Machine Learning for Computer Vision Institute of AI Faculty of Computer Science TU Dresden

Computer Vision Seminar (Summer Term 2024)

Overview

Schedule

Detailed schedule (OPAL)

Date Begin End Place Contents
2024-04-12 9:20 10:50 GÖR/0127/U Kick-off meeting
2024-04-19 9:20 10:50 GÖR/0127/U Topic selection, consultation
2024-04-26 9:20 10:50 GÖR/0127/U Topic selection, consultation
2024-05-03 9:20 10:50 GÖR/0127/U Topic selection, consultation
2024-05-10 9:20 10:50 virtual 1. High-Resolution Image Synthesis with Latent Diffusion Models (CV)
2. Highly accurate protein structure prediction with AlphaFold (ML)
2024-05-17 9:20 10:50 GÖR/0127/U 1. Clustering with t-SNE, provably (ML)
2. LMGP: Lifted Multicut Meets Geometry Projections for Multi-Camera Multi-Object Tracking (ML)
2024-05-31 9:20 10:50 GÖR/0127/U 1. Fixed set search applied to the clique partitioning problem (ML)
2. DeepCpG: Accurate prediction of single-cell DNA methylation states using deep learning (ML)
2024-06-07 9:20 10:50 GÖR/0127/U 1. Attention is All you Need (ML)
2. Correlation Clustering and Two-Edge-Connected Augmentation for Planar Graphs (ML)
2024-06-14 9:20 10:50 GÖR/0127/U 1. ClusterFuG: Clustering Fully Connected Graphs by Multicut (ML)
2. Fusion moves for correlation clustering (CV)
2024-06-21 9:20 10:50 virtual 1. Gaussian Process Regression (ML)
2. Handheld Multi-frame Super-resolution (CV)
2024-06-28 9:20 10:50 virtual 1. Structured Prediction with Partial Labelling through the Infimum Loss (ML)
2. 3D U-Net: Learning Dense Volumetric Segmentation from Sparse Annotation (CV)
2024-07-05 9:20 10:50 virtual 1. An Open Language Model For Mathematics (ML)
2. A Scalable Combinatorial Solver for Elastic Geometrically Consistent 3D Shape Matching (CV)
2024-07-12 9:20 10:50 t.b.d. 1. Differentiation of Blackbox Combinatorial Solvers (ML)
2. Discrete Cycle-Consistency Based Unsupervised Deep Graph Matching (ML)
3. t.b.d.
2024-07-19 9:20 10:50 t.b.d. 1. Exact Algorithms for the Quadratic Linear Ordering Problem (ML)
2. t.b.d.
3. t.b.d.

Contents

In this seminar, participating students will read, understand, prepare and present the contents of a research article or book chapter on a topic from the field of computer vision. The article or book chapter will be chosen by the student from the list below, or suggested by the student for approval in the beginning of the term. The preparation will include relevant foundational and related work. By attending at least seven presentations of their peers, students will get an overview of diverse topics in the field of computer vision.

Prerequisites

Prerequisites for taking this course are a solid foundational education in mathematics (esp. linear algebra and analysis) and theoretical computer science, as well as basics of machine learning and computer vision, comparable to the contents of the courses Machine Learning 1 and Computer Vision 1. For some of the suggested articles and book chapters, additional knowledge from the field of mathematical optimization is required.

Requirements

Requirements for passing this course are:

Suggested Research Articles

Segmentation

Tracking

Matching

Deep Learning

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