More Pole Climbing Bots, Haul Antennas And Bikes

Pole Climbing Robot

A few days ago we posted about a Pole Climbing Device. Since then we’ve gotten a few emails with tips about other pole climbers. We are going to talk about two of those here, they are completely different from each other and have completely different uses. Who knew there was such a variety of pole climber bots out there?

First up is this an antenna-wielding bot that climbs up poles in order to promote over the air communications. The system is called E-APS (Emergency Antenna Platform System) and is used by enthusiasts to turn any ol’ parking lot lamp post into an antenna tower. This particular machine has a large rectangular frame made from extruded aluminum. There are four wheels, two of which are driven by what appears to be a car power window motor. The weight of the antenna forces each set of two wheels to be pressed up against opposite sides of the pole, creating enough friction to not only support the unit but allow it to travel up and down the pole. There is not a lot of explanation about the build but there are a lot of detailed photos of the final product. We saw E-APS in action at MakerFaire New York 2013, and it was very impressive.

We’ve covered this next device before but it’s worth mentioning again. The project assumes that no bike lock is strong enough to deter the most persistent thief. Instead of locking your bike up and hoping for the best, this ‘theft preventer’ hikes your bike up out of the reach of would-be bike nabbers. So how do you get your bike down once it is up the pole? A remote control fob, of course.

There are 2 cool videos of these inventions after the break…..

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What Could Possibly Go Wrong Giving A Robot A Chainsaw?

Chainsaw wielding robot

[Morgan Rauscher] is a rather eccentric artist, inventor, maker, professor… jack of all trades. His latest project is called the Art-Bot – and it’s an 8′ robotic arm equipped with a chainsaw. Did we mention you can control it via arcade buttons?

He’s been building sculptures for over 10 years now, and has enjoyed observing the evolution of automated manufacturing – from CNC machines to laser cutters and even now, 3D printers. He loves the technologies, but fears machines are making it too easy – distancing us from the good old physical interaction it once took to make things with a few simple tools. His Art-Bot project attempts to bridge that gap by bringing tactile transference to the experience.

The cool part about the Art-Bot is that it is mostly made of recycled materials – in particular, bicycle parts!

Making a robot from bicycle parts is really not that difficult, and I highly recommend it.

The rest of the robot consists of electric actuators (linear), the control circuitry, and of course — a chainsaw. For safety’s sake, [Morgan] also built a polycarbonate wall around it to protect users from it going on a murderous rampage wood chips and other debris thrown from the robot.

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A Mechanically Scanned LIDAR For Autonomous Robots

LIDAR[Patrick] has spent a lot of time around ground and aerial based autonomous robots, and over the last few years, he’s noticed a particular need for teams in robotics competitions to break through the ‘sensory bottleneck’ and get good data of the surrounding environment for navigational algorithms. The most well-funded teams in autonomous robotics competitions use LIDARs to scan the environment, but these are astonishingly expensive. With that, [Patrick] set out to create a cheaper solution.

Early this year, [Patrick] learned of an extremely cheap LIDAR sensor. Now [Patrick] is building a robotics distance measurement unit based on this sensor.

Early experiments with mechanically scanned LIDAR sensors centered around the XV-11 LIDAR, the distance sensor found in the Neato Robotics robot vacuum cleaner. [Patrick] became convinced a mechanically scanned LIDAR was the way forward when it came to distance measurement of autonomous robots. Now he’s making his own with an astonishingly inexpensive LIDAR sensor.

The basic idea of [Patrick]’s project is to take the PulsedLight LIDAR-Lite module, add a motor and processing board, and sell a complete unit that will output 360° of distance data to a robot’s main control system. The entire system should cost under $150 when finished; a boon to any students, teams, or hobbyists building an autonomous vehicle.

[Patrick]’s system is based on the PulsedLight LIDAR – a device that’s not shipping yet – but the team behind the LIDAR-Lite says they should have everything ready by the end of the month, all the better, because between these two devices, there’s a lot of cool stuff to be done in the area of autonomous robots.

Soccer Playing Robots Score On Human Goalie!

Soccer robot scores on humans

Did you know there’s a rather large community dedicated to making robots that can play soccer? Did you know they’re getting pretty good?

RoboCup is an international robotics competition held annually, first founded in 1997. The goal first and foremost is to promote robotics and AI research — and to do so, they decided to make the competition something that is publicly appealing — Why not one of the most popular sports around? The official goal of the project is to have a team of autonomous humanoid based robot players beat the most recent winning team of the World Cup, complying with the official rules of FIFA. This year, the RoboCup coincided with the real World Cup, and was hosted in Brazil.

There are several categories in RoboCup with various types of robots, and the mid-size team did pretty well this year.

Arguably, this is the most exciting game of all, because it gives a sense of what the current state-of-the-art in robotic soccer is, and how it stacks up to a team of moderately talented squishy bipeds.

We guess that’s a nice way of saying “non-professional soccer players”. Regardless though, they SCORED!

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The RC White House Robot

IMG_20140726_124812_164

This remote controlled, Arduino-based robot was created by a young student named [Quin] who likes to teach electronics classes at hackerspaces. It is an adaptation of this awesome, fast, fully autonomous mini Roomba that has since driven its way into the Presidential building during the 1st ever White House Maker Faire.

The quick, little device uses a robot chassis kit with an XBee wireless module so that the controller and the robot can be connected together. An NFC Shield was hacked and split in half so that the wires could be soldered in place.

[Quin]’s goal was to develop a fun game that records the number of times the robot drives over NFC tags laid across a flat surface. Points are shown in the form of blinking lights that illuminate when the device goes over the sensors, keeping track of the score.

The controller container was made with an open source 3D printer called a Bukobot. The enclosure holds an Arduino and another XBee shield along with a joystick and a neopixel ring, giving it a nice polished look complete with a circle of beautiful, flashing LED’s.

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A New Approach To Robotic Walking Looks More Like Kinetic Art

Flipping Robot

Here’s a really cool application of 3D printing and robotics by a fellow named [Maundy] – He’s created a very unique kinetic robot which relies on gravity to walk around.

All the electronics are housed in the cylinder as shown above. It can roll freely back and forth by some kind of mechanism inside (not shown), but the beauty of it is, when the cylinder rolls to one end, gravity takes over and the little robot actually flips through the air, reorienting itself onto its other feet.

Due to the flipping nature of the bot, it can even climb over small obstacles with ease – but this one can’t steer, so there’s no threat of them taking over the world. Perhaps with a modification to the control cylinder (turn it into a ball), the robot could orientate itself vertically, and then kind of spin in place in order to steer…

Anyway, you have to see it to believe it, so stick around after the break to see it in action!

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What Could You Do With 7 Fingers?

7 finger robotic glove

A strange thought yes, but MIT researchers think an extra two digits could really make a difference in many people’s lives. And as it turns out, having an extra robotic grasp allows you to do quite a few things single handed.

The extra two fingers provide three degrees of freedom each, and are mounted off the user’s wrist. A series of position recording sensors attached to the glove provide feedback to the system in order to control the fingers naturally, just by using your hand normally.

They taught the algorithm that controls the fingers by trying to pick up different (large) items using the hand and manually positioning the fingers. What they discovered is almost every grasp could be demonstrated as a combination of only 2-3 grip patterns.  Continue reading “What Could You Do With 7 Fingers?”