Senior Lecturer Philippe Durand, Conservatoire National des Arts et Métiers, France
Speech Title: Attempt to predict violent meteoric
phenomena by topological and Neural approach.
Abstract: In
this presentation, we propose different methods to predict the
evolution of an exceptional storm disturbance, evolving in the form
of Arcus between 6am and 8am and having caused a lot of damage on
the west coast of Corsica on August 18, 2022. We compare the results
from different approaches. First, we test an approach from
topological data analysis (TDA) to characterize the exceptional
situation. This method is based on the analysis of persistence
diagrams. In a second approach, we combine different hybrid
architectures of classical LSTM-CNN neural network with or without
the addition of a quantum layer (QNN) which exploits quantum
circuits as well as more original architectural approaches, on a
series of Eumetstat satellite data from METEO France and C.A.P.E.
data. The prediction in the case of the quantum neural network gives
interesting results and more quickly....
Biography: Philippe Durand is Senior Lecturer and Assistant Professor in the Mathematics and Statistics Department of the National Conservatory of Arts and Crafts in the Mathematical and Numerical Modeling Department (M2N), he works on the interaction between mathematical engineering and the theoretical tools of mathematics including usage has been increasing since the introduction of modern mathematics in the early sixties. He is interested in the mathematization of gauge theories in physics and string theory, he also works on tensor analysis applied to networks as well as the application of topological and statistical methods to image processing. In image processing, he used remote sensing images and especially radar images, he invested different methods of pattern recognition, and in particular the tools of mathematical morphology for the extraction of texture information. Currently I am focusing on the use of topological data analysis and different approaches to applying classical or quantum neural networks to image processing. He published his results in various journals of mathematical engineering, and various proceedings of image processing conferences.
Dr. Yanglong Lu, The
Hong Kong University of Science and Technology, Hong Kong, China
Speech Title: Imaging techniques in metal additive manufacturing
process monitoring and control
Abstract: Metal additive
manufacturing (MAM) has transformed the production of complex,
high-performance components across industries such as aerospace,
automotive, and healthcare. However, achieving consistent quality
poses a significant challenge due to the process's inherent
complexity and susceptibility to defects. Recent advancements in
machine learning (ML), particularly when combined with image-based
monitoring and control, hold great promise for addressing these
issues by enabling real-time defect detection, process optimization,
and adaptive control. By leveraging techniques such as deep learning
and computer vision, ML can extract valuable insights from the vast
amounts of image data generated during MAM processes. This
capability allows for the precise identification of defects like
porosity, cracking, and thermal distortions, while also facilitating
the prediction of anomalies and the optimization of critical process
parameters such as laser power, scanning speed, and feed rate. These
innovations pave the way for closed-loop control systems that can
dynamically adjust process conditions, thereby reducing defects,
enhancing part quality, and improving overall process stability.
However, significant challenges remain, including the need for
high-quality labeled datasets, computationally efficient algorithms,
and robust generalization across diverse materials and geometries.
To overcome these obstacles, it is essential to integrate domain
expertise, physics-based models, and advanced ML techniques, along
with the development of standardized datasets and evaluation
protocols. This presentation will explore how ML is integrating
imaging techniques to advance MAM manufacturing systems.
Biography: Prof. Lu currently serves as an Assistant Professor in
the Department of Mechanical and Aerospace Engineering at the Hong
Kong University of Science and Technology. He obtained his
Bachelor's and Doctoral degrees in Mechanical Engineering from the
Georgia Institute of Technology in 2016 and 2020, respectively.
Following that, he worked as a Postdoctoral Researcher at the
University of Michigan, Ann Arbor, for one year. His research
focuses on additive manufacturing process monitoring, multiphysics
field simulation, machine fault diagnosis, and structural
optimization. He has published about 40 research papers in renowned
international journals and conferences and has filed three US
patents. He has served as a Session Chair at well-known
international academic conferences such as ASME and IISE. He has
received several awards, including the Best Doctoral Dissertation
Award from ASME, finalist in the 2023 US National Science Foundation
Manufacturing Blue Sky Competition, the Postdoctoral Association
Conference Award from the University of Michigan, and the Poster
Competition Award from ASME Manufacturing and Lifecycle Design
Conference, among others. Currently, he is leading projects funded
by University Grants Committee (Hong Kong), Innovation and
Technology Commission (Hong Kong), and the Hong Kong University of
Science and Technology-Industry Collaboration Center, among others.
Dr. Sergii Khlamov, Kharkiv National University of Radio Electornics, Ukraine
Speech Title: Astronomical Image Segmentation in
Computer Vision for Automated Object Detection and Classification
Abstract: Automated analysis of astronomical images has become
increasingly important due to the growing volume of data generated
by modern sky surveys and observatories. This paper presents an
image segmentation approach designed to improve the automated
detection and classification of objects in astronomical frames. The
approach combines classical image processing and modern computer
vision techniques to isolate and characterize objects of interest,
even in the presence of noise, telescope aberrations, low contrast,
or overlapping sources commonly found in wide-field images captured
by charge-coupled device (CCD) cameras. The segmentation pipeline
employs adaptive thresholding, background subtraction, and
morphological filtering to enhance the visibility of both point-like
and extended sources. Following segmentation, detected objects are
classified based on photometric intensity profiles, shape
descriptors, and spatial distribution features. This classification
process enables the differentiation between various imaging
artifacts and celestial objects, including stars, galaxies, small
Solar System objects (SSOs), such as asteroids, comets, and even
artificial satellites. The paper describes the modern features for
astronomical image processing implemented in the Lemur software
within the scope of the Collection Light Technology (CoLiTec)
project (https://colitec.space). The Lemur software is designed to
perform a sequence of the following main steps: pre-processing
(astronomical information collection -> worst data rejection ->
useful data extraction -> data mining -> classification ->
background alignment -> brightness equalization), image processing
(segmentation -> typical form analysis -> recognition patterns
applying -> detection of the object’s image -> astrometry ->
photometry -> objects identification -> tracks detection), knowledge
discovery (SSOs or artificial satellites to be discovered, tracks
parameters for the investigation, light curves of the variable
stars, scientific reports in the international formats). The Lemur
software has facilitated over 1,700 discoveries of asteroids,
including 5 NEOs, 21 Trojan asteroids of Jupiter, and 1 Centaur. In
total, it has been used in about 800,000 observations, during which
five comets were discovered.
Biography: Dr. Sergii Khlamov holds a Ph.D, MSc and BSc degrees with honors at the Kharkiv National University of Radio Electronics, Ukraine, where continues working. The Ph.D dissertation title was "Computational data processing methods for detecting objects with near-zero apparent motion" of the specialty 01.05.02 "Mathematical modeling and computational methods". Dr. Khlamov's research focuses on several areas, including computational methods, mathematical modeling (statistical and in situ), image recognition, image filtering, image processing, machine/computer vision, observational astronomy, computer science, big data and data science, data mining, knowledge discovery in databases, machine learning, internet of things, artificial intelligence, etc. Since 2014 Dr. Sergii Khlamov is a senior researcher of the Collection Light Technology (CoLiTec) project and the developer of the Lemur software for detecting the moving space objects (asteroids/satellites) in a series of astronomical frames. Also, Dr. Khlamov has more than 12 years of experience in Test Automation and Quality Assurance in the different top IT companies. Dr. Sergii Khlamov has up to 200 national and international publications, including 11 monographs, 23 patents. Currently he is a scientific supervisor of the Ukrainian project of fundamental scientific research “Development of computational methods for detecting objects with near-zero and locally constant motion by optical electronic devices” #0124U000259 in 2024-2026 years.
Abhishek Shukla, Syracuse University, NY, USA
Biography: Abhishek Shukla is a well-established
Principal Software Engineer with over 16 years of stints in the
technology world. He did his Master's from Syracuse University, New
York, USA. In fact, over these years, Abhishek has contributed
immensely to the field of AI, ML, and Software Engineering by
authoring 19 scholarly articles. Apart from research, Abhishek has
contributed to more than 100 conferences as a technical program
committee member, reviewer, keynote speaker, and advisory board
member. His dedication and expertise have been recognized by the
Indian Achievers' Forum, which honored him with the Outstanding
Professional Achievement & Contribution towards Nation Building 2024
award IAF INDIA. The career path for Abhishek includes stints in
India, South Korea, and the USA; his versatility fits all kinds of
professional environments. He has demonstrated outstanding
contributions toward AI and ML for e-commerce applications-features
that put him in a league of leadership within global technologies.
Currently, Abhishek continues to drive innovation and excellence in
technology, integrating wide experiences and an academic foundation
into furthering the fields of AI, ML, and Software Engineering.
Speech Title: Advanced Image Processing Techniques in Medical
Imaging-Development of Diagnostic Precision
Abstract:
Integration of advanced image processing techniques in medical
imaging has considerably enhanced diagnostic accuracy and quality of
patient care. This presentation would discuss state-of-the-art
methodologies including but not limited to fast deconvolution of
images, fusion of multiple views, and cell nuclei segmentation that
enhance the contrast and resolution of optical microscope images.
These will allow clinicians to have better visualizations of
anatomical structures for informed clinical decisions. Further
discussion will be on the computational challenges involved in the
processing of big datasets and the building of efficient software
pipelines to overcome them. The latest advances in medical image
processing and their practical applications in improving diagnostic
workflows will be shared with the participants.