Machine and reinforcement learning with statistics

Empirical work in research and quality assurance helps to recognize correlations and correctly classify measurement data. In the course, you will also learn how machine learning generates artificial knowledge from experience and you will delve into reinforcement learning, in which software is optimized through trial and error.
  • Certificates: Statistics" certificate
    Machine Learning" certificate
    Reinforcement Learning" certificate
  • Examination: Practical project work with final presentations
  • Teaching Times: Full-time
    Monday to Friday from 8:30 a.m. to 3:35 p.m. (in weeks with public holidays from 8:30 a.m. to 5:10 p.m.)
  • Language of Instruction: German
  • Duration: 12 Weeks

Statistics

Statistical basics (approx. 6 days)

Measurement theory basics (population and sample, sample types, measurement and scale levels)

Univariate descriptive statistics (frequency distributions, central measures, measures of dispersion, standard value, histograms, bar charts, pie charts, line charts and box plots)

Bivariate descriptive statistics (measures of correlation, correlation coefficients, crosstabs, scatter plots and grouped bar charts)

Basics of inductive inferential statistics (probability distribution, normal distribution, mean value distribution, significance test, Fisher's null hypothesis test, effect size, parameter estimation, confidence intervals, error bar charts, power analyses and determining the optimum sample size)


Artificial intelligence (AI) in the work process

Presentation of specific AI technologies

and possible applications in the professional environment


Methods for comparing two groups (approx. 5 days)

z- and t-test for a sample (deviation from a specified value)

t-test for the mean difference between two independent/connected samples

Testing the effectiveness of actions, measures, interventions and other changes with t-tests (pretest-posttest designs with two groups)

Supporting significance tests (Anderson-Darling test, Ryan-Joiner test, Levene test, Bonnet test, significance test for correlations)

Nonparametric methods (Wilcoxon test, sign test, Mann-Whitney test)

Contingency analyses (binomial test, Fisher's exact test, chi-square test, cross-tabulations with measures of association)


Methods for comparing the means of several groups (approx. 5 days)

One- and two-factorial analysis of variance (simple and balanced ANOVA)

Multi-factorial analysis of variance (general linear model)

Fixed, random, crossed and nested factors

Multiple comparison methods (Tukey-HSD, Dunnett, Hsu-MCB, Games-Howell)

Interaction analysis (analysis of interaction effects)

Selectivity and power analysis for variance analyses


Introduction to Design of Experiments (DoE) (approx. 1 day)

Full and partial factorial experimental designs


Project work (approx. 3 days)

To consolidate the content learned

Presentation of the project results

Machine Learning

Introduction to Machine Learning (approx. 5 days)

Why machine learning?

Application examples

Supervised learning, unsupervised learning, partially supervised learning, reinforcement learning

Examples of data sets

Getting to know data

Training, validation and test data

Viewing data

Making predictions


Supervised learning (approx. 5 days)

Classification and regression

Generalization, overfitting and underfitting

Size of the data set

Algorithms for supervised learning

Linear models

Bayes classifiers

Decision trees

Random Forest

Gradient Boosting

k-nearest neighbors

Support Vector Machines

Conditional Random Field

Neural Networks and Deep Learning

Probabilities


Unsupervised learning (approx. 5 days)

Types of unsupervised learning

Preprocessing and scaling

Data transformations

Scaling training and test data

Dimension reduction

Feature engineering

Manifold learning

Principal component decomposition (PCA)

Non-negative matrix factorization (NMF)

Manifold learning with t-SNE

Cluster analysis

k-Means clustering

Agglomerative clustering

Hierarchical cluster analysis

DBSCAN

Cluster algorithms


Evaluation and improvement (approx. 2 days)

Model selection and model evaluation

Tuning the hyperparameters of an estimator

Cross-validation

Grid search

Evaluation metrics

Classification


Project work (approx. 3 days)

To consolidate the content learned

Presentation of the project results

Reinforcement Learning

Introduction to reinforcement learning (approx. 1 day)

Definition and basic concepts

Differences to other learning methods

Areas of application and examples


Markov Decision Processes (MDPs) (approx. 2 days)

Definition and properties of MDPs

Value functions and policy

Bellman equations

Dynamic Programming Approach


Q-Learning (approx. 2 days)

Definition and algorithm

Exploration vs. exploitation

Convergence and optimization properties

Applications in games, robotics and other areas


Deep reinforcement learning (approx. 3 days)

Deep Q-Learning

Deep Deterministic Policy Gradients (DDPG)

Actor Critical Methods

Policy Gradient Methods


Advanced topics (approx. 4 days)

Model-Based Reinforcement Learning

Multi-Agent Reinforcement Learning

Inverse Reinforcement Learning

Meta Reinforcement Learning


Practical applications (approx. 3 days)

Implementation of reinforcement learning algorithms

Application to selected problems and case studies

Evaluation and tuning of the algorithms


Summary and outlook (approx. 2 days)

Summary of the most important concepts and results

Challenges and future developments in reinforcement learning


Project work (approx. 3 days)

To consolidate the content learned

Presentation of the project results



Changes are possible. The course content is updated regularly.

The Python programming language is a prerequisite, previous knowledge of data analytics is recommended.

After this course, you will understand the basics of statistics, be able to process and evaluate data and present, explain and interpret statistical data analyses and results using graphics.

You also have relevant knowledge of machine learning. You know the most important reasons for using machine learning, areas of application and the various categories and concepts of machine learning. You will round off your knowledge with skills in evaluation and improvement.

You will also understand the basic concepts of reinforcement learning and know the differences to other learning methods. You are familiar with Markov decision processes, Q-learning and deep reinforcement learning and can apply advanced topics such as multi-agent and model-based reinforcement learning.

Computer science, mathematics, electrical engineering and people with a degree in (business) engineering

Machine learning is used in numerous areas of application: the independent development of suitable spam filters for the internet, the creation of precise forecasts of stock levels in supply chain management or the development of purchase forecasts for individual customers or customer segments in marketing. Employees who are qualified in the field of machine learning can be deployed across all industries and are therefore in high demand on the job market.

With reinforcement learning, you will also gain cross-industry knowledge that is often used in robotics and automation technology, but also in the automotive industry, e.g. for driver assistance functions, or in the development and optimization of autonomous transport systems.

A sound knowledge of statistics is a valuable additional qualification that is in great demand in industrial research and development, in drug development, in the supervision of medical studies, in finance and insurance, in information technology or in public administration.

Your meaningful certificate provides a detailed insight into the qualifications you have acquired and improves your career prospects.

Didactic concept

Your lecturers are highly qualified both professionally and didactically and will teach you from the first to the last day (no self-study system).

You will learn in effective small groups. The courses usually consist of 6 to 25 participants. The general lessons are supplemented by numerous practical exercises in all course modules. The practice phase is an important part of the course, as it is during this time that you process what you have just learned and gain confidence and routine in its application. The final section of the course involves a project, a case study or a final exam.

 

Virtual classroom alfaview®

Lessons take place using modern alfaview® video technology - either from the comfort of your own home or at our premises at Bildungszentrum. The entire course can see each other face-to-face via alfaview®, communicate with each other in lip-sync voice quality and work on joint projects. Of course, you can also see and talk to your connected trainers live at any time and you will be taught by your lecturers in real time for the entire duration of the course. The lessons are not e-learning, but real live face-to-face lessons via video technology.

 

The courses at alfatraining are funded by Agentur für Arbeit and are certified in accordance with the AZAV approval regulation. When submitting a Bildungsgutscheinor Aktivierungs- und Vermittlungsgutschein, the entire course costs are usually covered by your funding body.
Funding is also possible via Europäischen Sozialfonds (ESF), Deutsche Rentenversicherung (DRV) or regional funding programs. As a regular soldier, you have the option of attending further training courses via Berufsförderungsdienst (BFD). Companies can also have their employees qualified via funding from Agentur für Arbeit (Qualifizierungschancengesetz).

We will gladly advise you free of charge. 0800 3456-500 Mon. - Fri. from 8 am to 5 pm
free of charge from all German networks.
Contact
We will gladly advise you free of charge. 0800 3456-500 Mon. - Fri. from 8 am to 5 pm free of charge from all German networks.