This day is an opportunity for architecture students from the 2nd year Bachelor to the 2nd year Master to attend presentations of the studio and teaching unit programmes, to enable them to choose their options and finalise their enrolments.There will be no online replay and the event is not recorded. The presentation documents are available on the dedicated pages:
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\r\nDesign studios and teaching units ↗︎
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\r\nRegistration dates ↗︎
In combinatorics and ergodic theory, the decomposition into structured and random objects has been successfully exploited to prove density results and refinements. In both fields, nilsystems are the model for structured configurations. Recently, Kra, Moreira, Richter, and Roberson used dynamics in nilsystems to provide a density version of Hindman's theorem. In this talk, we delve into further sumset consequences for these two extreme cases and provide some examples of applications.
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\r\nBio: Dr. Nguyen Dang Tung is an Assistant Professor at the College of Engineering and Computer Science at VinUniversity and serves as the Director of Career Service and Industry for the College. Since joining the university in August 2023, he has led the Integrated Electronics group (https://www.intorlab.com.vn), which develops devices and manufacturing technologies using organic materials to address environmental and societal challenges. Currently, the group focuses on developing multifunctional fibers and organic electrochemical devices. Notably, the group established the first thermal drawing tower for research in Vietnam and is pioneering the use of AI for materials research. Prior to VinUniversity, Dr. Nguyen-Dang studied and worked at Ecole Polytechnique of Paris (B.A. and M.Sc. in Materials Science), EPFL (PhD, Materials Science), Saint-Gobain Company (Research Engineer) and UCSB (in CPOS). His major scientific contributions include a method for creating micro- and nano-patterns on fibers and textiles, a framework for the conservation of shape during the design of functional fibers (at EPFL), and the development of the first dual-mode organic transistors—realized 50 years after the invention of their inorganic counterparts (at UCSB). For his research, Dr. Nguyen-Dang has received E-MRS Student Award (France), SNSF Fellowship (Switzerland) and Otis Williams Fellowship (U.S.A.)
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\r\nVinUniversity (https://vinuni.edu.vn) is an English-medium, non-profit university located in Hanoi, Vietnam. Established by Vingroup, the largest conglomerate in Vietnam, VinUni aspires to become a world-class institution. VinUniversity has transitioned into a research-focused university, centered around three main research pillars: Planet, People, and Prosperity.
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Macrocyclic peptides are promising molecules for targeting intracellular protein–protein interactions and other challenging biological targets. However, their poor membrane permeability often limits their biological and therapeutic applications. Understanding the structural factors that govern passive membrane permeation is therefore essential for the rational design of cell-permeable macrocyclic peptides.
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\r\nIn this seminar, I will present our recent efforts to understand and predict the membrane permeability of macrocyclic peptides using large-scale experimental data, conformational analysis, and machine learning. We aim to clarify how conformational flexibility, including molecular chameleonicity, influences membrane permeability.
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\r\nI will also introduce our ongoing efforts toward DNA-encoded macrocyclic N-methyl peptide libraries as a future platform for discovering functional intracellular binders.