Introduces the fundamental algorithmic approaches for creating robot systems that can autonomously manipulate physical objects in unstructured environments such as homes and restaurants. Topics include perception (including approaches based on deep learning and approaches based on 3D geometry), planning (robot kinematics and trajectory generation, collision-free motion planning, task-and-motion planning, and planning under uncertainty), as well as dynamics and control (both model-based and learning-based).
Homework assignments will guide students through building a software stack that will enable a robotic arm to autonomously manipulation objects in cluttered scenes (like a kitchen). A final project will allow students to dig deeper into a specific aspect of their choosing. The class has hardware available for ambitious final projects, but will also make heavy use of simulation using cloud resources.
6.4210 is the undergraduate version of the class. It serves as an Advanced Undergraduate subject (AUS), Independent Inquiry (II) and a Communication-intensive subject (CI-M). Our communications focus is on reviewing active research papers and producing an excellent final project. Due to the significant emphasis on communications and the final project, the course is 15 units (rather than the more standard 12) and includes a Friday recitation.
6.4212 is the graduate version of the class. It qualifies as a Technical Qualifying Exam (TQE) subject (in Group 3: Artificial Intelligence). It is an Approved Advanced Graduate Subject (AAGS), and can automatically be counted as an AUS, and/or grad_II. This version of the course is 12 units, but to match the high standards of the department TQEs, the expectations for students registered for 6.4212 are higher than for 6.4210. 6.4212 students should expect one or two different or additional (potentially more advanced) problems on each problem set. Relative to 6.4210, the grading rubrics for the final project place increased emphasis on technical depth, and reduced emphasis on communication.
Class Time and Location
Lectures: Tuesday, Thursday 2:30 - 4:00 pm in E25-111
Recitations are only for the undergrad version (6.4210):
- R1: Friday at 1pm in 4-159,
- R2: Friday at 2pm in 4-159, or
- R3: Friday at 1pm in 4-153.
See class schedule for complete details.
Grading PolicyLate assignments will be penalized 10% every 24 hours. Additionally, we will grant a one time (one pset) extension of up to one week without penalty. This will automatically be applied at the end of the term to whichever pset will earn you the most points; there is no need to request it. All psets will be be assigned equal weight when determining final grade.
6.4210 grade distribution
Journal club/peer reviews: 5%
CI-M participation, pre-writing tasks & writing conferences: 5%
Project proposal: 10% (5% tech grade + 5% CI grade)
Project report: 30% (20% tech grade + 10% CI grade)
Project video: 10% (7% tech grade + 3% CI grade)
6.4212 grade distribution
Project proposal: 5%
Project updates: 10%
Project report: 35%
Project video: 10%
Policy on Generative AI: Generative AI is a resource like any other. You are free to use it, but should always cite your resources.
You can contact the course staff at: manipulation-staff [AT] mit [DOT] edu
Teaching Assistants (Graduate)
Teaching Assistants (Undergraduate)
I don't have any robotics experience, is it okay if I take the class? Yes. The course is designed to not assume any prior experience with robotics. If you have plenty of robotics experience, that's great too.
What will assignments be like? The assignments will comprise a mix of hand-written math and programming. These will be approximately weekly, and for approximately only the first half of the term. During the second half we will ask you to focus on your final project.
Programming assignments will be in Python and will feature use of Drake, a toolbox for planning, control and analysis for robotics. Drake was developed out of the Robot Locomotion Group and its development is now led by Toyota Research Institute.
All assignments (both hand-written components and programming components) will be graded using Gradescope.
I am not sure if I fit the prerequisites, what should I do? Please speak to a staff member.
What can I do to best prepare for success in the class? The course takes a rigorous mathematical and algorithmic approach to robotics. The only required prerequisites are basic familiarity with linear algebra. If you work hard, we can teach you the rest.
If, however, you would like to prepare as best as possible, here is what the course TAs recommend:
- Linear Algebra:
- A strong, intuitive understanding of Linear Algebra will very much help you with this class. If off the top of your head you don't remember what the rank of a matrix is, or how to do Singular Value Decomposition, we recommend you review your linear algebra. The entire world of robotics is rich in linear algebra -- you will not regret investing time in mastering fundamentals!
- To brush up on linear algebra, the content and video lectures from Gilbert Strang's classic course, MIT 18.06 have helped many students in the past.
- If you are interested in the a more theoretical treatment, that is still very approachable, consider Linear Algebra Done Right by Sheldon Axler.
- Programming in Python
- If you are somewhat familiar with Python but would like to brush up on syntax, this tutorial from Stanford CS231n provides a good overview.
- If you are an absolute beginner with Python, Codecademy provides a friendly introduction.
- Although you will not need to know C++ for the class, you might be happy to know that the underlying software is written in C++, and is very suitable for use in mature engineering pipelines.
- Mathematical Optimization
- We will make some use of mathematical optimization, and hope to teach you most of what you need to know. But acquiring a background in the subject will help you deepen understanding. If you know the following acronyms, you are totally set: LP, QP, MIP, SDP.
- Video lectures on Convex Optimization by Stephen Boyd are an excellent resource, as is the reference textbook Convex Optimization by Boyd and Vandenberghe.
- Machine Learning
- Basic background in Machine Learning will help. 6.036 is a good introduction. There are also many great introductory classes online, Andrew Ng's is one.
- You will not need any prior robotics exposure to succeed in the class. If however you want to start absorbing fundamentals (frame transformations, manipulator equations, etc.) then Introduction to Robotics: Mechanics and Control by John Craig is a good reference. Modern Robotics is also free online and has excellent video lectures.