BEGIN:VCALENDAR PRODID:-//eluceo/ical//2.0/EN VERSION:2.0 CALSCALE:GREGORIAN BEGIN:VEVENT UID:d9f9e62ad3211b2b6a43db82157b14c2 DTSTAMP:20260819T080913Z SUMMARY:PhD Defence: Influence of impurities and additives on the combustio n of micron-sized iron particles: Experimental and numerical approach by Z akarie BRUYR (TFL) DESCRIPTION:Future energy systems require efficient and safe storage and tr ansport solutions to integrate intermittent renewable energy sources. Iron powder is a promising energy carrier because it is abundant\, safe\, inex pensive\, and recyclable: after combustion\, iron oxides can be reduced ba ck to metallic iron using renewable energy\, closing a sustainable energy cycle.This thesis investigates the combustion of iron particles and the in fluence of impurities on their behaviour. Single-particle experiments were conducted in an electrodynamic levitator using different powder compositi ons.For pure Fe particles\, results revealed the coexistence of liquid iro n and iron oxide phases at the particle surface during combustion. They al so identified hydrogen\, originating from hydroxide layers formed during s torage\, as a key contributor to micro-explosions.Beyond high-purity iron powders\, impure iron powders were also tested. Metallic impurities such a s aluminum and silicon significantly modify combustion behaviour by alteri ng particle morphology\, oxidation rate\, evaporation dynamics\, and ignit ion temperature. Oxide impurities have a more limited effect but can still influence combustion mechanisms and oxide formation. Overall\, the result s demonstrate that impure iron powders can ignite and fully oxidize in the liquid state\, supporting their potential use as sustainable metal fuels and highlighting the need for burner designs adapted to variable feedstock quality.Membres du jury :Prof. Francesco Contino \; (UCLouvain)(Promo teur)Prof. Paul Fisette \; (UCLouvain) (Président)Prof. Pascal Jacque s \; (UCLouvain) (Secrétaire)Prof. Fabien Halter (CNRS Orléans) (Co- promoteur) \;Dr. Laurine Choisez (UCLouvain)Dr. XiaoCheng Mi (TU Eindh oven)Dr. Arne Scholtissek (TU Darmstadt)Soutenance publique également via le lien (TEAMS) : \;https://teams.microsoft.com/meet/31436901782842?p =vA5eJVIXn06nwytoqI \; URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260917T163000 DTEND;TZID=Europe/Brussels:20260917T183000 LOCATION:Place Ste Barbe 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:c338a4fe2dadb7c64344cb6deddff345 DTSTAMP:20260819T080913Z SUMMARY:PhD Defence: Processing and characterization of dissimilar titanium - aluminum welds joined by Friction Melt Bonding by Sanjay Channappa KRIS HNAMURTHY (IMAP) DESCRIPTION:The increasing demand for lightweight structures in the aerospa ce industry\, driven by fuel-efficiency and sustainability requirements\, has intensified interest in dissimilar material systems such as titanium - aluminum alloys. These combinations offer high specific strength and corr osion resistance but remain difficult to join using conventional fusion we lding because of their dissimilar physical properties and the formation of brittle intermetallic compounds (IMCs)\, residual stresses\, and heat-aff ected zone softening. Solid-state welding processes provide a promising al ternative\, although their effects on joint integrity and long-term perfor mance are not yet fully understood.This thesis advances the understanding of dissimilar Ti/Al joints produced by a modified semi-solid-state Frictio n Melt Bonding (FMB) process through microstructural\, mechanical\, residu al stress\, and corrosion investigations. The evolution of weld microstruc ture and mechanical behavior was characterized\, while residual stresses w ere quantified using large-scale diffraction techniques and compared with Refill Friction Stir Spot Welding (RFSSW). The influence of IMC thickness was examined through post-weld heat treatment\, establishing its relations hip with local mechanical properties\, residual stress\, and joint strengt h. Finally\, localized electrochemical techniques were employed to evaluat e the galvanic corrosion behavior of FMB Ti/Al joints and the role of IMC evolution. The findings provide new insights into the relationships betwee n processing\, interfacial microstructure\, residual stress\, and the resu lting mechanical and corrosion performance of dissimilar Ti/Al joints.&nbs p\;Membres du jury :Prof. Aude Simar (UCLouvain)(Promoteur)Prof. Renaud Ro nsse \;(UCLouvain) (Président)Prof. Pascal Jacques \;(UCLouvain) (Secrétaire)Prof. Sylvain Dancette (INSA Lyon)Prof. Eric Charkaluk (Ecole Polytechnique Paris)Dr. Thaneshan Sapanathan (Curtin University\, Perth)S outenance publique accessible par TEAMShttps://teams.microsoft.com/meet/31 0100664978864?p=KggYj10HHWgWLwBePg URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260821T161500 DTEND;TZID=Europe/Brussels:20260821T181500 LOCATION:Place Ste Barbe 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:93746f1d7390e29e36f03e9ebcb425d9 DTSTAMP:20260819T080913Z SUMMARY:PhD Defense : « Design\, control et validation préliminaire d'une prothèse externe de hanche » par Louis DEVILLEZ (MEED) DESCRIPTION:La désarticulation de hanche et l'hémipelvectomie sont des am putations où l'entièreté de jambe est retirée. Ces interventions rares et mutilantes ne permettent qu'à une minorité de patients de marcher av ec une prothèse\, au prix d'un coût métabolique élevé et d'une asymé trie importante de la marche. Si les prothèses actives de cheville et de genou ont connu des avancées remarquables\, l'articulation de la hanche e st restée largement inexplorée\, en raison de contraintes mécaniques sp écifiques et de l'absence de signaux volontaires issus du membre manquant .Cette thèse aborde ces défis à travers la conception et le contrôle d 'une prothèse de hanche active\, développée du concept mécanique jusqu 'aux tests sur utilisateur. Sur le plan mécanique\, une nouvelle articula tion prothétique est introduite\, basée sur un mécanisme à double para llélogramme incliné qui positionne le centre de rotation prothétique à l'emplacement anatomique de la hanche. Sur le plan du contrôle\, un esti mateur cinématique temps réel infère le mouvement prothétique requis à partir de trois IMU placés sur le bassin et le membre intact\, en fusi onnant deux approches complémentaires\, la CLME et les oscillateurs adapt atifs\, via une fonction de pondération logistique. Une étude de cas pr éliminaire avec un sujet porteur d'une désarticulation de hanche suggèr e une réduction du coût métabolique de la marche par rapport à une pro thèse passive.L'ensemble de ces contributions forme AUHRA (Active Unit fo r Hip Robotic Assistance)\, un système complet de prothèse de hanche act ive\, posant les bases d'une restauration de la locomotion physiologique p our les personnes ayant perdu totalement une jambe.Membres du jury :Prof. Renaud Ronsse (UCLouvain)(Promoteur)Prof. \;Aude Simar (UCLouvain) (Pr ésident)Prof. Bruno Dehez \;(UCLouvain) (Secrétaire)Dr. Benoît Herm an (UCLouvain)Prof. Herman van der Kooij \;(University of Twente\, The Netherlands)Prof. Heike Vallery (RWTH Aachen\, Germany)Soutenance publiqu e accessible par visio-conférence : \;https://teams.microsoft.com/mee t/356969346824814?p=xohWhbJ5qp6FZ2109t URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260930T161500 DTEND;TZID=Europe/Brussels:20260930T181500 LOCATION:Place Croix du Sud 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:89a1e52d5ee0d8300739bef2cdb35ce7 DTSTAMP:20260819T080913Z SUMMARY:PhD Defence: Large Eddy Simulations of controlled Airborne Wind Ene rgy Systems flying in turbulent flows by Jean-Baptiste CRISMER (TFL) DESCRIPTION:Wind energy is expected to play a central role in the energy tr ansition to carbon-neutral energy system\, with installed capacity project ed to increase substantially in the coming decades. To this end\, the size of horizontal-axis wind turbines is continuously increasing\, which raise s structural challenges and requires increasing material resources. Those challenges have triggered interest in alternative technologies. Airborne w ind energy systems (AWES) show great potential and has recently gained a g reat deal of interest. However\, AWESs development is still at an early st age\, and their ability to operate reliably under turbulent wind condition s and within wind farms requires further investigation. This thesis presen ts a computational framework based on large eddy simulation (LES) to study AWES operating in ambient turbulence and in waked conditions representati ve of wind farms. Within the LES flow solver\, the kites are represented u sing a model based on an actuator line for the main wing with its ailerons \, and complemented with models for the tail control surfaces (rudder and elevator). The flow solver is coupled\, via a two-way coupling\, to a cont rol module based on model-predictive control (MPC)\, to track optimal traj ectories. The first part of the thesis investigates the wakes generated by curved- and straight-wing AWES\, representative of soft- and rigid-wing c oncepts\, and demonstrates that the wake structure depends on the kite geo metry. The subsequent chapters focus on straight rigid-wing kites. The rob ustness of the MPC controller is then evaluated under turbulent inflow con ditions\, showing its ability to maintain accurate trajectory tracking des pite atmospheric turbulence. The framework is subsequently applied to more complex operating scenarios. When flying within the wake of another kite\ , the controller successfully tracks the prescribed trajectory. Depending on the spacing and synchronization between the two systems\, the downstrea m kite either avoids the wake and experiences negligible wake effects or f lies within it\, resulting in power losses of up to 6%. Finally\, the kite is simulated within a realistic atmospheric boundary layer and in the wak e of a wind turbine. Even when traversing the wind turbine wake\, the cont roller maintains trajectory tracking\, although with reduced accuracy and power losses of approximately 5–10%. Overall\, these results quantify th e performance of AWES under realistic farm-like operating conditions\, dem onstrate both the robustness and the limitations of the proposed control s trategy\, and show that wake interactions can significantly affect power p roduction and trajectory-tracking performance while also highlighting oppo rtunities for wake mitigation.Membres du jury :Prof. Grégoire Winckelmans  \;(UCLouvain)(Promoteur)Prof. Aude Simar \;(UCLouvain) (Présiden t)Prof. Francesco Contino \;(UCLouvain) (Secrétaire)Dr. Denis-Gabriel Caprace (UCLouvain) \;Prof. Joris Degroote (UGent) \;Dr. Filippo Trevisi (Politecnico di Milano)Soutenance publique également via le lien (TEAMS) : \;https://teams.microsoft.com/meet/348458816083316?p=AGSrIPf 3fQPgiv2n3C URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260827T161500 DTEND;TZID=Europe/Brussels:20260827T181500 LOCATION:Place Ste Barbe 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:314675f29ac44d7b20894fad7e6b8ef3 DTSTAMP:20260819T080913Z SUMMARY:PhD defense: Thermal conductivity measurement methods for dispersio n MTR fuel characterization by Tommy MAI (IMAP) DESCRIPTION:The thermal characterization of HALEU composite fuels\, such as U₃Si₂-Al dispersion fuels for MTR applications\, requires advanced te chniques to evaluate thermal conductivity across multiple length scales an d burnup conditions.This work developed and evaluated two thermoanalytical methods for characterizing the thermal conductivity of MTR fuel specimens : an adapted MALDONADO pulse-heating approach for bulk measurements and a dedicated microelectromechanical systems thermal suspended bridge (MEMS-TS B) device for microscopic characterization.The investigation demonstrated that the MALDONADO measurement principle could\, in principle\, be adapted to a planar sample geometry\, representing a first-of-its-kind implementa tion. Furthermore\, the applicable temperature range could theoretically b e extended to temperatures exceeding 200 °C. The analytical framework und erlying the method was described in greater detail than previously reporte d in the literature. However\, the developed prototype did not enable quan titatively reliable measurements due to several identified design limitati ons.For the microscopic thermal conductivity characterization\, a MEMS-TSB platform was newly designed and fabricated at the WINFAB facility of UCLo uvain. A simplified yet comprehensive manufacturing process was establishe d\, including the novel implementation of XeF₂ dry etching as an improve d release strategy\, together with a compatibility assessment of suitable SiNₓ materials. The resulting batch-fabrication and backend-processing r oute yielded highly robust devices with a manufacturing yield approaching 100%\, ultimately leading to an off-the-shelf like measurement platform. I n support of the implementation of the system\, a specimen preparation rou te for micro-rod samples derived from bulk reference materials was also de veloped at SCK CEN. Experimental measurements were successfully performed on a 316L stainless steel specimen\, thereby demonstrating the functionali ty of the developed MEMS-TSB device. Nevertheless\, precise quantitative m easurements could not yet be achieved due to limitations associated with t he vacuum environment of the utilized test stand.Membres du jury :Prof. Th omas Pardoen (UCLouvain)(Promoteur)Prof. Renaud Ronsse (UCLouvain) (Prési dent)Prof. Jean-Pierre Raskin (UCLouvain) (Secrétaire)Prof. Denis Flandre (UCLouvain)Dr. Ann Leenaers (SCK CEN)Dr. Sven Van den Berghe (PanTera &am p\; Ghent University)Dr. Tsvetoslav Pavlov (Idaho National Laboratory)Jare d Wight (SCK CEN)Soutenance publique également via le lien (TEAMS) :https ://teams.microsoft.com/meet/373129363532854?p=IJZfSUxyBMvTxfQISD URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260831T161500 DTEND;TZID=Europe/Brussels:20260831T181500 LOCATION:Bâtiment Lavoisier 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:9ef42863f9a922df5edbed20a83d6ef6 DTSTAMP:20260819T080913Z SUMMARY:PhD Defense: Design and characterisation of a new healable high-str ength aluminium alloy manufactured by Powder Bed Fusion – Laser Beam by Sophie DE RAEDEMACKER (IMAP) DESCRIPTION:Additive manufacturing enables the fabrication of lightweight a luminium components with complex geometries but often introduces microvoid s and microcracks that degrade mechanical properties. Healing ability of h igh-strength Al alloys offers a promising strategy to mitigate these defec ts.A proof of concept was first established using mechanically mixed powde r\, producing an AlMg6.7Zr alloy. Synchrotron X-ray nano-holo-tomography ( nano-CT) demonstrated that a Healing Heat Treatment (HHT) (540 °C for 30 min) achieved complete closure of 65% of submicrometric voids\, healing vo ids up to 3.7 μm. The healing mechanism was primarily driven by Mg diffus ion. Combining heat and pressure treatments drastically enhanced healing e fficiency\, enabling complete closure of voids at least up to 100 μm.Buil ding upon these results\, pre-alloyed powder was used\, leading to the AlM g9.3Zr alloy. Repeated tensile loading and thermal treatment cycles (540 °C\, 20 min) were monitored by in-situ synchrotron X-ray nano-CT. Voids u p to 1 μm were healed and remained closed during subsequent tensile loadi ng.Finally\, the PBF-LB/M processing parameters were optimised using pre-a lloyed powder\, resulting in the AlMg10Zr alloy. The increased Mg content promoted β-Al3Mg2 precipitation\, which further coarsened during HHT and reduced ductility from 16% in the AB state to 4% after HHT. This AlMg10Zr alloy also exhibited a fatigue life comparable to that of high-strength Sc almalloy®.Overall\, Almazium® demonstrates that a high-strength aluminiu m alloy can exhibit intrinsic\, repeatable healing ability when processed by PBF-LB/M. These results open new pathways for the design of healable al uminium alloys and provide a foundation for developing next-generation lig htweight structural materials with extended service life. \;Membres du jury :Prof. Aude Simar (UCLouvain)(Promotrice)Dr. Florent Hannard (Cherch eur indépendant) (Promoteur)Prof. Hadrien Rattez (UCLouvain) (Président) Prof. Hosni Idrissi \;(UCLouvain) (Secrétaire)Dr. Julie Gheysen (EPFL )Dr. David Tingaud (Université Sorbonne Paris Nord)Prof. María Teresa P érez-Prado (IMDEA Materials Institute) \;Soutenance publique égaleme nt accessible par visio-conférence via le lien (TEAMS) : \;https://te ams.microsoft.com/meet/39197112513221?p=A3vAQLjtjmnHvbR9si URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260908T161500 DTEND;TZID=Europe/Brussels:20260908T181500 LOCATION:Place Ste Barbe 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:413e925f1a33d683a060636076380819 DTSTAMP:20260819T080913Z SUMMARY:PhD Defense : Modélisation des forces hydrodynamiques sur les bât iments en zone urbaine by Charles RYCKMANS (GCE) DESCRIPTION:L'augmentation de la fréquence et de l'intensité des inondati ons mondiales\, accentuée par le changement climatique et l'expansion urb aine\, rend cruciale l'évaluation des dommages structurels. Cependant\, l es forces hydrodynamiques exercées par l'eau en mouvement sur les bâtime nts restent complexes à anticiper. Pour répondre à ce défi\, cette th èse propose une double approche\, combinant volets expérimentaux et num ériques. Des essais en laboratoire sur des configurations de bâtiments i solés et obstrués ont d'abord révélé les limites des méthodes d'éva luation basées uniquement sur la seule hauteur d'eau\, tout en mettant en lumière l'influence majeure des obstacles situés en amont sur les struc tures physiques.En parallèle\, le volet numérique a permis de tester la capacité de modèles bidimensionnels à reproduire ces écoulements compl exes. Les résultats démontrent que la précision des estimations dépend fondamentalement de la prise en compte de la constriction des flux\, de l a dispersion et des pertes d'énergie. Sur cette base\, un nouveau cadre d e modélisation fondé sur la porosité urbaine a été développé. Test é avec succès sur le cas réel des inondations de Pepinster (2021) en Be lgique\, ce modèle réduit drastiquement les coûts de calcul tout en pr édisant fidèlement les hauteurs d'eau\, les vitesses d'écoulement et le s forces exercées. Ces travaux offrent ainsi de nouvelles perspectives ph ysiques et des outils opérationnels plus fiables pour la gestion des risq ues et la résilience de nos villes.Membres du jury :Pr. Sandra Soares-Fra zão (UCLouvain)(Promotrice)Dr. Didier Bousmar (SPW) (Promoteur) \; &n bsp\;Pr. Pascal Finaud-Guyot (Université de Montpellier)Dr. Petra Van Itt erbeeck (Buildwise)Pr. Gabriella Petaccia (University of Pavia)Pr. Nicolas Moës (UCLouvain) (Président)Pr. Eric Deleersnijder (UCLouvain) (Secrét aire)Soutenance publique également accessible par visio-conférence via l e lien (TEAMS) : \;https://teams.microsoft.com/meet/394059254362731?p= LK3lnBVYilnY2NYXY7 URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260826T161500 DTEND;TZID=Europe/Brussels:20260826T181500 LOCATION:Place Ste Barbe 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:2fec549c6e978027ba8e64924ef7eef0 DTSTAMP:20260819T080913Z SUMMARY:PhD Defense: Prediction of the conducted emissions in the supraharm onic range in low-voltage grid by Erzen MUHAREMI (MEED) DESCRIPTION:En 1807\, Joseph Fourier présente un travail qui révolutionne ra durablement les sciences\, tant l'outil mathématique introduit connaî tra de nombreuses applications et permettra la description d'un nombre con sidérable de phénomènes physiques. Cette contribution majeure\, connue sous le nom de série de Fourier\, a depuis connu de nombreuses extensions . Parmi celles-ci figure notamment la double série de Fourier\, formulée en 1953 par Harold S. Black\, qui généralise l'analyse harmonique à pl usieurs dimensions. Aujourd'hui\, ses principes sont exploités dans de no mbreux domaines\, notamment en traitement d'image et en imagerie médicale \, comme dans l'analyse des images issues de l'imagerie par résonance mag nétique (IRM).Cette thèse propose une extension des travaux de Leroy Car oline consacrés à la modélisation des appareils à électronique de pui ssance\, en s'appuyant notamment sur l'utilisation de la double série de Fourier pour caractériser analytiquement les phénomènes d'émission hau te fréquence.Ainsi\, ce travail de thèse vise à répondre à la problé matique de la modélisation des appareils à électronique de puissance vi s-à-vis de leurs émissions haute fréquence\, communément appelées sup raharmoniques (Supraharmonics\, SHs)\, dans les réseaux basse tension. Un e attention particulière est portée à l'établissement du lien entre le s émissions supraharmoniques et la puissance nominale des appareils. Une formulation mathématique originale permet notamment de montrer l'absence de relation directe entre ces deux grandeurs.L'influence des filtres élec tromagnétiques (Electromagnetic Interference filters\, EMI) sur les émis sions supraharmoniques est également étudiée en profondeur\, permettant d'apporter une nouvelle compréhension de leur rôle et de leur potentiel en tant que moyen de réduction des perturbations conduites dans cette ga mme fréquentielle.Enfin\, cette thèse introduit une nouvelle approche de modélisation des émissions supraharmoniques\, appelée Analytically Gen erated Signals (AGS)\, basée sur une représentation analytique des signa ux générés par les convertisseurs statiques. Au-delà de cette contribu tion\, le travail propose une réflexion plus générale sur l'évolution des représentations fréquentielles multidimensionnelles\, en explorant l 'extension de la double série de Fourier vers la triple série de Fourier \, ainsi qu'une formulation généralisée permettant l'extension à un no mbre arbitraire de dimensions pour la description de systèmes complexes.D es développements complémentaires présentés en annexe mettent égaleme nt en évidence certains liens conceptuels entre les descriptions mathéma tiques issues de la physique et certains phénomènes observés dans les s ystèmes biologiques.Membres du jury :Prof. De Jaeger Emmanuel (UCLouvain) (Promoteur)Prof. Simar Aude (UCLouvain) (Président)Prof. Oestges Claude ( UCLouvain) (Secrétaire)Prof. Meyer Jan \;Prof. Knockaert JosProf. Bek emans MarcSoutenance publique également accessible par visio-conférence via le lien (TEAMS) : \;https://teams.microsoft.com/meet/3614048422953 51?p=mTuGFKNajPCWYXREIW URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260903T161500 DTEND;TZID=Europe/Brussels:20260903T181500 LOCATION:Place Ste Barbe 1348 Louvain-la-Neuve END:VEVENT BEGIN:VEVENT UID:706054e716d43d37f4b48f87314a6911 DTSTAMP:20260819T080913Z SUMMARY:PhD Defense: How biomechanics helps interpret fingertip deformation by Guillaume DUPREZ (MEMA) DESCRIPTION:Our fingertips are remarkable sensory organs that let us intera ct safely with our environment. Tactile sensors embedded below the skin su rface encode the deformation of the surrounding tissues into neural signal s. These signals travel to the brain to allow dexterous object manipulatio n. Capturing subsurface strains in the fingertip is therefore key to under standing touch. Such strains\, however\, are difficult to probe in vivo&nb sp\;at the depth where the tactile sensors are located.The numerical model of fingertip deformation developed in this thesis accounts for the contra sted mechanical responses of cutaneous and subcutaneous tissues. The aniso tropy induced by collagen fiber networks had not been considered in previo us fingertip models\, despite substantial histological and experimental ev idence. Both features were described within an anisotropic hyperelastic fr amework. The 2D simulations were run under generalized plane-strain or axi symmetric conditions\, depending on the targeted experimental observations .The model was assessed against experimental measurements of fingertip con tact at two length scales. At the macroscale\, collagen anisotropy improve s the reproduction of the contact area\, the pulp expansion\, and the surf ace deflection profile. At the microscale\, anisotropy and tissue heteroge neity influence the development of the surface strains. Optical coherence tomography images capturing the deformation of the outermost skin layer sh ow that the model also yields a realistic prediction of the skin thickness evolution during contact. The results identify the collagen fiber network s as structural components that shape the mechanical response of the finge rtipMembres du jury :Prof. Laurent DELANNAY \; (UCLouvain)(Promoteur)P rof. Benoit DELHAYE \; (UCLouvain)(Co-Promoteur)Prof. Hadrien RATTEZ&n bsp\; (UCLouvain) (Président)Prof. Philippe LEFÈVRE \; (UCLouvain) ( Secrétaire)Prof. Cédric LAURENT (Université de Lorraine\, France) \ ;Prof. Hannes SAAL (University of Sheffield\, United-Kingdom) \;Souten ance publique également accessible par visio-conférence via le lien (TEA MS) : https://teams.microsoft.com/meet/390266644685261?p=NMwUPQGJEC62oJ9pn o \; URL:https://uclouvain.be/en/calendar/immc DTSTART;TZID=Europe/Brussels:20260916T163000 DTEND;TZID=Europe/Brussels:20260916T183000 LOCATION:Place Ste Barbe 1348 Louvain-la-Neuve END:VEVENT END:VCALENDAR