MSc · General Background · Skills Development

Fundamentals of AI and Machine Learning
for Byzantine Studies I

Postgraduate Programme — Level 7

10 ECTS Credits
3 hrs / week
English Language
Open to Erasmus
None Prerequisites

LEARNING OUTCOMES

Upon completion, students will be able to:

1)

Explain the main families of AI methods, including rule-based systems, machine learning, deep learning, and generative AI.

2)

Recognize the main types of data used in Byzantine Studies and describe why historical, textual, visual, spatial, and material evidence often resist simple computational treatment.

3)

Understand basic machine learning concepts such as training data, features, labels, models, prediction, classification, overfitting, and generalization.

4)

Interpret basic evaluation concepts such as accuracy, precision, recall, F1 score, false positives, and false negatives without needing to implement them mathematically.

5)

Identify common sources of uncertainty in Byzantine research data and explain how uncertainty should be documented.

6)

Critically assess AI outputs by asking questions about training data, assumptions, confidence, bias, provenance, and failure modes.

7)

Describe the role of digitisation, OCR, HTR, metadata, and research data management in AI-assisted Byzantine Studies.

8)

Design a small, realistic AI-assisted research plan for a Byzantine topic, including question, data source, potential method, risks, and verification strategy.

COURSE SYLLABUS

13 Modules

Week 01 | What is AI? A humanities-oriented introduction

AI as a family of methods, not a single technology. Rule-based systems, machine learning, deep learning, and generative AI explained through examples from Byzantine Studies.

Texts, manuscripts, inscriptions, seals, coins, images, objects, monuments, places, and people as research data. Structured vs unstructured data; born-digital vs digitised material.

Disputed dates, uncertain attributions, variant names, damaged sources, incomplete corpora, and contested identities. Why uncertainty is a scholarly feature, not merely a technical problem.

Training data, features, labels, models, classification, clustering, prediction, generalisation, and overfitting explained through humanities analogies.

Accuracy, precision, recall, F1, false positives, and false negatives. How to read simple evaluation tables and why high scores do not automatically mean scholarly reliability.

Cleaning, normalization, metadata, identifiers, data dictionaries, licensing, and provenance. Introduction to good research data habits for humanities projects.

Conceptual introduction to OCR and HTR. Why historical scripts, abbreviations, polytonic Greek, damaged manuscripts, and editorial conventions create difficulties.

A practical checklist for evaluating OCR transcriptions, entity lists, image labels, summaries, and classifications. Confidence, bias, hallucination, and domain mismatch.

What large language models can and cannot do. Acceptable support uses, verification workflows, citation checking, and transparent declaration of AI assistance.

From research question to data audit, method choice, pilot test, interpretation, and communication. When computation is useful and when it is not.

Overview of NLP, GIS, computer vision, knowledge graphs, mixed reality, and interactive applications.

Students develop a modest AI-assisted research plan: question, data source, tool/method, verification strategy, risks, and expected scholarly contribution.

Presentation of mini-project plans and collective reflection on what AI can responsibly contribute to Byzantine Studies.

ASSESSMENT

Student Evaluation

40%

Writtent Assignments

40%

Final Project

20%

Oral presentation and participation

Workload — ECTS Distribution

250 Hours Total

Lectures

39

Guided exercises / workshops

30

Written assignments / coursework

40

Project development (individual or group)

55

Study of bibliography and course material

40

Independent study

26

Preparation for presentation

20

Course Total

250

Recommended Bibliography

Suggested bibliography:

  • Mitchell, M. Artificial Intelligence: A Guide for Thinking Humans. Farrar, Straus and Giroux, 2019.
  • Russell, S. Human Compatible: Artificial Intelligence and the Problem of Control. Viking, 2019.
  • Kelleher, J. D. Deep Learning. MIT Press, 2019.
  • Karsdorp, F., Kestemont, M., and Riddell, A. Humanities Data Analysis: Case Studies with Python. Princeton University Press, 2021.
  • Flanders, J., and Jannidis, F. (eds.). The Shape of Data in Digital Humanities. Routledge, 2019.
  • Baca, M. (ed.). Introduction to Metadata. Getty Research Institute, selected chapters.
  • The Programming Historian. Selected beginner-friendly lessons on data literacy, OCR, text analysis, and digital humanities methods.
  • European Commission. Ethics Guidelines for Trustworthy AI, 2019.
  • UNESCO. Recommendation on the Ethics of Artificial Intelligence, 2021.

Related academic journals:

  • International Journal of Digital Humanities (Springer)
  • Journal on Computing and Cultural Heritage (ACM)
  • Digital Scholarship in the Humanities (Oxford University Press)
  • Journal of Open Humanities Data
  • Journal of Cultural Heritage
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