Matei Serban Pop

Mr. Matei Serban Pop

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Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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30 December 2024 in Applied Sciences
Verified
Journal Article
Open access
PDF file
Gianina ChiroscaGianina Chirosca
Gianina Chirosca
RRRoxana Radvan
Roxana Radvan
SMSilviu-George Musat
Silviu-George Musat
MPMatei Serban Pop
Matei Serban Pop
ACAlecsandru Chirosca
Alecsandru Chirosca
Modern computer vision algorithms allow researchers and art historians to search for artist-characteristic contour extraction from sketches, thus providing accurate input for artwork analysis, for possible assignments and classifications, and also for the identification of the specific stylistic features. We approach this challenging task with three machine learning algorithms and evaluate their performance on a small collection of images from five distinct artists. These algorithms aim to find the most appropriate artist for a sketch (or a contour of a sketch), with promising results that have a higher level of confidence (around 92%). Models start from common Faster R-CNN architectures, reinforcement learning, and vector extraction tools. The proposed tool provides a base for future improvements to create a tool that aids artwork evaluators.

15 August 2025 in Applied Sciences
Verified
Journal Article
Open access
PDF file
Gianina ChiroscaGianina Chirosca
Gianina Chirosca
RRRoxana Radvan
Roxana Radvan
MPMatei Serban Pop
Matei Serban Pop
ACAlecsandru Chirosca
Alecsandru Chirosca
This paper presents a deep learning-based system designed for generating, storing, and retrieving embeddings, specifically tailored for analyzing craquelure networks in paintings. Craquelure, the fine pattern of the craquelure network formed on a painting’s surface over time, is a unique “fingerprint” for artwork item authentication. The system utilizes a modified VGG19 backbone, which effectively balances computational efficiency with the ability to extract rich, multi-scale features from high-resolution grayscale images. By leveraging this architecture, the model captures global structural patterns and local texture information, which are essential for reliable analysis.