Close
0%
0%

ANTHRO (Anthropomorphic Robot)

Any-tasks, fully modular humanoid robotics platform.

Similar projects worth following
The ANTHRO (or ANTHropomorphic RObot) is the robotic platform we are currently developing, and has been in development since 2015 (started as Project '87). The platform is intended to be fully modular, lightweight, and endlessly customizable. Additionally the assembly of the ANTHRO is 80% toolless, making production quick, and customizing easy.

Through a combination of autonomous cognitive and human-assisted training, the ANTHRO will be capable of performing many tasks. We intend to make the ANTHRO the most affordable open-source humanoid robot available.

What is the ANTHRO?

The Anthropomorphic Robot is our answer to the lack of existing full-size humanoid robots available to the general public. What is preventing people from owning their own right now? There are three factors:

  1. Cost: Even if there were one available right now, it would cost far too much for the average person to own and maintain.
  2. Availability: Apart from Atlas and Digit, there aren't too many humanoid robots on the market, let alone available to the general public.
  3. Ease of Use: Research platforms and industrial robots are great for professionals and developers, but aren't suitable for everyone. 

Other issues that could arise from other robotic platforms include:

  • Closed Source Hardware Design
  • Privacy and Data Protection
  • Offline and Online Operation
  • Customization and Personalization

We aim to solve these issues by developing the ANTHRO with both the consumer and professional in mind. Here's how we are doing this:

  • Develop the ANTHRO using as many off-the-shelf components as possible. Use 3D-printed parts wherever possible to reduce cost and weight. 
  • Make the hardware design open-source where applicable. This is to enable third-party developers to make improvements to components. This also allows further customization by the end user.
  • Make the design semi-toolless for easy assembly, repair and modification. Training and interacting with the robot will be intuitive and seamless - like talking to another person.
  • Harness the power of cloud computing whenever possible. An ANTHRO can utilize our GPU servers to accelerate visual inference, speech processing, and training. 
  • Have a respectable amount of onboard computing power. The robot should be capable of operating on its own whenever internet connection is not available.
  • Every ANTHRO should be unique! Users can customize each one's appearance: from material to color scheme. One could also have their ANTHROs be uniform in appearance for commercial applications.

What will you find on this project page?

This page will focus primarily on the hardware side of the platform. A separate page may be created later for the software/AI side of things. Project logs will start from the beginning of the project (circa 2014), and work their way to where we are currently at, to better show how this project has evolved over the years. 

  • Project 87 Update - January 12, 2016

    Anthrobotics12/30/2020 at 03:48 0 comments

    "Hey everyone. I've been working tirelessly to get this video up for you guys to see what we have accomplished so far. Thanks for watching, and expect more updates often!" 

    - @Fennex628 

  • Servo Arm Drives in Action

    Anthrobotics12/30/2020 at 03:46 0 comments

    Here are two demo videos of the servo-driven arms on the robot from 2016:

  • Geared Servo Arm Drives

    Anthrobotics12/30/2020 at 03:44 0 comments

    A set of arms now accompanies the torso!

    Both arms are made of aluminum channel, and are also driven using hobby servos like the remainder of the robot. A simple linear gear drive using plastic gears is used to drive the elbows. A single large servo powers the shoulder, and wrist rotation servos are mounted in the forearms.

    Finally, Freddy now sports a sweet pair of running shoes :)

  • Endoskeleton Design Improvements

    Anthrobotics11/25/2020 at 05:48 0 comments

    Between July and November 2015, a number of improvements were made to the endoskeleton!

    First off, that weird "double knee" thing going on was removed, and a single-axis design was implemented using a servo motor on each side.

    Next, we made the foot smaller, and switched to aluminum from steel. A hinged front toe was also added.

    Next up, arms would be added to the torso.

  • The first steps!

    Anthrobotics11/25/2020 at 05:34 0 comments

    We had hit our first milestone: getting our robot to take it's first steps!

    Of course, it wasn't entirely unassisted. The legs lacked some essential degrees of freedom required to correct itself if it were to lean too far to either side. It also lacked an IMU of some kind, so it wouldn't have any idea as to its orientation with the environment. Hence @Fennex628 being there to provide a helping hand.

    At this point we had achieved very basic lateral motion moving in one direction, but it was pretty good for both our budget and timeframe at the time. Next, would be to add the additional DoF needed for advanced movement, and continue with the remainder of the build.

  • A quick machine vision demo before we get to walking...

    Anthrobotics11/21/2020 at 05:39 0 comments

    We thought we'd show a demo of the new PixyCam5 we had just received!

    Not quite sure what we would have used it for other than simple object recognition, but we recorded a quick demo of it anyway! In layer years, we would end up developing our own machine vision systems in-house, but more on that in a future project log :)

  • Fixing up balance issues

    Anthrobotics11/21/2020 at 05:35 0 comments

    We made some changes to rebalance the existing lower body, and prep it for it's first walking test.

    The pelvic region was slightly altered to not require a tape measure for balance anymore (haha). It was now capable of free-standing even without batteries mounted.

    Additionally, the knees and ankles were re-done to reinforce them, as well as provide the ankles with active control we deemed necessary for walking to be possible.

    Soon enough, we would be ready to make Freddy walk for the first time!

  • Freddy stands!

    Anthrobotics11/21/2020 at 05:26 0 comments

    We did it! Sorta...

    Well we got Freddy to stand on his own at this point! The mounting of the electronics and batteries was a little crude, and we did require a tape measure to act as a counterbalance. Still, progress was progress! 

  • Freddy begins...

    Anthrobotics11/21/2020 at 05:22 0 comments

    Construction of Freddy Fazbear has begun!

    The fun work of building Freddy from FNAF had begun for Project 87, with the arrival of Actobotics aluminum components! We decided to go for a premade modular system when it came to designing the endoskeleton, to make the overall process easier. The materials weren't terribly expensive, albeit nowhere as cheap as modern 3D-printing (which we now fully use).

    As for what we would begin with first, we started with the lower body. That mean everything from the hips and pelvis down to the feet. Starting with the pelvis, we added on servos for driving the thighs and rotating the legs.

    Next we added knee and ankle joints:

    Finally, we added some very simple (and flat) feet. These were made from a combination of Actobotics and Vex components.

    Next up would be the task of wiring the servo motors and mounting the electronics and power supplies.

  • Getting things in motion!

    Anthrobotics11/21/2020 at 05:10 0 comments

    Our first ventures into robotics started with servos!

    In May 2015, we started off with some very simple motion experiments, getting hobby servos to work with a number of different software tools. Using embedded servo controllers (the LynxmotionSSC-32U and BotBoarduino), we familiarized ourselves with the basic operation of PWM motors and what little controls we could integrate into our designs.

    At the time we were not fully aware of the drawbacks associated with direct driving a humanoid robot using hobby servos (especially for the scale we were aiming for). Nonetheless it got us headed down the right path!

    And of course, our first working test of multiple servos working together:

View all 11 project logs

Enjoy this project?

Share

Discussions

Similar Projects

Does this project spark your interest?

Become a member to follow this project and never miss any updates