The robot is called PRIMER-V2, and was built by Dr. Guero of the website AI & Robot. He pedals to move forwards, and he balances like a human rider, by turning into any falls. The balance in this case is provided by a PID (proportional integral derivative) controller which uses feedback loops to adjust for error.
 |
| Robot Rides a Bike |
 |
| Robot Rides a Bike |
 |
| Robot Rides a Bike |
However the PRIMER manages to stay upright, Dr. Guero has given us a valuable insight into how the robot apocalypse will inevitably unfold. It will come from Japan, and it will come — unstoppably — on two wheels.
Check this cool robot video!
This bot can reach speeds of 6 mph and uses centrifugal force from its front wheel and a gyro that helps with steering when going in a straight line. He really looks like a kid that just learned to ride and is doing great. And just like a kid, PRIMER-V2′s braking method is to use its metal feet to slow the forward motion of the bike.
At times, our robot future is looking less scary at times, and more comical. I can’t wait to see all of the bike-riding and skateboarding bots at various parks and playgrounds. First they took our jobs, then they took our kids’ pastimes.
Japan leads the world’s robotic industries in fields ranging from manufacturing to entertainment and security.Japanese researchers have developed a humanoid robot that can laugh and smile as it mimics a person's facial expressions.By receiving electric signals from the person it is modelled on, the robot can move its rubber facial skin to imitate expressions like a smile, a laugh and a grim look.
Check this humanoid robot video below:
"I felt like I had a twin sister," the model said.
The versatile humanoid robot Nao caught Gizmag's attention at the 2009 International Robot Exhibition (iREX 2009). What Nao lacks in size, he makes up for in features and capabilities. Nao can see (via two cameras), will react to touch, can surf the Web and can interact with other Naos. He can speak (in English or French, so far) by reading out any file stored locally in his storage space or captured from a website RSS flow. The bot is fitted with an accelerometer and gyrometer so he won't fall down, he's also equipped with two pairs of ultra-sound senders/receivers on his torso that give feedback on several echoes so Nao is aware of obstacles close by and can avoid them.
I just get my little NAO last week, and now I am testing this cute humanoid robot. Check my video below:
Nao reacts to touch
Nao is fitted with a capacitive sensor on the top of his head that is divided into three sections which lets him react appropriately to touch. For example, pressing once can turn him off, or this sensor can be used as a series of buttons to register an associated action. The system comes with LED lights that indicating the type of contact that has been made. Nao’s designers say it is also possible to program complex sequences into him.
 |
| NAO Is The Most Amazing Robot |
 |
| NAO Is The Most Amazing Robot |
Nao can communicate in several ways. For local connections, infrared senders/receivers in his eyes allow him to connect to the objects in his environment, serving as a remote control. Yet Nao can also logon to your local network via Wi-Fi, making it easy to pilot and program him through a computer, or any other object that has a Wi-Fi connection. The Wi-Fi key is connected to the motherboard and accepts a, b and g standards.
Furthermore, Nao’s SDK lets you develop your own custom-built modules interfaced with OpenCV (the Open Source Computer Vision library initially developed by Intel). Nao’s makers say it’s easy to execute modules on Nao or transfer them to another PC connected to NAO because the OpenCV display functions allow developers to test their own algorithms with image feedback.
Nao can browse the Internet, of course, and interface with any website to send or retrieve data.
"Watching two Nao’s interacting was almost mesmerizing," reports Gizmag's Mike Hanlon. "At the show the two joked and played tricks and then performed a synchronized dance routine that kept most of the audience spellbound – not too difficult for robots with the same chipset and programming, but effective nevertheless."
"While the dancing was cute, it really showed off the possibilities of having the robots work in tandem to complete complex tasks such as geographic positioning or pooling analytical capacity."