Machine Learning in Precision Medicine (Sommersemester 2019)
Lecturer:
Prof. Dr. Christoph Lippert
(Digital Health - Machine Learning)
,
Jana Fehr
(Digital Health - Machine Learning)
,
Dr. rer. nat. Stefan Konigorski
(Digital Health - Machine Learning)
,
M.Sc. Remo Monti
(Digital Health - Machine Learning)
General Information
- Weekly Hours: 4
- Credits: 6
- Graded:
yes
- Enrolment Deadline: 01.04.2019 bis 26.04.2019
- Teaching Form: Lecture / Seminar
- Enrolment Type: Compulsory Elective Module
- Course Language: English
Programs, Module Groups & Modules
- SCAD: Scalable Computing and Algorithms for Digital Health
- HPI-SCAD-C Concepts and Methods
- SCAD: Scalable Computing and Algorithms for Digital Health
- HPI-SCAD-T Technologies and Tools
- SCAD: Scalable Computing and Algorithms for Digital Health
- HPI-SCAD-S Specialization
- APAD: Acquisition, Processing and Analysis of Health Data
- HPI-APAD-C Concepts and Methods
- APAD: Acquisition, Processing and Analysis of Health Data
- HPI-APAD-T Technologies and Tools
- APAD: Acquisition, Processing and Analysis of Health Data
- HPI-APAD-S Specialization
- OSIS: Operating Systems & Information Systems Technology
- HPI-OSIS-K Konzepte und Methoden
- OSIS: Operating Systems & Information Systems Technology
- HPI-OSIS-T Techniken und Werkzeuge
Description
This course is designed to give students an in-depth introduction to machine learning. The lectures and exercises are designed around biomedical use cases and will use real-world biomedical data to gain practical experience with machine learning models and algorithms. The course will start with an introduction to the basic concepts of machine learning and empirical data analysis, such as model fitting, selection and validation. During the second part of the course, we will discuss supervised machine learning, starting with linear models, to non-linear models, including deep neural networks and convolutional neural networks for medical imaging. During the third part of the course, we will discuss unsupervised learning, starting with clustering, to dimensionality reduction and latent variable models. While we will discuss machine learning in a biomedical context, the learned principles and algorithms are applicable to other fields as well.
Learning Objectives:
- Understand concepts, methods and algorithms in machine learning
- Ability to empirically analyze real-world data
- Ability to assess the quality and validity of a machine learning model for a given analysis
- Ability to select, develop, implement and apply appropriate machine learning models and algorithms for a given use case.
- Gain an introduction to biomedical use cases of machine learning, including clinical prediction problems, medical image analysis, and modeling of multi-omics data.
Course Syllabus and Schedule (Summer 2019)
Please note that the schedule is still preliminary and details are subject to change.
Date | Topic |
08/04/2019 | Introduction to Machine Learning in Medicine |
09/04/2019 | Linear Regression |
15/04/2019 | Regularization and Experimental Design |
16/04/2019 | Basis Functions |
22/04/2019 | Ostern |
23/04/2019 | Link Functions and Logistic Regression |
29/04/2019 | Linear regression revisited - Probabilistic Interpretation and Bayesian Linear regression |
30/04/2019 | Feed forward Neural Networks |
06/05/2019 | Back Propagation |
07/05/2019 | Stochastic Gradient Descent |
13/05/2019 | Convolutional Neural Networks |
14/05/2019 | Medical Imaging 1 |
20/05/2019 | Clustering and k-means |
21/05/2019 | Gaussian Mixture Models and the Expectation Maximization algorithm |
27/05/2019 | Principal Components Analysis |
28/05/2019 | Autoencoders |
03/06/2019 | Visualization of High-Dimensional Medical Data |
04/06/2019 | Latent Variable Models and missing data |
10/06/2019 | Pfingsten |
11/06/2019 | Expectation Maximization algorithm revisited |
17/06/2019 | Variational Inference |
18/06/2019 | Stochastic Variational Inference |
24/06/2019 | Variational Autoencoder |
25/06/2019 | Generative Adversarial Networks |
01/07/2019 | Generative Adversarial Networks |
02/07/2019 | Medical Imaging 2 |
08/07/2019 | |
09/07/2019 | Open Topics, Final Exam Preparation |
15/07/2019 | |
29/07/2019 | Final Exam |
| supervised learning |
| unsupervised learning |
Examination
The final grade is based 100% on the final written exam.
Processing of regular exercise sheets (every one to two weeks) is required for a Klausur approval.
Dates
- Lecture #1: Monday 15:15-16:45
- Lecture #2: Tuesday 9:15-10:45
- Place: Lecture Hall 2 (HPI Campus I / Hörsaalgebäude)
- Tutorials: Time and place will be arranged jointly with students during the first lecture.
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