Welcome to
RBE4744/RBE595-B01: Deep Learning for Perception course at
WPI. This course is taught by
Prof. Nitin J. Sanket. This course is offered in both an undergraduate version (RBE4744) and a graduate version (RBE595-B01). If you want to get graduate credit for the course, you have to be registered in the graduate version (RBE595-B01) and
NOT RBE4744. The Canvas page for the undergraduate version is
here and for the graduate version is
here.
Please sign up for
Piazza if you haven't done so already.
All the class announcements will be made through
Piazza. Please use
Piazza to contact TAs. Please do NOT contact the TA's or the Instructor via email unless it's an emergency, and do NOT contact the TA's on any social media platform such as Facebook or WhatsApp (please respect their privacy) regarding course content. If you want to have a chat about our research, feel free to reach out to Prof. Sanket after class.
All the student reports will be released publicly online to enable better learning experience for others. We will be also announce top three submissions for each announcement on the website. All the projects and homeworks are to be submitted using Canvas (
RBE4744,
RBE595-B01). If you find any errors/typo in the course github
website, please edit the markdown '.md' file and send a 'pull request'. If you don't know how to use pull request, please check out this
tutorial, alternatively post on
Piazza.
Project 0 (P0) is due on Oct 23, 2026 and you cannot use any late days for this project. The knowledge from P0 is a pre-requisite for the class.
What is this course about?
This course is about learning the mathematical foundations of deep learning applied to images. Perception stacks in state-of-the-art robots are rapidly adapting the latest advancements in deep learning due to their efficacy and high accuracy. These deep learning-based methods are also accelerable using parallelized hardware such as GPUs that can enable low latency operations of complex tasks such as real-time scene segmentation. You will learn to formulate, develop and implement of deep learning solutions for common computer vision problems in the context of robot perception. The course will cover advanced and state-of-the-art topics such as sim2real, adversarial attacks on neural networks, vision transformers and diffusion models. Additional topics explored in this course include image formation, linear classifiers, neural networks and backpropagation, Convolutional Neural Networks (CNNs), CNN architectures, data generation for sim2real, black- and white-box attacks on neural networks as applied to build state-of-the-art robotic stack. You will gain knowledge about the considerations required to enable a robotic system with the state-of-the-art deep learning toolkit. A unique aspect of this course is that the course is designed to balance theory with applications through projects.
Team
Teaching Assistant
he/him/his
Pre-requisities
Programming proficiency (preferably in Python 3), experience with Linux and completion of P0 is a hard pre-requisite. We assume that the students are proficient with basic Linear Algebra (MA2071/2072), calculus (MA1024) and probability (MA2621/2631). Experience working on images programmatically is a big plus.
Class Timings and Location
- Class Timings: Mondays and Thursdays, 10:00AM to 11:50AM.
- Class Location: Higgins Labs 154 (HL154).
Office Hours
- Chaitanya Gaddipati: Wednesdays and Fridays, 9:30AM to 11:30AM over Zoom.
- Prof. Nitin J. Sanket: ONLY for serious issues with Appointment, UH250E.
Expectations
This course is fast-paced and has high-expectations of time and effort commitment from students. The students are expected to complete projects on time since the concepts build on top of each other and it is very easy to fall behind in this course. Please understand the concepts well, ask questions, use
Piazza heavily and come to office hours. Help your peers out, but do not plagiarize.
Software Environment
We will use Python 3 as the programming platform throughout this course along with packages from OpenCV, PyTorch, TensorFlow, Numpy, Scikit and Matplotlib.
Assignments
All projects are to be done in groups of
THREE. However, we encourage you to discuss with your peers and not cheat. For clarifications, post a private post on
Piazza. For further details, read the
Collaboration Policy and Honor Code below. We are pro ChatGPT (and other LLMs) in this course as long as the chat prompts are included in the report and more than 30% assignment is not made by LLM prompts.
Both midterm exams are
oral exams on the projects submitted before them. The projects covered by a midterm will
ONLY be graded if you score more than 66.67% on that oral exam.
| Assignment Name With Link |
Deadline |
Grade Percentage |
| P0: Alohomora! |
Friday, Oct 23, 2026 at 11:59:59 PM (Individual Submissions) |
5 |
| P1: Nifty Neural Networks! |
Monday, Nov 02, 2026 at 11:59:59 PM (Group Submissions) |
23 |
| P2: Dramatic Data! |
Thursday, Nov 13, 2026 at 11:59:59 PM (Group Submissions) |
22 |
| Midterm Exam 1 (Oral) |
Monday, Nov 09, 2026 (Individual Submissions) |
Pass/Fail (>66.67% required, see note above) |
| P3: Neural Nemesis! |
Monday, Nov 30, 2026 at 11:59:59 PM (Group Submissions) |
25 |
| P4: Dreaming Data! |
Friday, Dec 11, 2026 at 09:00:00 AM (Group Submissions) |
25 |
| Midterm Exam 2 (Oral) |
Thursday, Dec 10, 2026 (Individual Submissions) |
Pass/Fail (>66.67% required, see note above) |
Class Slides
| Class Number |
Class Date |
Slides/Resources |
Class Topic(s) |
| 1 |
Oct 19 2026 |
Slides |
Introduction, Logistics And Sensors |
| 2 |
Oct 22 2026 |
Slides |
Multi Layer Perceptrons And Backpropagation |
| 3 |
Oct 26 2026 |
Slides |
NN Tuning, Image Filtering And Convolutional Neural Networks |
| 4 |
Oct 29 2026 |
Slides |
Advanced CNN Architectures And Image Warping |
| 5 |
Nov 02 2026 |
Slides |
Simulation for Data Generation And Sim2Real |
| 6 |
Nov 05 2026 |
Slides |
Object Detection And Segmentation |
| 7 |
Nov 09 2026 |
Slides |
Learned Depth: Monocular + Stereo And Midterm Exam 1 (Oral) |
| 8 |
Nov 12 2026 |
Slides |
Vision Transformers, Can We Trust Neural Networks? |
| 9 |
Nov 16 2026 |
|
Single Pixel Attacks, Patch Based Attacks |
| 10 |
Nov 19 2026 |
|
Generative Models: VAEs, GANs, Attacking GANs |
| 11 |
Nov 23 2026 |
|
Advanced Generative Models: Diffusion Models |
| 12 |
Nov 30 2026 |
|
Advanced Generative Models++: Multi-modal Generative Deep Learning |
| 13 |
Dec 03 2026 |
|
Deep Learning Is Not Enough! |
| 14 |
Dec 10 2026 |
|
Summary, Recap, Conclusions And Midterm Exam 2 (Oral) |
Syllabus
Rigid body transformations, attitude estimation, Bayesian filters, linear and unscented Kalman filters, camera models, Gaussian mixture models, image processing, visual feature detection and tracking, projective geometry, optical flow, stereopsis, quadrotor dynamics and controls, and structure from motion/SLAM.
Piazza and Canvas
If you haven't done so already, register yourself on
Piazza with your wpi email. We'll be using
Piazza for all announcements and discussions. Please use
Piazza to contact the instructor/TAs (Feel free to use private posts on
Piazza to contact me/TAs). Please do
NOT contact the instructor/TAs via email unless it's an emergency, and do
NOT contact the instructor/TAs on any social media platform such as Facebook or WhatsApp (please respect our privacy) regarding course content. If you want to have a chat about research, chat with Prof. Sanket after class.
All the assignments will be released on
this website page.
All the assignments are to be submitted using Canvas (
RBE4744,
RBE595-B01). If you find any errors/typo in the course website, please post on Piazza.
Submission Policy
If you find a discrepancy in due dates on the website or Canvas, please post on
Piazza as soon as possible. If no such posts are found, the earlier deadline will be used as the correct deadline. The submissions are made through Canvas (unless otherwise specified) with the name
pk_DirID.zip for individual projects (where
k is the assignment number, for e.g., for project 0, this would be
p0_DirID.zip). Here,
DirID is your directory ID, i.e., the first part of your wpi email address. For e.g., if your wpi email address is
ABCD@wpi.edu, then your
DirID is
ABCD. For group projects, the name would be
p0_groupGROUPNUMBER.zip (for project 0), where
GROUPNUMBER is the number of your group. For e.g., if you are submitting for project 2 and group number 4, then the name would be
p2_group4.zip. Refer to submission guidelines of the respective assignment for more details. Keep your submissions professional, grammatically correct without spelling mistakes. Do not use slangs and chat shorthands on your submissions.
You'll get 25% grade penalty for not following the submission guidelines.
Late Submission Policy
This course moves quickly, and concepts will build on top of each other. Therefore it's very important to keep up with the material. To encourage this, late assignments are penalized for 25% per day after the due date. But life is unpredictable; we all need a break sometimes. So, we allow you
four late days, to spend on any assignment(s) except the midterms and the first and final projects (P0, P4). You may submit an assignment late (after the due date) using a late day without any penalty. Think of a late day as pushing the deadline back by a day. So, to get full credit on a 2-days-late assignment, you'd need to use two late days. Late days can only be spent as full days (i.e., you can't use only half a late day for an assignment you submit 12 hrs late). If you are using a late day, mention it in the title of your submission as
"USING X LATE DAY(S)" and post a comment on Canvas about the usage of a late day. We expect you to keep track of number of late days you have remaining and notify us of usage of one or more late days. We will default for penalty if we don't see the mention of late day usage as a comment on Canvas on that particular assignment. Again,
If you are using a late day, mention it in the title of your submission as "USING X LATE DAY(S)".
Collaboration Policy and Honor Code
Collaboration is
HIGHLY encouraged, but one should know the difference between collaboration and cheating. Cheating is prohibited and will carry serious consequences. Cheating may be defined as using or attempting to use unauthorized assistance, material, or study aids in academic work or examinations. Some examples of cheating are: collaborating on an take-home exam or homework unless explicitly allowed; copying homework; handing in someone else's work as your own; and plagiarism. You are welcome to collaborate with your peers on
Piazza and in person. However it's important that the work you submit is an expression of your understanding, and not merely something you copied from a peer. So, we place strict limits on collaboration: Firstly, you must clearly cite your collaborators by name at the top of your report. This includes
Piazza posts reference. You may not share or copy each other's code. You can discuss how your code works, and the concepts it implements, but you can't just show someone your code. You may use free and publicly available sources, such as books, journal and conference publications, and web pages, as research material for your answers. (You will not lose points for using external sources.) You may not use any service that involves payment, and you must clearly and explicitly cite all outside sources and materials that you made use of. We consider the use of uncited external sources as portraying someone else's work as your own, and as such it is a violation of the University's policies on academic dishonesty. Instances will be dealt with harshly and typically result in a failing course grade. Unless otherwise specified, you should assume that that the UMD Code of Academic Integrity applies. Unless otherwise specified, you should assume that that the
WPI Code of Academic Integrity applies.
Reference Books
All concepts will be covered in class lecture, and in the lecture notes. However, we also recommend the following books as good references:
- Deep Learning Book, MIT Press, Ian Goodfellow, Yoshua Bengio, and Aaron Courville, 2016.
- Computer Vision: Algorithms and Applications, Springer, Richard Szeliski, 2010.
- Digital Image Processing, Prentice Hall, Rafael Gonzalez, and Richard Woods, 2008.
Furthermore, refer to the slides from courses in the
acknowledgement section.
Acknowledgements
This course is developed by being inspired by adapting some of the best parts of each of the courses at multiple universities and these resources are linked below and you are encouraged to look at their content to learn from them as well.
The goal of this course is to be the best undergraduate deep learning course in the world.
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