Ch. 2 - Let's get you a robot - Robotic Manipulation
short of adding tire mechanics into our physics engine. We also have a number of examples of this workflow in my Underactuated Robotics course, where we make extensive use of "simple models". [...] Hydraulic actuators provide another solution for generating large torques without large transmissions.
Before you start
- Basic Python familiarity
- Comfort with algebra or calculus basics
- Interest in robotics systems
About this guide
short of adding tire mechanics into our physics engine. We also have a number of examples of this workflow in my Underactuated Robotics course, where we make extensive use of "simple models". [...] Hydraulic actuators provide another solution for generating large torques without large transmissions. Sarcos had a series of torque-controlled arms (and humanoids), and many of the most famous robots from Boston Dynamics are based on hydraulics (though there is an increasing trend towards electric mo
Common questions
What will I learn in Ch. 2 - Let's get you a robot - Robotic Manipulation?
short of adding tire mechanics into our physics engine. We also have a number of examples of this workflow in my Underactuated Robotics course, where we make extensive use of "simple models". [...] Hydraulic actuators provide another solution for generating large torques without
Is Ch. 2 - Let's get you a robot - Robotic Manipulation free?
HumanoidHub has not verified public pricing for this guide. Open MIT OpenCourseWare for the current access terms before enrolling.
Do I need any prerequisites?
Recommended prep: Basic Python familiarity; Comfort with algebra or calculus basics; Interest in robotics systems.
How long does it take?
Self-paced (provider defined). Most learners complete this guide in self-directed sessions over a few weeks.
Does it offer a certificate?
This guide does not include a formal certificate. Focus is on the learning material itself.
Related guides
A neural blueprint for human-like intelligence in soft robots
A new AI control system enables soft robotic arms to learn a wide repertoire of motions and tasks once, then adjust to new scenarios on the fly without needing retraining or sacrificing functionality. The work was co-led by researchers at the Singapore-MIT Alliance for Research and Technology (SMART
A new model offers robots precise pick-and-place solutions
SimPLE (Simulation to Pick Localize and placE), a new model developed by MIT researchers, learns to pick, regrasp and place objects using object’s computer-aided design (CAD) model
Lecture 8.4: Stefanie Tellex - Human-Robot Collaboration | MIT Learn
<p><strong>Description: Human collaboration with robots that perform actions in real-world environments, carry out complex sequences of actions and actively coordinate with people, establishing a social-feedback loop. <p><strong>Instructor: Stefanie Tellex
Teaching Humanoid Robots Real-World Skills at MIT CSAIL’s Living Lab
Member Resources MIT In This Section Home MIT In This Section Filter Options In This Section Filter Options In This Section # Teaching Humanoid Robots Real-World Skills at MIT CSAIL’s Living Lab At MIT CSAIL's Living Lab, humanoid robots are learning to adapt, manipulate, and solve real p
Unit 8. Robotics | Brains, Minds and Machines Summer Course | Brain and Cognitive Sciences
This page summarizes the unit topic and activities, and links to lecture videos, notes and further study resources.
[PDF] Humanoid Robots as Cooperative Partners for People
guide the search by providing timely feedback, luring the learner to perform desired behaviors, controlling the environment so the appropriate cues are easy to attend to, etc. Our architecture supports the construction of collaborative learners that are easy and rewarding to teach using techniques t
Robots that use these skills
Atom Max
Dobot Robotics
DOBOT ATOM is Dobot Robotics’ first full-size humanoid robot aimed at embodied AI research and cross-scenario industrial/commercial task automation.
LBR iiwa 14 R820
KUKA
KUKA LBR iiwa 14 R820 is a 7-axis collaborative industrial robot arm with a 14 kg payload and ~820 mm reach.
Robot Pi
Physical Robotics
Robot Pi (π) is an upper-body humanoid robot from Physical Robotics built for dexterous, force-controlled manipulation using multi-DOF hands.
Refer a learner and get early access to our paid pathways and 1:1 mentorship pilot.
Join referral listNew robots, funding, and signals. Every Thursday.
Unsubscribe anytime.