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NTU

AI-Aided Data-Driven Study of Historical Parchments' Making, Degradation, and Origin

Nottingham Trent University School of Science & Technology
✓ Fully Funded 🎓 Analytical Chemistry 🎓 Bioinformatics machine learning cultural heritage proteomics historical parchments non-invasive imaging optical coherence tomography biocodicology reflectance spectroscopy

Explore how AI and advanced imaging can unlock secrets of historical parchments' origins and preservation. Develop data-driven tools to identify parchment species and assess degradation without damaging valuable manuscripts.

AI-generated overview

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Why This Research Matters

This research enables preservation of key historical documents by developing non-invasive, AI-driven tools to evaluate parchment origin, age, and degradation. It supports cultural heritage conservation, provides new dating methods, and reduces the need for invasive sampling, preserving delicate manuscripts for future study.

Parchment Degradation Machine Learning Optical Imaging Cultural Heritage Conservation Proteomics Analysis Biocodicology

Project Description

Project Overview

Parchments, made from treated animal skins and used as writing materials from the 4th to 15th centuries, hold crucial historical documents. Their primary component, collagen, degrades over time through processes like oxidation and hydrolysis. Identifying parchment species and manufacturing traits is key to understanding economic and historical contexts, supported by emerging disciplines like biocodicology. This project leverages non-invasive optical and hyperspectral imaging, alongside AI and machine learning, to non-destructively analyze parchments.

What You Will Do

The student will extend non-invasive imaging methods (reflectance, fluorescence hyperspectral imaging, optical coherence tomography) to gather micro- to macroscopic data sets on parchments. They will develop AI algorithms to interpret multimodal data to determine parchment species, age, manufacturing methods, degradation states, and provenance. Supporting proteomics analyses will verify AI findings. The project involves large-scale analysis of parchment collections from UK and Belgian archives, including atmospheric exposure variations within manuscripts.

Expected Outcomes

The project aims to deliver a comprehensive, data-driven workflow integrating multimodal imaging and AI analysis, enabling accurate identification and dating of parchments and evaluating their conservation status. It will yield improved understanding of historical parchment material science and support preservation strategies for cultural heritage documents.

Why This Matters

Understanding and preserving historical parchments safeguards vital written records of European civilization. The adoption of AI and non-invasive techniques revolutionizes heritage science by allowing extensive, sensitive analysis crucial for conservation and scholarly study without damaging precious documents.

Entry Requirements

A motivated student with a physical science or bioinformatics background and an interest in heritage science, including conservation and archaeological science.

How to Apply

Contact Professor Haida Liang at haida.liang@ntu.ac.uk or visit the applications page linked on the ISAAC Lab website. The studentship covers tuition fees and stipend and involves registration at Nottingham Trent University and University of Namur.

Eligibility

UK/Home
EU
International

Supervisor Profile

PH
Professor Haida Liang
Nottingham Trent University, School of Science & Technology

Professor Haida Liang specialises in applying optical sensing and AI techniques to cultural heritage and conservation science. Based at Nottingham Trent University, she leads interdisciplinary projects combining physics, machine learning, and heritage science to develop non-invasive analysis methods for historic materials. Her work advances understanding of artifact composition, degradation processes, and aids heritage preservation worldwide.

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