Wall Of Cool

Apple And Samsung Are Best Poised F...

Posted by Skooks Pong

Almost every major tech company is making a bet on smartwatches.

We've heard rumors of an Apple iWatch for a while now. We have knowledge of Google working on a smartwatch. Executives at Microsoft's suppliers in Asia told Bloomberg last month that the company asked them to ship displays for touch-enabled watch devices. LG is reportedly working on a smartwatch, and so is Samsung.

But if any company is going to succeed in the market, it sounds like it's going to be Samsung or Apple, or maybe even both.

"Samsung and Apple are traditional hardware companies and have spent nearly the last decade combining powerful technologies into the smartphone," Skooks Pong, VP of technology at Synapse, tells Business Insider.

The Future of Wearable Technology

Posted by Skooks Pong

With companies like Apple, Google, Microsoft and Samsung all reportedly working on smartwatches and other wearable technologies, some people have said that it marks the end of the smartphone.

But smartphones are going to be around for quite a while, Synapse VP of Technology Skooks Pong tells Business Insider.

Global Health Ambassador, Cookie Mo...

Posted by Scott Bright

Cookie Monster's Interview with Impatient Optimists (The Bill and Melinda Gates Foundation Blog) about his new gig with Sesame Workshop promoting health and sanitation in Bangladesh, India, and Nigeria.

"Me cookie eating reputation precedes me. Of course me have ritual! First me wash hands. This part very important because it help keep me healthy. Me not sure exactly how long me wash, but me sing the ABCs slowly and when me get to Z, it time to rinse and then look out, om nom nom nom nom. Me also like to share me cookies with Elmo and Big Bird. Little known secret, a birdseed cookie is delicious."

 

"Crystal" Lego Chandelier

Posted by Kirstin Moline

For all those nerds out there who still love to play with Legos: Tobias Tøstesen's amazing floor to ceiling chandelier made from 8,000 clear Lego window pieces. 

3D-Printed LED Speakers

Posted by Mark Giles

The speakers are one-of-a-kind, 3-D printed on an Objet Connex 500 at Autodesk and endowed with an audioreactive LED system by LumiGeek, a new company that makes Arduino-compatible microcontrollers for an LED development kit. Built by LumiGeek founder John “Parts” Taylor and Autodesk applied innovation engineer Evan Atherton, the speakers are both a drool-worthy experiment and an example of what 3-D printing can do now.

With about $2,200 worth of 3-D printed material, the cost is nearly prohibitive. Made possible by the ultra-high-end Connex, which can print two different materials in seamless integration — and thus a nearly continuous spectrum of materials by mixing the two — the speaker housings incorporate a web of flexible black material with hard translucent plastic interspersed on the grid. The result is two cantaloupe-sized hollow balls that look a little like futuristic blooming onions, and sound pretty darn good too.

Skooks & Ziv in EEWeb

Posted by Mark Giles

Skooks Pong, Senior VP of Technology, stole the cover of EEWeb's Pulse Magazine. Inside is an insightful interview and article detailing Synapse's skill and work ethic. Also featured in this issue is Ziv Magoz, Electrical Engineer, explaining our partnership with Viableware, and the product we developed for them: Rail.

"Smell-o-Vision"

Posted by Kirstin Moline

A team from the Tokyo University of Agriculture and Technology created a "smelling screen" with a display capable of producing localized smells. 

-Darren Quick, Gizmag

Bicycle You Assemble From Big Sheet...

Posted by Carrie Krueger

Anybody who's ever built a model airplane will likely get a nerd thrill from this unique bike from The Netherlands, which comes as a bunch of prefabricated parts attached together in punch-out sheets.

FIRST Robotics Competition

Posted by Mark Giles

FIRST Robotics Competition (FRC) is a unique varsity sport of the mind designed to help high-school-aged young people discover how interesting and rewarding the life of engineers and researchers can be.

The FIRST Robotics Competition challenges teams of young people and their mentors to solve a common problem in a six-week timeframe using a standard "kit of parts" and a common set of rules. Teams build robots from the parts and enter them in competitions designed by Dean Kamen, Dr. Woodie Flowers, and a committee of engineers and other professionals.

FIRST redefines winning for these students because they are rewarded for excellence in design, demonstrated team spirit, gracious professionalism and maturity, and the ability to overcome obstacles. Scoring the most points is a secondary goal. Winning means building partnerships that last.

Ziv's E-Bike

Posted by Ziv Magoz

After deciding to go green, I ordered a kit from China to convert my Trek 950 MTB into an eBike. After unboxing, and 30 minutes or so, I had something that runs the eBike at good standards, but not up to Ziv's standards! :-) It had 6 problems: 1. The sensor equipped brake levers are weak. 2. The throttle hurt my wrist on long rides. 3. The battery is too heavy. 4. The charger is too slow. 5. The whole thing is wobbly. 6. The range is only 10 to 15 miles. To solve the wrist pain and weak brakes, I installed a "Pedal-tech"--a sensor that delivers power to the motor according to how fast you pedal. That solved problem # 2, (throttle), and allowed me to put back the original brake levers that which fixes problem # 1, (weak brakes).

In order to fix problem # 5, (wobbly), I moved the controller outside the battery bag pocket and secured it to the luggage rack. I also used two bungee cords to secure the battery case to the rack. Now The major problems left: Problems 6 and 4, (range and weight), can be solved with more advanced battery, i.e. Lithium Ion battery. So I ordered 10 cells from China to test the concept. These batteries give an impressive 42.2V which can take the bike over 30 MPH (I limit the speed electronically to 20 MPH to save battery though). The first test worked well, so I ordered 80 more cells, totaling 90.

Next, the battery enclosure. I decided to go with fiberglass because it’s lightweight and strong. I built the mold for the battery box from cardboard and tape, then covered the mold with two layers of resin and fiberglass cloth. I also made a small mold for the charging port and ignition switch circuitry, then put it inside the box and added more resin and fiberglass cloth. Next I made a little groove at the bottom to fit the bike down pipe and added an aluminum frame to attach it with the fiberglass mat. Then added a layer of Bondo and painted it blue.

In the mean time, the rest of the batteries came from China. Each cell is 3.7V and 3000mAH. When I put 9 cells in parallel to create the basic cell and 10 of those in serial I got 37V battery with 27 AH capacity!.. But like most cheap stuff from China, I knew the cells would not be 3000mAH, but 1500mAH at most, so I'd get about 13 AH of battery, which should hold for 25 to 30 miles. After assembling the basic cell with hot glue, I equalized each cell separately, and then equalized the whole battery over night. There are only 8 cells in each battery cell because some of the cells came dead from China.

I connected the cells to the BMS board, and made sure nothing would explode when chargeing it in less than 3 hours. Bolt it to the bike, and "voila" problem 3 (battery is too heavy), and problem 6 (short range), are solved. Then, in order to increase range and convenience, I added two buttons underneath the handlebar: The button on the right will take the bike 16 - 17 MPH--and with moderate pedaling it will go 19 to 20 MPH; the button on the left is full throttle for those hot days.. :-)

Next was problem # 4 (slow charger). As always, I used an old computer power supply, and removed the power transformer. Added some more copper wires for a quick and dirty solution. But as with every quick and dirty solution it didn’t work well, and at around 40W it would cut off. So I went with the more aggressive approach of reverse engineering the power supply controller. Then I removed the old controller and stripped down all the unnecessary components, and also rewired the power transformer again for a single 42V output. But power supplies need a controller, so I designed a simple controller to tell the power supply to act as a 23 to 42V, 4A smart charger built at zero cost from old parts I had in my electronics box. Connected it to the power supply and loaded it with 30W--checked the voltage: 42V!! Wrapped it up, and tested it with no load: 42.2V--perfect! Then I took it to the garage for real world testing 3.92A! That’s 160W--quite an improvement from the old 27W charger that came with the kit. Put on a grommet and proper cable, then tested it with the battery: It takes 3 hours to charge a complete dead battery!