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2026-2027 / MQGE9008-1

Artificial Intelligence tools for Business Analytics

Duration

30h Th

Number of credits

 Master in business engineering, professional focus in digital business5 crédits 
 Master in business engineering, professional focus in Financial Engineering5 crédits 
 Master in business engineering, professional focus in Intrapreneurship and Management of Innovation Projects5 crédits 
 Master in business engineering, professional focus in sustainable performance management5 crédits 
 Master in business engineering, professional focus in Supply Chain Management and Business Analytics5 crédits 
 Master in business engineering, professional focus in science and technology5 crédits 
 Extra courses intended for exchange students (Erasmus, ...)5 crédits 

Lecturer

Cédric Heuchenne

Language(s) of instruction

English language

Organisation and examination

Teaching in the second semester

Schedule

Schedule online

Units courses prerequisite and corequisite

Prerequisite or corequisite units are presented within each program

Learning unit contents

The course presents various methods and tools of artificial intelligence and machine learning applied to business analytics problems, with an emphasis on their understanding, implementation, and critical evaluation.

The main topics covered are:

  • Anomaly detection: methods such as Support Vector Data Description (SVDD) and One-Class SVM, possibly applied to the residuals of other models to detect atypical behaviours, process failures, or potentially fraudulent situations.
  • Autoencoders and Variational Autoencoders (VAEs): learning representations and generating data, in particular for simulating alternative economic or financial scenarios.
  • Generative models: Generative Adversarial Networks (GANs) and diffusion models, in particular for generating and sharing synthetic or anonymised data.
  • Transformers and language models: BERT- and GPT-type architectures, representation and classification of textual data, embeddings and clustering, as well as applications to forecasting and other analytical problems in business.
  • Artificial intelligence platforms and tools: critical use of AI platforms and AutoML tools for implementing business analytics solutions.
  • Model interpretability and explainability: post-hoc methods such as SHAP and LIME, considered in relation to intrinsically interpretable models and to the importance of interpreting results in a managerial decision-making context.

Learning outcomes of the learning unit

By the end of the course, students will be able to critically use data, statistical methods, and artificial intelligence tools to address business analytics problems and support decision-making.

More specifically, students will be able to:

  • formulate a business problem as a problem that can be addressed through a data analytics or artificial intelligence approach;
  • identify, select, and use relevant data according to the objective pursued, taking into account data quality, limitations, and the context in which the data were generated;
  • identify and select appropriate analytical methods and tools among different statistical, machine learning, and artificial intelligence approaches, depending on the nature of the problem and the available data;
  • implement and evaluate analytical and machine learning methods on real or simulated data;
  • rigorously analyse and interpret results, assessing in particular their relevance, robustness, limitations, and associated uncertainty;
  • demonstrate critical thinking with regard to data, models, and results, in particular by identifying biases, assumptions, overfitting, and limitations to generalisation;
  • assess the interpretability of models and results, and distinguish between intrinsically interpretable approaches and post-hoc explainability methods;
  • visualise and effectively communicate results from an analysis, adapting their presentation to the context and needs of different audiences, including decision-makers;
  • critically assess the use of AI solutions in a business context, relating their technical performance to their relevance and value for the business problem under consideration.
The objective is therefore not merely to master a set of artificial intelligence methods, but to develop a comprehensive business analytics approach, ranging from problem formulation and data mobilisation to the critical analysis, interpretation, and communication of results in support of decision-making.

Prerequisite knowledge and skills

Foundations in constrained optimization, probability, and statistical inference. Equivalent to the content covered in the following courses: MATH0059-2 Mathematics for Business Engineers and STAT1208-2 Probability and Statistical Inference.

Planned learning activities and teaching methods

Blended learning


Further information:

Used methodology

A3. Analysis of a practical problem by each group of students (partially followed up by the teacher).


A4. Critical synthesis of searches, readings and/or practical applications achieved by each group of students. Each student presents his own results and then, each group discusses, compares the different methods and presents other possible obtained results.
During his talk, each group is invited to

1) clearly present the problem of interest in its context and the existing methods to solve it,

2) discuss those methods and justify the choice of one or several of them in specific cases.



Overview of the course agenda
 

The first weeks, the teacher presents the different problems of interest with the necessary corresponding theoretical basic knowledge. Then, students (in groups) receive a problem and try to understand it, on one side, with a personal bibliographic search (in agreement with their group -shared bibliographic search-) and on the other side, with the courses and/or discussions conducted the weeks after. The sessions are designed to both follow up each group in his work and provide a general understanding of the work achieved by the other groups. After some weeks, the students and the teacher meet to assess the progress of the work and define the remaining steps to achieve. Finally, the students prepare an oral presentation of their problem and write a report for the evaluations period that follows the course.



Decomposition of the student workload

A1 Lectures 24h

A3 Analysis of the problem 65h

A3 State of the progress, meetings with the teacher 10h

A4 Report 15h

A4 Presentation 6h

Mode of delivery (face to face, distance learning, hybrid learning)

Blended learning

Course materials and recommended or required readings

Platform(s) used for course materials:
- LOL@


Further information:

See videos, codes and documents on Lol@

Written work / report

Continuous assessment

Out-of-session test(s)


Further information:

Further information:

Evaluation tools, evaluation criterions and weighting

E4. Final report (20% of the final note, common evaluation)
The evaluation is based on the ability to clearly synthesize and criticize the results.


E4. Oral presentation (70% of the final note, 10% common)
1. Quality of the presentation:
quality of the slides (10%, common),
scientific methodology (20%) and quality of the explanations (20%).
Each student identifies and presents its own work.
2. Defence of the work: answers to the questions of the teacher (20%).


E4. Attending and discussing issues during the course, quality of asked questions (10%, individual evaluation)

Relative weighting of individual assessment: 70%

Evaluations agenda

The final report has to be sent to the teacher before the evaluations period that follows the course. The oral presentation is usually held if possible during the courses period.

Work placement(s)

Organisational remarks and main changes to the course

Teaching language: English

Contacts

Cédric HEUCHENNE, HEC Liège, N1a, local 309, email: C.Heuchenne@uliege.be

Association of one or more MOOCs