Fellows-in-Residence: Current year

Raphael Cahen

Presentation

CAHEN
CAHEN
Raphaël Cahen is a Post-doctoral Fellow as well as a visiting professor at the Vrije Universiteit Brussel. He has studied law, history and political sciences in Aix-en-Provence, Perugia and Munich and holds a Joint PhD in Law and political sciences from Aix-Marseille University and the LMU Munich (2014). 
He is doing research on intellectual history, as well as history of institutions and international law. 
His major publications include Friedrich Gentz (1764-1832): Penseur post-Lumières et acteur du nouvel ordre européen (Berlin, Boston 2017) as well as two special issues on the history of international law (Clio@Themis vol.18, JHIL vol. 22/1) and two edited books Les Professeurs allemands en Belgique. Circulation des savoirs juridiques et enseignement du droit (1817-1914), ed. R. Cahen, J. de Brouwer, F. Dhondt, M. Jottrand, Bruxelles, ASP, 2022 ; Joseph-Marie Portalis : diplomate, magistrat et législateur, ed. R. Cahen, N. Laurent-Bonne, Aix-en-Provence, PUAM, 2020. 
He is currently editing a book with Sean Morris, Pierre Allorant and Walter Badier on Law(s) and international relation(s) : actors, institutions and comparative legislations including 20 contributions from top researchers. 

Research project
International law is said to be a distinct profession with institutions and journals first in the 1870s. Nevertheless, from the French Revolution to the Franco-Prussian Wars (1870-1871), lawyers have initiated professional practices that related to the development of international law. They were involved in foreign offices, scientific academies, and universities, they wrote textbooks and articles and formed networks. 
This project aims to investigate the interaction between foreign offices and international lawyers as well as the link between political migration of lawyers and their implication in the making of international law. This research will therefore shed light on the discourses and processes leading to the institutionalization of international law. 
For the first time, it will also closely analyse the interactions between foreign offices and international law as well as the juridification of international affairs in the nineteenth century. 
To do so, this project will benefit from the use of unpublished primary sources coming for the foreign offices of France, Prussia (Germany), Austria, Belgium, Great-Britain, and Russia.

Aurica Farcas

Presentation
Aurica Farcas received her BA and a master degree (Summa Cum Laude) from "Gh. Asachi” Technical University of Iasi, Romania, in organic chemistry. In 1998, she obtained a PhD in the field of Polymer Chemistry (with honors). Then, A. Farcas received a postdoctoral positions at Fraunhofer Institute for Angewandte Polymerforschung, Golm-Germany (2001), the Virginia Polytechnic Institute & State University, Blacksburg-USA (2002-2003) and Heinrich Heine University Düsseldorf, Germany (2004).

Since 2006, A. Farcas has received by contest invited professor/collaborator at the University d’Evry Val d'Essonne, Evry-France; School of Engineering and Science, Jacobs University, Bremen-Germany; CY Cergy Paris Université and the London Centre for Nanotechnology-UK.
For her scientific work, A. Farcas has received multiple awards and recognitions, including the C. D. Nenitzescu Prize of the Romanian Academy, an Attendance Certificate in a Technology Transfer Training from Wirtschaftsforderung und Technologietransfer Schleswig Holstein Gmbh (WTSH) Kiel, Germany and the Scientist Research Award from Fraunhofer Institute for Angewandte Polymerforschung Golm, Germany.
She is a board member of Frontiers Chemistry-Supramolecular Chemistry. From the year 2007, she is International/National Expert Evaluator as well scientific peer reviewer on the theme at international journals with high impact factor.
Main-author on over 80 research articles in ISI journals, 2 books on the topic of Conjugated Polyrotaxanes, 6 book chapters, more than 40 nationally and internationally research grants, 21 laboratory technologies with 3 of them with industrial applications, 23 invited lectures and 3 patents.

Research project
The proposal «Semiconducting interlocked molecular architectures toward organic electronics (SIMAB) is aiming to develop new pseudopolyrotaxanes (PPs) and polyrotaxanes (PRs) supramolecuar architectures based on permodified cyclodextrin derivatives and cucurbit[n]urils (host molecules) with conjugated monomers/oligomers or polymers (guest molecules). The synthesis of such supramolecular structures is the most suitable and, sometimes, the only possible method for the synthesis of functional complex materials. The key issues proposed here illustrate our perspective on the future prospects and represent a key bottom-up strategy to build and process relatively soft functional materials.
During the stay at LPPI, new supramolecular structures will be synthesized and characterized in terms of their physico-chemical, optical and electronic properties, in order to assess their contribution to the field of molecular electronics.
At LAMBE these architectures will be evaluated for rapid, real-time exploration of their ability to form host-guest complexes with different types of molecules, such as amino acids or polypeptide, for low-cost protein sequencing applications. In addition, these supramolecular assemblies could be used as single-molecule molecular sensors or as new classes of biomimetic ion channels useful for broad applications in the field of nanobiotechnology.
It is believed that further research into supramolecular chemistry domain will continue to furnish excellent achievements in succession to the rapid progress, which could greatly benefit the field of organic electronic materials and push the frontiers of knowledge further.
Marta Giuca

Presentation
Marta Giuca is currently a fellow researcher for the EUTOPIA -SIF Program at the University Cergy Paris, LEJEP Laboratory. 
Since 2018, she has been a Ph.D. student in Criminal Law at the University of Catania, where she earned her Ph.D. (Doctor Europaeus Program) in October 2022, with a thesis on Artificial Intelligence and Criminal Liability. She was visiting researcher at the Max Plank Institute for the Study of Crime, Security, and Law of Freiburg and at the University Paris-1, Panthéon-Sorbonne (2021).
She graduated in 2014 from the University of Pavia with an interdisciplinary thesis on Administrative and Criminal Law (the powers of the criminal judge in administrative actions).  The following year she also obtained a diploma from the Institute for Advanced Studies (IUSS) of Pavia after completing her studies in social sciences and law.
In the years 2015-2016, she served an internship at the Court of Milan and since 2017 she is a lawyer.
Her research interests mainly involve how new technology impacts on criminal law. She studied how cryptocurrencies affect and transform economic crime, particularly money laundering, then she focused her investigation on liability concerning the production and usage of AI systems, seeking to identify areas of legislative intervention, balancing the need for the safeguards of legal goods, on the one hand, and the respect of the principles of individual responsibility and legality under criminal law, on the other hand. Since September 2023 she is involved in her research project: Crim-AI.

Research project
AI systems bring fundamental changes to our environments, some of which have an impact on criminal liability, due to the shift from the classic notion of “product”. Existing criminal liability rules may not always protect the legal goods, which may lead to a “responsibility gap”.
The research project aims to answer the fundamental question concerning the relationship between law and technological progress in order to guarantee the safeguarding of fundamental rights and values under criminal law in the light of the European principles for a trustworthy AI. Therefore, the research intends to highlight promising and challenging aspects of EU rules on AI, also in comparison with extra-EU legislative efforts to regulate AI, and aims at complementing them in the specific sector of criminal law.
The field of investigation is the negligence of AI systems’ manufacturer and user in case of an algorithmic error, defined as “artificial negligence”. In such a context, the project seeks to identify areas of legislative intervention, balancing the need for the safeguards of legal goods, on the one hand, and the respect of the principles of individual responsibility and legality under criminal law, on the other hand. 
These reflections are then tailored into two specific contexts of the use of AI systems: that of automated vehicles and AI in healthcare. 

EUTOPIA SIF
EUTOPIA SIF

John-Erik Hansson

Presentation
John-Erik Hansson is lecturer in British history at Université Paris Cité, researcher at the Laboratoire de Recherche sur les Cultures Anglophones (LARCA – UMR 8225), reviews editor of the Anarchist Studies journal, and co-editor of the Ideology, Theory, Practice blog. He specializes in the history of radical thought, cultures and movements in Britain from the 18th century to today, with a particular interest in anarchism. His PhD, which he defended in 2018 at the European University Institute (Florence), focused on the educational thought and children’s books of radical polymath William Godwin (1756-1836). Since then, he has turned to the history of anarchism in the 19th and 20th centuries. He has embarked on two new research projects. The first, entitled “Anarchist Histories in the UK (c. 1886-2000)”, is the project he will pursue at CY Advanced Studies. It seeks to examine the different ways in which British anarchists have constructed and reconstructed their own histories over the course of the 20th century. The second is a collaborative project on the global and connected history of anarchist intellectuals, which he co-leads with Matthew S. Adams (Loughborough University) and Sophie Scott-Brown (University of St Andrews).

Cristian Jimenez-Romero

Presentation
Dr. Cristian Jimenez Romero (CJR) will be joining the ETIS Laboratory at CYU Cergy Paris University in September 2023 as a Post-Doctoral
research fellow funded by the EUTOPIA Science and Innovation Fellowship Programme. Under the supervision of Professor Thanos Manos, CJR will be conducting research on "Hybrid Neural Networks".
CJR has a diverse background in computer science, neuroscience, and robotics, with several years of experience. From July 2020 to September 2023, he worked as a scientific software developer and postdoctoral researcher at the SimDataLab in the Juelich Supercomputing Centre (JSC) in Germany. His research focused on neurorobotics, swarm intelligence, and the simulation of spiking neural networks (SNNs) on high-performance computing infrastructure. This research was supported by funding from the Human Brain Project. Additionally, CJR worked as a co-supervisor for students at RWTH Aachen University, Germany.
From 2017 to early 2020, he worked as an academic assistant at the Centre for Complexity and Design in the Open University (OU), United Kingdom. Before that, he pursued his PhD at the OU from 2013 to 2017, focusing on developing a learning model to enhance the control of autonomous agents and robots through the utilization of SNNs.
Before embarking on his academic pursuits, CJR had a successful industry career as a software engineer at Nokia Siemens Networks. This experience equipped him with a solid foundation in software development and project management, further enhancing his skill set.

Research project
Hybrid Neural Networks: combining Artificial and Spiking Neural networks to enhance life-long continuous learning in autonomous agents and robots

Generalized continual learning in AI, which involves the ability to learn multiple different tasks, remains a challenge. Despite significant progress in solving specific problems, AI systems still struggle with transferring learned features to new tasks. As a result, these systems often excel in specific tasks but face difficulties in multi-task scenarios. This research project aims to enhance the continuous learning and adaptability of artificial autonomous systems in dynamic environments.

It combines artificial neural networks (ANNs) and spiking neural networks (SNNs) to create hybrid neural networks (HNNs). This integration enables the implementation of learning mechanisms in HNNs that closely resemble biological systems. Led by Dr. Cristian Jimenez Romero under the supervision of Professor Thanos Manos, the project incorporates current trends in AI, neuroscience, robotics, and complex dynamical systems. The host group, ETIS lab at CY Cergy Paris University, offers multidisciplinary expertise and infrastructure, including a computer cluster and robotic hardware. The co-host group, AI Systems Lab at the University of Warwick, contributes expertise in deep neural architectures, robotics, computer science, and mathematical modeling.

EUTOPIA SIF
EUTOPIA SIF

Paul Kapp

Presentation
Paul Hardin Kapp is Associate Professor of Architecture in the School of Architecture at the University of Notre Dame, specializing in historic  preservation and historic building conservation. Prior to his tenure at Notre Dame, he was Associate Professor of Architecture and Associate Director of the Collaborative for Cultural Heritage Management at the University of Illinois at Urbana-Champaign. He is the past chair of the National Council for Preservation Education. He is a 2005 Charles E. Peterson Fellow; a 2014 and a 2023 Fulbright Scholar; a 2017 James Marston Fitch Midcareer Fellow; a 2020 Franklin Fellow, U.S. Department of State; and a 2024 Guggenheim Fellow. His research focuses on how the built patrimony is conserved and restored. During his tenure at CY Advanced Studies, he will examine how Victor Hugo championed the conservation of important historic monuments in France. He has published three books; his latest book, “Heritage and Hoop Skirts: How Natchez Created the Old South,” (University Press of Mississippi) won the 2023 J.B. Jackson Book Prize; the 2023 University of Mary Washington Center for Historic Preservation Book Prize; the 2023 Fred B. Kniffen Award from the International Society for Landscape, Place, & Material Culture; and the 2023 Michael V.R. Thomason Book Award from the Gulf South Historical Association.Projet de recherche

Research project
Victor Hugo is celebrated as one of France’s greatest literary figures and has been recognized as someone who defined French identity in the nineteenth century. Early in his career as a writer, Hugo advocated for the conservation of France’s built patrimony, publishing numerous letters and editorials expressing his disdain for many “barbaric acts” on historic sites: the widespread pilfering of iconic monuments by English antiquarians and how the members of the clergy profited from it; the short-sighted Bourgeois, who he complained placed profit over culture; and the post-revolutionary sentiment that France’s built patrimony was an expression of the Ancien Régime. I argue that Hugo was one of the earliest advocates for historic building conservation; he influenced how the French reconsidered their cultural heritage after the French Revolution and the Napoleonic Wars and this resulted in the creation of the Commission Nationale des Monuments in 1837, the first ever governmental-led administration of built patrimony.
As a CY Advanced Studies Fellow-in-Residence, I will explore how Hugo’s advocacy and his aesthetic doctrine, that extolled ancient monuments and influenced French conservation, and determine if it is still relevant today. Through field visits, interviews with scholars and technicians, and research in Parisian archives, I will evaluate how popular sentiment, conveyed in literature, influenced French science-based conservation and if it continues to do so today. As a leading conservation scholar in the U.S., I believe that soon after the Notre Dame restoration and nearly one hundred and forty years after Hugo’s death, there should be an evaluation of how conservation of the built heritage is being regarded by people who experience the renewed monument.
Katarina Karlova

Presentation
Katarína Karľová was PhD student (2015-2019) and then Junior Researcher (2019-2023) at the Faculty of Science of Pavol Jozef Šafárik
University in Košice. Currently she is a postdoctoral fellow at CY Cergy Paris Université within the EUTOPIA-SIF project TANGENTE - Theoretical modeling of advanced quantum materials.  Her research interests are focused on quantum magnetic materials with the particular emphasis laid on highly frustrated Heisenberg spin systems. In spite of her relatively young age she is already a recognized researcher in this field of study as evidenced by her impressive list of publications involving 30 Current-Contents publications, to which more than 160 SCI citations were already recorded when excluding selfcitations. The quality of her scientific work is proven by numerous awards: 1st place (2020), 2nd place (2018) and 3rd place (2017, 2016) in the competition of young physicists (Slovak Physical Society), the best poster award at the StatPhys conference (Lviv, Ukraine, 2019), Rector's prize for outstanding research-scientific results (UPJŠ, 2019) and the honourable mention in Václav Votruba prize for the best dissertation thesis in theoretical physics (2021).

Research project
The project TANGENTE  (Theoretical modeling of advanced quantum materials) deals with unconventional quantum properties of frustrated Heisenberg spin systems, which are inspired by an intriguing class of novel quantum materials. The theoretical modeling of frustrated quantum materials will exploit the state-of-the-art analytical and numerical methods including among other matters the rigorous mapping transformations, the full exact diagonalization and the finite-temperature Lanczos method. The first part of the project is devoted to an investigation of a robustness of the quantum entanglement of the mixed-spin Heisenberg extended delta chain against rising temperature and magnetic field as indispensable requirement for quantum computing and processing of information. The model is inspired by the quantum spin-chain material [{CuMnL}{(NC)3W(bipy)(CN)3}]+, whereby our aim is to provide clarification of its static and dynamic properties along with theoretical interpretation of available magnetic data. In the second part of the project we will characterize in detail long-range entanglement of paradigmatic frustrated Heisenberg spin system with a quantum spin-liquid ground state, which provides promising platform for quantum computation and quantum information processing. This latter stage will be done in close collaboration with the experimental groups searching for advanced quantum spin-liquid materials.

EUTOPIA SIF
EUTOPIA SIF

Fumio Kurosaki
Presentation
Dr. Kurosaki is a professor at the Faculty of International Tourism Management at Toyo University. He has working experience in the railway company in 31 years in total. In 1988, he joined East Japan Railway Company (JR East). After working as a civil engineer in JR East, he was dispatched to the International Union of Railways (UIC) from 2003 to 2006. At that time, he had started research activities about organizational reform in the railway sector and completed his thesis titled “An Analysis of Vertical Separation of Railways.” Besides the work in JR East and academic outcomes, Dr. Kurosaki has rich experiences in overseas consulting works in the railway sector. In particular, he has implemented management advisory works regarding railway reform/management for various railways based on the contract with JICA, ADB, etc.
In March 2019, he moved to Toyo University and lectures about transport theory, railway management, and regional development.
Dr. Kurosaki has the following degrees and awards.
(Degrees)
Ph.D. from the University of Leeds (Institute for Transport Studies: ITS) in 2008.
MSc. from the University College of London (UCL) (Bartlett Graduate School) in 1993.
BSc. from the University of Kyoto (Civil Engineering Department) in 1988.
(Awards)
Continuing International Contribution Award of Japan Society of Civil Engineers (JSCE) in 2012
Award of the Japan Society of Transportation Economics (JSTE) (Article division) in 2010

Research project
Dr. Kurosaki will take a sabbatical leave from Toyo University in the Spring term of the Academic Year 2025. Utilizing 4 months during the sabbatical leave, he plans to promote the research works under the CY Advanced Studies Programme.
The organizational structure, railway operation and management types are largely different even within EU countries. Therefore, through the research project, Dr. Kurosaki plans to investigate the policies and the practical operation and management of railways in France and other EU countries. The research project will introduce practical implications to Japan, where the railway sector is worried about the decrease in the population and the number of passengers. The research will be conducted by interviewing several infrastructure managers and other concerned persons.
On the other hand, Japan has unique experiences that look interesting to the specialists in EU countries. For example, Japan has several large and medium-sized private railways that could construct railway facilities. They could earn considerable revenue from land development businesses, and good residential areas could be developed along the line. Accordingly, transit-oriented development (TOD) could be achieved in metropolitan areas of Japan. These experiences in Japan appear to include many lessons that can be applied to France and other EU countries. Thus, the mutual exchange of the lessons is expected to be implemented during the Programme period.
Salma Lahbabi

Presentation
Salma Lahbabi is an Associate Professor at ENSEM, Université Hassan II de Casablanca, and has recently been a visiting professor at CEREMADE, Université Paris-Dauphine. She holds a Ph.D. in mathematics from Cy Cergy Paris University, with research focused on quantum models for random materials. Her academic career includes positions at the Université Sidi Mohamed Ben Abdellah, Ecole Centrale Casablanca, University Mohamed VI Polytechnique, as well as a Post-doc at the University of Bath. Prof. Lahbabi has been a principal investigator for several high-profile research projects, including a multi-disciplinary program on phosphorene materials and devices funded by OCP group. Her work has also been supported by CNRS, with collaborations is France and Morocco. Her research interests cover mathematical physics themes, with a focus on electronic structure models and materials with defects and reduced symmetries. She has contributed to her field through publications in prestigious journals and has participated in organizing international workshops on electronic structure modeling.


Research project
The microscopic description of materials at a quantum level is of great importance in material sciences. Anderson localisation predicts absence of electronic transport in systems with disorder. It has been proved for linear random Schrödinger operators (1-particle) in different regimes: large disorder, low energy, 1D Anderson model and singular potentials. One objective of this project concerns localization properties of non-linear continuous models. Building on recent advances, the project will link discrete and continuous models to establish Anderson localization in continuous systems. Additionally, it will examine how magnetic fields affect localization in non-linear models. Another subject of interest concerns the study of transport properties in the linear model. We want to understand how the different definitions of transport coefficients relate to each other and ultimately exhibit a model that would explain macroscopic transport laws.

Aniket Mitra

Presentation
Aniket Mitra, a student of Geology has carried out his doctoral research-work in the field of palaeontology under the supervision of Prof. Kalyan
Halder in Presidency University of Kolkata, India. Systematic palaeontology of bivalves and palaeobiogeographic studies are his forte. He is interested in paleo-climate reconstruction and studies the effects of climatic perturbations on the migration and morphological adjustments of mollusca. Multi-proxy approach involving stable isotope geochemistry and biomarkers have been utilised by him for palaeoclimate reconstruction. He is a member of the Geological Society of America and The Malacological Society of London. He has received international travel grant awards from GSA, International Geological Congress and the Malacological Society for presenting his research in respective conferences. He has also worked as a research associate in IISER Mohali, India (December 2022- July 2023).

Research project
The present day atmosphere is under a serious threat due to unbridled usage of fossil fuels, CO2 emission and global warming. Studying similar climatic conditions from the past is one of the best way to mitigate the situation in future. An abrupt warming of Bartonian ( i.e.~ 40 Ma ago from now) age within a major cooling phase is comparable to the present situation. The effects of warming on the morphology and diversification of Bartonian  bivalves will be studied to parameterise the climate model.

The calcium carbonate shells of bivalves are excellent recorders of the palaeoclimatic conditions at very high resolution down to seasonal variability. Oysters, a cementing bivalve family spendtheir whole life in a fixed substratum. Thus, they can experience all the seasonality, temperature and environmental variation of a specific location throughout their life. Kutch, a paleoequatorial basin of western coast, India hosts a huge abundance of oysters from Bartonian age of late Eocene epoch. Stable isotope analysis will be adopted for identification of hyperthermal event(s). Cathodoluminescence, Raman Spectroscopy, micro X-rays fluorescence and scanning electron microscopy will be used for identification of seasonal growth pattern within the shells and (if) any morphological adjustment, associated with the global warming.

EUTOPIA SIF
EUTOPIA SIF

Mantra Mukim

Presentation
Mantra Mukim is Marie Skłodowska Curie Action Fellow (EUTOPIA-SIF) at CY Cergy Paris University. His research interests include global
modernism, critical theory, twentieth century Hindi literature, decolonial studies, continental philosophy, and the lyric. As an Early Career Fellow at the Institute of Advanced, University of Warwick (2022-23), he researched the Hindi poet Muktibodh, the long poem form, and the modernist archives in the Indian subcontinent, something he will build on during his time in CY Cergy. 

With Derek Attridge, he edited the book ‘Literature and Event: 21st Century Reformulations’ (New York: Routledge, 2021), and his research articles have appeared or are forthcoming in Journal of Modern Literature, Textual Practice, Interventions, Samuel Beckett Today, and Irish Studies Review. Funded by Chancellor’s scholarship, he completed his PhD in English & Comparative Literary Studies at the University of Warwick in 2022, focusing on Samuel Beckett’s poetry and the aesthetics of failure. He is currently preparing his first monograph based on this research.

Research project
Precarious Form: Life, Voice, and Work in Global Modernist Poetry (1945-2000)

This project focuses on Anglophone, Francophone, and Hindi modernist poetries that respond to questions of precarity and precariousness in the late twentieth century. It sets up a relationship between precarious living and writing, arguing that the historical changes, instabilities, and uncertainties that lead to global precariousness also shape modernist poetics. In studying issues of subjectivity, literary form, and poetic voice in a comparative framework, the project aims to illustrate the role of literature in not just representing or expressing precariousness but performing it and imagining a way beyond it. To this end, the project uses the term ‘Precarious Form’ to think of a multilingual modernist tradition that formally and thematically responds to the failures of a capitalist and Cartesian modernity.

EUTOPIA SIF
EUTOPIA SIF

Kontad Ounnunkad

Presentation

Ounnunkad
Ounnunkad
Kontad Ounnunkad is professor of Physical Chemistry at Chiang Mai University, Thailand. He received his Ph.D. in Chemistry from University of Wollongong, Australia in 2010. For his scientific achievements, Kontad received research fellowships from France Embassy in Thailand (2013), Matsumae International Foundation (2014) and British Council in Thailand (Newton Fund) (2016). Moreover, he was awarded Endeavour Research Fellowships from Australian Embassy (2015). Recently, he received Fellowship-in-Residence 2023/2024 and 2024/2025 from CY Cergy Paris Université. At Chiang Mai University, his research focuses on the development of new electrochemical sensors for clinical diagnoses of noncommunicable diseases (NCDs) and infectious diseases. He has also developed 2D materials for electrochemical devices, especially energy storage devices. Recently, he was on the list of the World’s Top 2% Scientists 2022/2023/2024 in the fields of Applied Physics and Analytical Chemistry, by Stanford University/Elsevier.

Research project

In the search for enhanced energy storage solutions, the development of innovative electrode structures holds great promise for improving both energy and power densities. Supercapacitors (SCs) stand at the forefront of this innovation due to their unique electrode architecture, which enhances the mass loading of active materials, maximizes surface areas, and facilitates faster ion diffusion, ensuring efficient electron transport and electrolyte access. These architectural advancements significantly enhance the electrochemical performance of SCs, offering the potential for devices with a groundbreaking combination of high energy and power densities. Among the most exciting developments in this field is the use of 2D materials, particularly as an alternative to traditional polymer binders. Unlike polymer binders, which often limit performance due to their insulating nature, 2D materials offer superior conductivity and flexibility, creating a more efficient pathway for electron and ion transport. This transition from polymer to 2D material-based binders plays a crucial role in reducing electrode impedance and enhancing overall SC performance. Our research focuses on optimizing these 2D material-based electrodes. These designs enable rapid diffusion and superior electrochemical reactions, contributing to improved capacitance and efficiency. Preliminary findings have shown that sandwich-structured electrodes using 2D materials and 2D material binder-based electrodes outperform conventional composite electrodes. Throughout this project, we aim to deepen our understanding of the relationship between the structure and properties of 2D nanomaterials.
Liang Peng
Presentation
Dr. Liang Peng has been the Thomas P Bowles chair professor of actuarial science in the Maurice R. Greenberg School of Risk Science in
the Robinson College of Business at Georgia State University since August 2014. He was a faculty in the School of Mathematics at Georgia Institute of Technology from January 2001 to August 2014. He was promoted to associate professor with tenure in 2006 and full professor in 2009. Dr. Peng has been the Ph.D. program coordinator from January 2018 to December 2020. Dr. Peng has published one book on heavy-tailed data analysis and more than 170 papers in various statistics, econometrics, and actuarial science journals. His research interests include Extreme Value Analysis, Econometrics, Risk Analytics, Actuarial Science, and Mutual Fund Management.
NSF, NIH, NSA, the Society of Actuaries, and the Simons Foundation have funded his research. He received his Ph.D. in 1998 from
Erasmus University Rotterdam in the Netherlands and became an elected fellow of the Institute of Mathematical Statistics in 2009 and the American Statistical Association in 2012. His editorial board services include an associate editor for the Journal of American Statistical Association (2017--2023), ASTIN Bulletin (2021 --2026), Statistica Sinica (2011--2020), Annals of Statistics (2007--2009), Extremes (2007 --2014), Scandinavian Journal of Statistics (2014--2020), Statistics and Probability Letters (2012--2013), Statistics and Its Interface (2010--2013), and Journal of Korean Statistical Society (2008--2013).

Research project
Vulnerabilities in financial markets, economics, the insurance industry, and the environment have become more and more severe. Rare events such as market crashes, earthquakes, hurricanes, and pandemics often lead to considerable losses to society. For monitoring natural disasters and forecasting epidemics, financial institutions and governmental organizations must invest in risk intelligence to clearly define, understand, measure, quantify, and manage their tolerance for and risk exposure. By developing and using sound analytics to measure, quantify, and forecast risk, business leaders and regulators can rely less on experience and more on systematic methodologies to manage risk well, evaluate its impact accurately, and make sound policy decisions.
This project aims to develop an analytical toolbox for applied researchers, regulators, and practitioners to conduct risk assessment and management in economics, finance, insurance, and environment.
Building a sound risk analytical toolbox is a long-term project and highly interdisciplinary. It involves developing new methodologies for dealing with emerging questions in economics, finance, insurance, and the environment. It also requires implementing widely employed techniques in risk analysis, maintaining the developed free statistical R package, and expanding the toolbox timely. This ambitious project requires not only solid knowledge of mathematical models, inference, uncertainty quantification, and computation but also needs deep understanding of application domains for solving questions in economics, finance, insurance, and the environment.
This long-term and ambitious research project is to build a toolbox for risk analytics by developing new methodologies and implementing widely used techniques into a free statistical R package.
The first step is to develop some novel methods for analyzing risk, which will lead to top journal publications in Statistics, Econometrics, Actuarial Science, and Risk Management. The second step is to develop a free statistical R package by implementing the new methods and some widely used ones in risk analysis. The third step is to maintain and expand this toolbox to make it more and more sound and practical. Some specific research objectives include modeling and forecasting extreme risk, backtest in monitoring risk, and statistical inference for optimal reinsurance.
Kristina Roney
Presentation
Kristina Roney is an Assistant Professor of French at Washington and Lee University in Lexington, Virginia. She holds obtained her Master’s
and Ph.D. degrees from University of Kansas. Prior to pursuing her graduate studies in French, she worked in private industry in the fields of finance and accounting. She holds a certified public accountant’s license (CPA), a Master’s of Science degree in Taxation from Arizona State University, and a Bachelor’s of Arts in French and International Careers from Lehigh University. Her professional experience spans all levels of accounting from Deloitte, to boutique accounting firms, and independent consulting. Her research studies the impact of the economy on culture and how situating literature within its historical economic context might influence one’s understanding of a text. More specifically, her focus is on early nineteenth-century French literature with an emphasis on Honoré de Balzac.
She is also the Financial Officer and lifetime member of the Society for French Historical Studies (SFHS) and a member of the following organizations: American Association of Teachers of French (AATF), Modern Language Association (MLA), Pi Delta Phi (National French Honor Society), La Société des Amis d’Honoré de Balzac et de la Maison de Balzac, Société des Études Romantiques et Dix-Neuvièmistes (SERD), and the Society of Dix-Neuvièmistes (SDN).

Research project
Her monograph project, Balzac, Society and the Birth of Modern Finance, extends and leverages the reliability of The Human Comedy as a gauge of French society during its transition from a traditional agricultural economy to a modern industrial economy. Situating this literature within economic history and the Industrial Revolution, she analyzes the birth of financial investing and describes a trajectory from tangible, agricultural products to increasingly intangible ones. She presents an innovative new approach to Honoré de Balzac’s literature that further complements research in economic history. Money and finance predominate Balzac’s Human Comedy, and yet prior research has primarily addressed such details from a symbolic or theoretical perspective. Balzac, Society and the Birth of Modern Finance tackles their position in his collection directly. Furthermore, the interdisciplinary nature of this project demonstrates how the assimilation of both humanistic and business-related perspectives renders a more comprehensive historical interpretation.
Arnab Saha

Presentation

Dr. Arnab Saha is a professor of Physics in the Department of Physics, University of Calcutta, India (2020 onwards). Formerly he was a professor in the Department of Physics,
University of Pune, India (2016-2020).
Prior to that, he has worked in Heinrich Heine University, Duesseldorf, Germany and Max Planck Institute for the Physics of Complex System (MPIPKS), Dresden, Germany as a post-doctoral researcher (2011-2016).
His research focuses on Active and Soft Condensed Matter System.

Research project
The primary area of the research that we intend to conduct within the frame of FIR program is – collective dynamics of active (self-propelling) particles in the presence of
non-reciprocal interactions. When the interactions are non-reciprocal, actions doe not have equal and opposite reactions. Non-reciprocal interactions are ubiquitous in active i.e. living systems. For example, the social interactions among the entities living in a group are often non-reciprocal. In microscopic world the interactions among micro-organisms can be non-reciprocal. Moreover, the molecular interactions among the sequential enzymes involved in metabolic processes can also be effectively non-reciprocal. In the presence of non-reciprocal interactions, non-trivial patterns and instabilities can emerge spontaneously in a collection of living entities. Here we will explore them numerically as well as analytically. Moreover, one may note that while interacting with each other and/or with the surrounding, the living entities transfer information locally. In our research program under FIR, we will also quantify the flow of information among the interacting living agents of a collective.
Dongsoo Shin

Presentation

SHIN
SHIN
Professor Dongsoo Shin is a professor of economics at Santa Clara University in California, USA.  His research covers several areas in microeconomics, including agency theory, applied game theory, organizational economics, public economics, and industrial organization.  Specific research topics include delegation and authority, dynamic incentives, optimal task design, organizational flexibility, price discrimination, public good provision, and price signaling, among others.  
Professor Shin’s articles have appeared in leading academic journals in microeconomics, organizational economics and industrial organization, such as RAND Journal of Economics, Journal of Industrial Economics, International Journal of Industrial Organization, and Journal of Economics and Management Strategy.  
In the past, Professor Shin has held visiting positions at leading academic institutes in Europe and South America, such as University of Mannheim, Humboldt University of Berlin, ESSEC Business School and THEMA, and FGV.  His research has been presented at numerous academic seminars, workshops, and conferences.  
At Santa Clara Univetsity, Professor Shin teaches courses in Microeconomics, Game Theory, and Mathematical Economics.

Research project
The research identifies the optimal structure of an organization with a top management and multiple subunits.  Each subunit has private information about its task environment.  Under centralized structure, the top management is the only party that aggregates all subunits’ information – all subunits report their information directly to the top management.  Under delegated structure, all subunits information is aggregated through the “chain of command” – one subunit reports its information to another subunit which in turn reports to another subunit, and so on.  We show that under centralized structure, although the top management has a tighter control over the subunits, the organization may not be able to fully utilize its aggregate information.  Under delegated structure, on the other hand, the organization can fully utilize its aggregate information, although the top management relinquishes some control to the subunits at upper levels of hierarchy.  According to our analyses, centralized structure is optimal if the subunits’ task environment is more likely to be good (low-cost environment).  Delegated structure, by contrast is optimal if the subunits’ task environment is more likely to be bad (high-cost environment).  

Mathias Winterhalter

Presentation
Mathias Winterhalter is Senior Professor of Biophysics at the Constructor University Bremen and Guest Scientist at the Center for Hybrid and Nanomaterials at the University of Hamburg, Germany. Previously he was Academic leader of Translocation a subproject within the Innovative Medicine Initiative Platform New Drugs for Bad Bugs (ND4BB). Translocation was a private-public partnership located at 28 sites worldwide funded by the European Union and the European Federation of Pharmaceutical Industry and Associates. This multinational and multidisciplinary consortium focused on how antibiotics enter Gram-negative bacteria and to determine limiting factors to overcome the complex barrier. Mathias Winterhalter coauthored >250 publication in the area of molecular transport in confined systems.
Currently his research focuses on how to detect bioactive molecules using solid state hybrid nanopores in collaboration with the LAMBE institute at the University Cergy-Pontoise. The goal is to combine the possibility in solid state physics to produce ultrathin material with fast electric read-out together with the possibility to engineer biological channel for biomolecule recognition.

Research project
Biological membranes are wonderful building blocks protecting the inside of a cell from the outside. The controlled exchange of small molecules is often regulated by selective membrane channels. To understand their function Patch-Clamp technique or the reconstitution of channels into artificial planar lipid bilayer has been used. About 30 years ago David Deamer in Santa Cruz suggested to apply this approach to sequence DNA. From this first suggestion a new field emerged called nanopore sensing with currently about 500-1,000 teams world-wide.
The LAMBE laboratory at CY Cergy Paris University and my team use ion current across confined systems (nanopore sensing) to obtain information on the interaction of membrane channels with solutes. During the following months we try in a joint effort.
On our side, we work on functional characterization of the outer membrane channel of Gram-negative bacteria with a particular focus on quantifying the uptake of antibiotics. For this, we produce or engineer bacterial outer membrane proteins and reconstitute them in planar lipid membranes. For example, we introduced a reversibly partial channel blocker to enhance the signal, allowing only ions to permeate. In contrast, larger molecules get trapped, leading to observable blocking of the ion current.
We also observed that zwitterionic compounds permeate at different speeds depending on the applied external voltage. Partially, this is due to interaction with a strong channel dipole located in the constriction zone but also caused by the so-called electroosmotic flow (EOF). The latter originates from an asymmetric flow caused by ion selectivity. Surprisingly, this flow is strong; thus, we may use the EOF to control permeating molecules. In collaboration with Yi-Tao Long (Nanjing University), we recently
applied this knowledge to distinguish D-and L amino acids in peptides.
Within this project, we combine the expertise of both teams to get a novel sensing tool. First, we will use the technique of dielectric breakdown available at Cergy to build a hybrid structure in SiN solid support (a first series has been done recently). I will bring the previously made series of modified porins, which we like to insert in a controlled manner in solid supports. We will further contribute our engineered membrane channel with enhanced electroosmotic flow. We expect the EOF will allow us to pull small peptides inside the channel despite the charge pattern and electrophoresis. In a combined action, we want to enhance the sensitivity of channel recording. Using solid-state nanopores will allow the use of higher concentrations of denaturing agents or more extreme pH in solution.
Sameera W.M.C
Presentation
Dr. W. M. C. Sameera is a senior lecturer at the University of Colombo. He obtained his PhD in Computational Chemistry from the University
of Glasgow in 2009. Following his doctorate, he held postdoctoral positions at the University of Oxford in 2010 and at the Institut Català d'Investigació Química in 2011. In 2013, he was awarded a Marie Curie ITN Fellowship at the University of Gothenburg, followed by a Japan Society for the Promotion of Science (JSPS) Research Fellowship at the Fukui Institute for Fundamental Chemistry in 2014. He then served as an assistant professor at Hokkaido University in 2016 before joining the University of Colombo in 2022. Currently, he is a visiting researcher at Hokkaido University and a visiting associate professor at Kyoto University. His research interests focus on developing and applying quantum mechanics/molecular mechanics (QM/MM) methods and unbiased reaction path search techniques. He published over 80 research papers.

Research project
The fundamental building blocks of molecules that lead to the chemical evolution in the Universe can be formed in the interstellar medium (ISM). The vast majority of research has been focused on radical-driven reactivity on cosmic ice dust grains at very low temperatures (e.g., 10 K) to explain the formation of complex organic molecules (COMs). However, my recent ab-initio computations showed the effectiveness of the OH anion diffusion through the proton hole transfer (PHT) mechanism. Thus, driving the OH anion into bulk ice increases the possibility of reacting with the molecules trapped in ice and opens the OH anion-driven reactivity to synthesize COMs in interstellar ice.
In the FIR program, I aim to develop a fundamental understanding of the chemical principles behind the anion-driven reactivity: A + OH (anion) + H2O → H-A-OH + OH (anion) in the ISM, where A is a molecule trapped in BULK ice (e.g., CO2, CO, H2CO, ..). In this generic reaction scheme, the OH anion acts as a catalyst to synthesize the COMs in ice. The OH anion-driven chemistry in the ISM has not been discovered yet, and this project proposal is the starting point. The state-of-the-art ab-initio computations, employing the multi-component artificial force-induced reaction (MC-AFIR) method, will be used to determine known, unknown, and unexpected anion-driven reaction mechanisms systematically. In parallel, experimental studies on anion-driven reactivity will be performed in collaboration with Prof. François Dulieu (host, LERMA, CY Cergy Paris Université). In the presence of both theoretical and experimental evidence, anion-driven reactivity in the ISM will be established.