Wrap-up Computer Vision Spring 2018, Lecture 28

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Presentation transcript:

Wrap-up 16-385 Computer Vision Spring 2018, Lecture 28 http://www.cs.cmu.edu/~16385/

Course announcements Homework 7 is due on Sunday 6th. - Any questions about homework 7? - How many of you have looked at/started/finished the homework? Everyone gets an extra free late day! - You can use it either on homework 7, or retroactively for some old homework to remove the late submission penalty.

Class evaluation*s* – please take them! CMU’s Faculty Course Evaluations (FCE): https://cmu.smartevals.com/ 16-385 end-of-semester survey: https://docs.google.com/forms/d/e/1FAIpQLSfcIxL17cqlRrZ4uQI-8-d6KMlh2-Q_bRZNtBaFzA1o5XLT1A/viewform 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 15-463: Computational Photography Lectures 17 – 21 See also 16-824: Vision Learning and Recognition Lectures 22 – 25 See also 16-831: RoboStats

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 Color and color processing Radiometric and color calibration

Object recognition

Convolutional Neural Networks

Face detection and recognition Eigenfaces Fisherfaces Viola-Jones detector

Optical flow and alignment

Tracking in videos

Segmentation

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?