Wrap-up Computer Vision Spring 2019, Lecture 26

Slides:



Advertisements
Similar presentations
16421: Vision Sensors Lecture 6: Radiometry and Radiometric Calibration Instructor: S. Narasimhan Wean 5312, T-R 1:30pm – 2:50pm.
Advertisements

3D Computer Vision and Video Computing Review Midterm Review CSC I6716 Spring 2011 Prof. Zhigang Zhu
Advanced Computer Graphics CSE 190 [Spring 2015], Lecture 14 Ravi Ramamoorthi
Vision, Video and Virtual Reality Introduction Lecture 1 Objectives, Lectures and Project Topics CSC 59866CD Fall 2004 Zhigang Zhu, NAC 8/203A
Computing With Images: Outlook and applications
Computer Vision Dan Witzner Hansen Course web page:
Sebastian Thrun & Jana Kosecka CS223B Computer Vision, Winter 2007 Stanford CS223B Computer Vision, Winter 2007 Lecture 1 Course Overview Image Formation.
Introduction to Computer Vision CS223B, Winter 2005.
Computer Vision (CSE P576) Staff Prof: Steve Seitz TA: Jiun-Hung Chen Web Page
The University of Ontario CS 4487/9587 Algorithms for Image Analysis n Web page: Announcements, assignments, code samples/libraries,
Computer Vision Spring ,-685 Instructor: S. Narasimhan Wean Hall 5409 T-R 10:30am – 11:50am.
A Brief Overview of Computer Vision Jinxiang Chai.
CSE 473/573 Computer Vision and Image Processing (CVIP) Ifeoma Nwogu Lecture 35 – Review for midterm.
Advanced Computer Graphics (Spring 2013) CS 283, Lecture 15: Image-Based Rendering and Light Fields Ravi Ramamoorthi
CSCE 5013 Computer Vision Fall 2011 Prof. John Gauch
Introduction EE 520: Image Analysis & Computer Vision.
16421: Vision Sensors Lecture 7: High Dynamic Range Imaging Instructor: S. Narasimhan Wean 5312, T-R 1:30pm – 3:00pm.
CSE 581: Interactive Computer Graphics Spring 2012, UG 4 Tuesday, Thursday – 9:00AM – 10:18AM DL 0317 Raghu Machiraju Slides: Courtesy - Prof. Huamin Wang,
Computer Vision Why study Computer Vision? Images and movies are everywhere Fast-growing collection of useful applications –building representations.
Conceptual and Experimental Vision Introduction R.Bajcsy, S.Sastry and A.Yang Fall 2006.
Why is computer vision difficult?
Spring 2015 CSc 83020: 3D Photography Prof. Ioannis Stamos Mondays 4:15 – 6:15
Subterranean Sensing Research Overview 1. CMU Field Robotics Center Ultra-high density autonomous underground survey with FMCW Lidar on CaveCrawler robot.
Lec 22: Stereo CS4670 / 5670: Computer Vision Kavita Bala.
Computer Vision Spring ,-685 Instructor: S. Narasimhan Wean 5403 T-R 3:00pm – 4:20pm Lecture #16.
12/7/10 Looking Back, Moving Forward Computational Photography Derek Hoiem, University of Illinois Photo Credit Lee Cullivan.
MASKS © 2004 Invitation to 3D vision. MASKS © 2004 Invitation to 3D vision Lecture 1 Overview and Introduction.
CS332 Visual Processing Department of Computer Science Wellesley College CS 332 Visual Processing in Computer and Biological Vision Systems Overview of.
Lecture 8: Feature matching CS6670: Computer Vision Noah Snavely.
CSE 140: Computer Vision Camillo J. Taylor Assistant Professor CIS Dept, UPenn.
고급 컴퓨터 그래픽스 중앙대학교 컴퓨터공학부 손 봉 수. Course Overview Level : CSE graduate course No required text. We will use lecture notes and on-line materials This course.
Final Review Course web page: vision.cis.udel.edu/~cv May 21, 2003  Lecture 37.
Computer Vision, CS766 Staff Instructor: Li Zhang TA: Yu-Chi Lai
November 2, MIDTERM GRADE DISTRIBUTION
고급 컴퓨터 그래픽스 (Advanced Computer Graphics)
Local features: detection and description
Introduction to Computer Vision Ronen Basri, Michal Irani, Shimon Ullman Teaching Assistants Tal Amir, Sima Sabah, Netalee Efrat, Nati Ofir, Yuval Bahat,
MASKS © 2004 Invitation to 3D vision. MASKS © 2004 Invitation to 3D vision Lecture 1 Overview and Introduction.
Lecture 22: Structure from motion CS6670: Computer Vision Noah Snavely.
COS 429: Computer Vision Thanks to Chris Bregler.
Introduction Computational Photography Seminar: EECS 395/495
Advanced Computer Graphics
Advanced Computer Graphics
고급 컴퓨터 그래픽스 (Advanced Computer Graphics)
Advanced Image Processing
The design of smart glasses for VR applications The CU-GLASSES
Announcements Final is Thursday, March 20, 10:30-12:20pm
CS201 Lecture 02 Computer Vision: Image Formation and Basic Techniques
Instructor: Mircea Nicolescu
Two-view geometry Computer Vision Spring 2018, Lecture 10
Course Overview Juan Carlos Niebles and Ranjay Krishna
Sebastian Thrun, Stanford Rick Szeliski, Microsoft
Wrap-up Computer Vision Spring 2018, Lecture 28
Introduction to Computer Vision
Jia-Bin Huang Virginia Tech ECE 6554 Advanced Computer Vision
Multiple View Geometry in Computer Vision
Professor Sebastian Thrun CAs: Dan Maynes-Aminzade and Mitul Saha
RGB-D Image for Scene Recognition by Jiaqi Guo
Computer Vision (CSE 490CV, EE400B)
Announcements Review on Thurs Project 4 Extra office hour: Friday 4-5
Image processing and computer vision
Introduction to Computer Vision
CMSC 426: Image Processing (Computer Vision)
CAP 6412: Advanced Computer Vision
CSSE463: Image Recognition Day 16
Optical flow Computer Vision Spring 2019, Lecture 21
CS 332 Visual Processing in Computer and Biological Vision Systems
CSSE463: Image Recognition Day 16
Wrap-up and discussion
Course overview Lecture : Juan Carlos Niebles and Ranjay Krishna
Presentation transcript:

Wrap-up 16-385 Computer Vision Spring 2019, Lecture 26 http://www.cs.cmu.edu/~16385/

Course announcements Homework 7 is due on Sunday 5th. - You can use any of your remaining late days. - Any questions about homework 7? - How many of you have looked at/started/finished the homework? Office hours this week: - Yannis will have additional office hours on Thursday, 6 – 8 pm. - On Friday, Bruce and Yannis will switch office hours.

Class evaluation*s* – please take them! CMU’s Faculty Course Evaluations (FCE): https://cmu.smartevals.com/ 16-385 end-of-semester survey: Will be posted on Piazza. Please take both, super helpful for developing future offerings of the class. Thanks in advance!

Course overview Lectures 1 – 7 See also 18-793: Image and Video Processing Image processing. Geometry-based vision. Physics-based vision. Semantic vision. Dealing with motion. Lectures 7 – 12 See also 16-822: Geometry-based Methods in Vision Lectures 13 – 16 See also 16-823: Physics-based Methods in Vision See also 15-462: Computer Graphics See also 15-463: Computational Photography Lectures 17 – 20 See also 16-824: Vision Learning and Recognition See also 10-703: Deep Reinforcement Learning Lectures 21 – 24 See also 16-831: Statistical Techniques in Robotics See also 16-833: Robot Localization and Mapping

Image processing Fourier filtering

Image features

2D alignment

Camera and multi-view geometry

Stereo

Image formation and physics reflectance illumination shape Radiometry and image formation Photometric stereo Image processing pipeline Radiometric and color calibration

Object recognition

Convolutional Neural Networks

Optical flow and alignment

Tracking in videos

Things you should know how to do Detect lines (circles, shapes) in an image. Perform automatic image warping and basic AR. Reconstruct 3D scene structure from two images. Do photometric stereo and render simple images. Recognize objects using a bag-of-words model. Recognize objects using deep CNNs. Track objects in video.

Questions?

Do you plan on taking any other vision courses?

Which part of the class did you like the most?

Which part of the class did you like the least?

Any topics you wanted to learn more about?

Any topics you wanted to learn less about?

Would the class work better if we did learning first?

Which was your favorite homework?

Which was your least favorite homework?

How does homework difficulty compare to other classes?

Would it be better if homeworks were in Python?