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HBO/WO

MBO

September 1, 2023

Practical: Presenting statistical data

Understand and demonstrate the data representation for AI and ML modelling. Apply a range of plotting techniques to visualise data. Be able to check for fairness, handle outliers and missing data.

Document

HCAIM Consortium

August 23, 2023

Lecture: Data Preparation and Exploration

To be able to chose the most suited data preparation method based on the case prepare data in practice (handle missing values, create new derived features) Data enrichment Ethical: anonymisation and problems with this (identification possible in indirect ways) - again, there should be some examples out there Imputation – mention that it can introduce bias and that this needs to be kept in mind New feature creation – loss of proper semantics Ethical: remove bias from the dataset Parallels and differences between sampling of data in statistics and acquisition of data (including big data) for ML and AI

Website

HCAIM Consortium

August 23, 2023

Tutorial: Understanding Data

Learner acquires demonstrable knowledge of data forms used in AI. Learner can talk about data using the right terminology (e.g., features, variables, observations). Learner knows the different data types and knows how to transform them (e.g., nominal, ordinal). Learner knows the most common measures for data description (e.g., mean, median, standard deviation) and knows how to calculate them. Learner acquires demonstrable knowledge of how data are described via measures and visualisation. Learner knows the most common graphs and knows how to pick a visualisation, matching the given data.

Website

HCAIM Consortium

August 23, 2023

Lecture: Understanding data

Learner acquires demonstrable knowledge of data forms used in AI. Learner can talk about data using the right terminology (e.g., features, variables, observations). Learner knows the different data types and knows how to transform them (e.g., nominal, ordinal). Learner knows the most common measures for data description (e.g., mean, median, standard deviation) and knows how to calculate them. Learner acquires demonstrable knowledge of how data are described via measures and visualisation. Learner knows the most common graphs and knows how to pick a visualisation, matching the given data.

Website

HCAIM Consortium

August 23, 2023

Practical: Common Roles and Cross Overs between Data Management and AI teams

To understand that there are many roles involved going from raw data to AI modelling Awareness of Ethics in the whole data pipeline Safeguard implementations for data

Website

HCAIM Consortium

August 23, 2023

Lecture: The Data Analysis Process

To be able to demonstrate knowledge of the data analysis process To understand differences between methodologies and standards

Website

HCAIM Consortium

January 25, 2023

Circular Research Data Course book

The theme, “Circular Research Data”, is inspired by the socio-economic transition we live through, moving from a linear to a circular model acknowledging sustainability. One of the barriers to research reproducibility is precisely this “linear” mindset. A significant share of the research output produced in the last decades has followed the linear model: 1) Take the data, 2) Analyze and publish it, 3) Dispose of the data. We have the responsibility to change into a circular model. In this week-long summer camp training which will take place between July 25-29,2022, you will look at real-world examples and learn the steps you need to take in your research to close the circle and achieve data sustainability following the FAIR principles of research data management. Link to the original event page: Circular Research Data

Website

Pedro V Hernandez-Serrano

August 23, 2023

Practical: Data Preparation and Exploration

To prove to be able to use different data preparation techniques is able to identify basic statistics of all features in a given dataset is able to calculate basic statistics per group

Website

HCAIM Consortium

September 17, 2024

Dynamic data processing: Recursive least-squares

This book is a follow-up on Adjustment theory. It extends the theory to the case of time-varying parameters with an emphasis on their recursive determination. Least-squares estimation will be the leading principle used. A least-squares solution is said to be recursive when the method of computation enables sequential, rather than batch, processing of the measurement data. The recursive equations enable the updating of parameter estimates for new observations without the need to store all past observations. Methods of recursive least-squares estimation are therefore particularly useful for applications in which the time-varying parameters need to be instantly determined. Important examples of such applications can be found in the fields of real-time kinematic positioning, navigation and guidance, or multivariate time series analysis. The goal of this book is therefore to convey the necessary knowledge to be able to process sequentially collected measurements for the purpose of estimating time-varying parameters. When determining time-varying parameters from sequentially collected measurement data, one can discriminate between three types of estimation problems: filtering, prediction and smoothing. Filtering aims at the determination of current parameter values, while smoothing and prediction aim at the determination of respectively past and future parameter values. The emphasis in this book will be on recursive least-squares filtering. The theory is worked out for the important case of linear(ized) models. The measurement-update and time-update equations of recursive least-squares are discussed in detail. Models with sequentially collected data, but time-invariant parameters are treated first. In this case only the measurement-update equations apply. State-space models for dynamic systems are discussed so as to include time-varying parameters. This includes their linearization and the construction of the state transition matrix. Elements from the theory of random functions are used to describe the propagation laws for linear dynamic systems. The theory is illustrated by means of many worked out examples. They are drawn from applications such as kinematic positioning, satellite orbit determination and inertial navigation.

Open (Access) Text Book

Peter Teunissen

March 18, 2026

Improving Health Care with Clinical Prediction Models

Clinical prediction models are increasingly used to support health care decisions, helping clinicians estimate disease risk, guide treatment choices, and tailor care to individual patients. At the same time, advances in data science and artificial intelligence have led to a rapid expansion of prediction modelling research. Yet despite this growth, only a small proportion of published models ever reach clinical practice. Improving Health Care with Clinical Prediction Models – From Idea to Impact shows how you can bridge this gap. The book guides readers through the full pathway of prediction modelling in health care: from defining a meaningful clinical problem and identifying existing models to developing, validating, evaluating, and implementing prediction model–based innovations. Combining methodological guidance with real-world clinical examples, the book explains not only how to build robust prediction models but also how to ensure they become useful tools in everyday care. Written in an accessible style and requiring only a basic understanding of statistical modelling, it provides students, researchers, and clinicians with a practical roadmap for turning prediction models into innovations that are useful, usable, and used. What this book helps you do This book takes you through the complete process of clinical prediction modelling, from the first idea for a model to its implementation in health care practice. Along the way, readers learn how to: Define a meaningful clinical problem and identify where prediction models can improve health care Find and critically evaluate existing prediction models before deciding to develop a new one Handle missing data using methods such as multiple imputation Develop and validate prediction models using established regression approaches Apply advanced regression and artificial intelligence methods for clinical prediction modelling Select models with real-world impact potential and translate them into practical decision tools Evaluate the impact of prediction model–based innovations using decision modelling and empirical studies Implement prediction model–based innovations in clinical practice and new health care settings

Open (Access) Text Book

Luc Smits, Sander van Kuijk, Laure Wynants