess what folks? The people at Motovo, who like to explore the funnier, satirical side of real-estate, have just put Tony Stark’s mansion up for sale in honor of Iron Man 3 hitting the theaters. And as usual, the listing is a combination a tongue-in-cheek humor and just enough realism to make it to funny. Here’s the detailed listing as it appears in the ad:

This luxurious, modern-designed estate offers a breathtaking view of Dume Cove. The previous home of billionaire Tony Stark, and his not-so-secret identity, Iron Man, this expansive home includes 25,000 square feet of living space that is perfect for hosting lavish gatherings. As one would expect from a technology magnate, the Iron Man House is wired with state-of-the-art gadgets to make modern living as painless as possible. For the gearhead in the family, there is an expansive garage and workshop. Also included are marking from Iron Man’s tumultuous career.

The house is located in Malibu and is listed at a hefty $117,250,000, which breaks down to about $4,690 per square foot. But if you don’t have a 100 million dollars kicking around, Motovo offers a (ahem) reasonable loan payment of $423,225 a month. The house also comes with 8 bedrooms, 10 bathrooms, and boasts such amenities as a fully-functional AI, a bar, a multi-car garage, and a workshop with some of the coolest crap you’ve ever seen (including a particle accelerator!)

Check out the listing below, and check out the full ad over at Motovo Blog.

 

 

 

 

iron-man

New Iron Man 3 Trailer!

ironman3A new theatrical trailer has been released in honor of the third and final installment in the Iron Man franchise! Suffice it to say, it looks pretty awesome, and seems to be promising a finale that is nothing short of bad-ass. Pay special attention to the final few seconds of it, where Stark and Rhodes get “backup” in the form of a whole bunch of guys in Iron Man suits.

Like I said, promises to be bad-ass! Take a gander:

NASA’s X1 Robotic Exoskeleton

It may not be Iron Man, but it’s certainly a step in that direction. It’s known as the X1 Robotic Skeleton, a spinoff of their earlier Robonaut 2 project. Designed specifically to assists astronauts with either exercising in space, performing difficult tasks, or restoring movement to astronauts who have suffered from paralysis, the X1 is a big leap forward in terms of ergonomics and man-machine interface.

The exoskeleton is powered by four motorized joints and six passive joints, all of which give the 57 pound suit a good range of motion. When set to exercise mode, it provides resistance to the astronauts movement, ensuring that their muscles get the exercise they need while in zero-g environments. The rest of the time, the motors provide enough force to allow an astronaut to get a full range of motion and maintain full ambulatory capabilities.

A joint effort between NASA, The Florida Institute for Human and Machine Cognition, and the awesomely named Oceaneering Space Systems, the X1 is still deep in the research and development phase. Still, the suit could some day be used both in space and on Earth. In that respect, it is not unlike ReWalk and other robotic systems that are currently employed by the military which are used to help restore motion to the paralyzed and assist people in power lifting. Soon, the word “disability” will be entirely without meaning and “power lifters” will have to be redefined!

Check out this video of the X1 in action and/or click on the link below for more on this story.


Source: news.cnet.com