Robohub.org
 

snickerdoodle: A brain for your robot

by and
27 October 2015



share this:
snickerdoodle

snickerdoodle is a tiny, low-cost, flexible computer for building and controlling connected robots. Unlike other affordable platforms with limited I/O, snickerdoodle provides access to 154 reconfigurable I/O (plus 76 grounds) to be adapted to specific robotic applications – perfect for systems combining things like motor control, sensing, machine vision. Starting at $55, snickerdoodle is actively crowdfunding at Crowd Supply.

snappy-ros

Wi-Fi and Bluetooth/BLE are built in and Snappy Ubuntu Core, ROS, and FreeRTOS/bare metal are fully supported.

bt-wifi-io

snickerdoodle is for anyone developing a new terrestrial, airborne, or industrial system or experimenting with/adapting an old system ‘frankensteined’ together with some combination of Raspberry PI, Arduino, BeagleBone, with wireless dongles, shields, etc.

snickerdoodle projects include:

  • RADAR-enabled, self-navigating terrestrial robots
  • unmanned aircraft with heads up displays and collision avoidance
  • wireless facial-recognition security systems
  • 6-axis robots and 3D printers
  • gigabit networking and high-frequency trading
  • computer vision systems for 3D mapping and object recognition
  • autonomous underwater rovers
  • remote weather stations and sensor clouds
snick7

High-level technical specifications for snickerdoodle (items in bold are upgradable):

  • Dual-Core 667MHz ARM Cortex-A9 processor w/430K reconfigurable gates
  • 154 I/O (100 reconfigurable via mobile app)
  • 512MB LPDDR2 RAM
  • 2.4GHz 802.11n SISO Wi-Fi
  • Bluetooth Classic
  • Bluetooth Low Energy
  • 3.7 – 17V input
  • locking “captive” microSD card cage
  • microUSB 2.0 (w/ serial console and mass storage device)
  • programmable user interface: 5x LEDs & 2x sealed buttons
  • 2” x 3.5” (50.8mm x 88.9mm)
  • iOS & Android apps

snickerdoodle has iOS and Android apps for configuring I/O and loading community and private projects and can be programmed using Python, Java, and C/C++.

snick6

Aimed specifically at robotics other tightly integrated mechatronic systems, instead of connectors bulky and heavy for Ethernet, USB, and HDMI, snickerdoodle has vertical pin 0.05” pitch pins/headers that can be plugged into directly using a housing/jumper kit $15).

snicker10

For access to 0.1” headers (270 pins), snickerdoodle’s connectors can be optionally flipped to the other side of the board for plugging into breakyBreaky ($25).

Alternatively, plug snickerdoodle into piSmasher ($55) for HDMI in & out, Gigabit Ethernet, USB 2.0, and 68 reconfigurable I/O.

snick8

Or there’s giggleBits ($85) for high-speed networking, hackable/customizable wireless Gigabit Ethernet routers, audio/video applications, industrial communications, and more.

giggleBits

 

Or you can always grab some extra connectors ($7) and build your own baseboard for prototyping or scaling up to building a couple more – or thousands of – robots.

snick14

snickerdoodle is shipping to Alpha users in December (which is still accepting applications for the most noteworthy applications and developers) with production units shipping in March.
Pre-order yours today at Crowd Supply .

About krtkl:

krtkl (“critical”) was founded in San Francisco in 2014. After several years and thousands of hours developing custom mechatronic and embedded control systems for a range of medical, industrial, and consumer technology companies, the team finally got so tired of the lack of an affordable and versatile tool for building robotic systems that they decided to just make one.

Driven to build something they, as engineers, would actually want to use – something that would make the robot builder’s life easier and that would eliminate design sacrifices resulting from using poorly conceived, underperforming, and overpriced tools.

Inspired by the idea of what might be possible if the blossoming community of makers, hobbyists, roboticists, and hardware enthusiasts could get their hands on advanced technologies that would normally be way out of their reach, the team ultimately developed a combination of hardware and software that truly levels the playing field. Bringing together professionals and hobbyists using one common platform has the unique potential to build a community of creators unlike any before it.



tags: , ,


Ryan Cousins cofounder and CEO of krtkl, making open-source, professional-caliber hardware and software more practical
Ryan Cousins cofounder and CEO of krtkl, making open-source, professional-caliber hardware and software more practical

krtkl Making hardware and software more practical.
krtkl Making hardware and software more practical.





Related posts :



#RoboCup2024 – daily digest: 21 July

In the last of our digests, we report on the closing day of competitions in Eindhoven.
21 July 2024, by and

#RoboCup2024 – daily digest: 20 July

In the second of our daily round-ups, we bring you a taste of the action from Eindhoven.
20 July 2024, by and

#RoboCup2024 – daily digest: 19 July

Welcome to the first of our daily round-ups from RoboCup2024 in Eindhoven.
19 July 2024, by and

Robot Talk Episode 90 – Robotically Augmented People

In this special live recording at the Victoria and Albert Museum, Claire chatted to Milia Helena Hasbani, Benjamin Metcalfe, and Dani Clode about robotic prosthetics and human augmentation.
21 June 2024, by

Robot Talk Episode 89 – Simone Schuerle

In the latest episode of the Robot Talk podcast, Claire chatted to Simone Schuerle from ETH Zürich all about microrobots, medicine and science.
14 June 2024, by

Robot Talk Episode 88 – Lord Ara Darzi

In the latest episode of the Robot Talk podcast, Claire chatted to Lord Ara Darzi from Imperial College London all about robotic surgery - past, present and future.
07 June 2024, by





Robohub is supported by:




Would you like to learn how to tell impactful stories about your robot or AI system?


scicomm
training the next generation of science communicators in robotics & AI


©2024 - Association for the Understanding of Artificial Intelligence


 












©2021 - ROBOTS Association