They may be lower cost than the status quo, but $3199 to $3699 is out of my reach as a (non professional) hobbyist. I hope maybe one day though! https://sites.google.com/view/roboicsbenchmarks/getting-star... https://www.trossenrobotics.com/d-kitty.aspx https://www.trossenrobotics.com/d-claw.aspx Not quite in the realm like the $50 to $90 'Google Voice / Google Vision AI' kits https://aiyprojects.withgoogle.com/
You’re not the intended audience. This is meant for small research labs that are just starting up and want to enter the RL/Robotics research space and can’t afford a $400,000 PR2 or $150,000 shadow hand.
Robel: Robotics Benchmarks for Learning with Low-Cost Robots
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Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#12Earlier quoted context omitted.
You’re not the intended audience. This is meant for small research labs that are just starting up and want to enter the RL/Robotics research space and can’t afford a $400,000 PR2 or $150,000 shadow hand.
Totally worth the money :) https://youtu.be/c3Cq0sy4TBs
Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#13I'm interested in hearing from anybody who has sucessfully built a useful research robot for my experience has been everything < $1K uses crappy servos.
The total cost for one robot was well below 1k. The servos are $25 each (Turnigy 306G if remember correctly), all connecting parts are 3d printed, the electronics and batteries are about $50, and you could add a raspberry pi for $50. So in total Of course, these servos don't have the same torque as Dynamixles, for example. But they are lighter!
Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#14I'm interested in hearing from anybody who has sucessfully built a useful research robot for my experience has been everything < $1K uses crappy servos.
The servos are certainly where you can spend most money when building a robot for research. I tried building small research robots with small servos ($25 each), see results at the end of this video: https://m.youtube.com/watch?v=q8jgu-EtCFc The total cost for one robot was well below 1k. The servos are $25 each (Turnigy 306G if remember correctly), all connecting parts are 3d printed, the electronics and batteries ar…
Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#15Earlier quoted context omitted.
You’re not the intended audience. This is meant for small research labs that are just starting up and want to enter the RL/Robotics research space and can’t afford a $400,000 PR2 or $150,000 shadow hand.
How do you know these prices? I generally find these companies do not publish them on their websites
Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#16Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#17I'm interested in hearing from anybody who has sucessfully built a useful research robot for my experience has been everything < $1K uses crappy servos.
The servos are certainly where you can spend most money when building a robot for research. I tried building small research robots with small servos ($25 each), see results at the end of this video: https://m.youtube.com/watch?v=q8jgu-EtCFc The total cost for one robot was well below 1k. The servos are $25 each (Turnigy 306G if remember correctly), all connecting parts are 3d printed, the electronics and batteries ar…
Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#18is anyone aware of an open-source alternative to these servos? this would be a great contribution to the community, if not available already
Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#19Examples of cheap sensors: MEMS microphone, camera, voltage sensor, mass sensor, distance sensor, multi-axis position sensors (gyroscope/magnetometers).
Examples of effectors: Any kind of motor, solenoid, LEDs, etc.
If you want to constrain the question to 3D motion, here is a suggestion - hack the controller of any existing RC car platform. Add overhead position sensing within a fixed arena added via external camera. Maybe add a MEMS microphone (USD$3) or position sensor (~USD$10) to verify airtime/orientation. ML problem #1: Add a ramp. Try to get it to jump highest (longest time airborne). ML problem #2: Same with a power efficiency metric. ML problem #3: Same with a time efficiency metric applied to navigation from a random start point and orientation. ML problem #4: Motor noise vs. jump height optimization.
Re: Robel: Robotics Benchmarks for Learning with Low-Cost Robots
#20Maybe I am missing something but fundamentally you can "learn" in the ML sense with any sensor and effector. Examples of cheap sensors: MEMS microphone, camera, voltage sensor, mass sensor, distance sensor, multi-axis position sensors (gyroscope/magnetometers). Examples of effectors: Any kind of motor, solenoid, LEDs, etc. If you want to constrain the question to 3D motion, here is a suggestion - hack the controller…