Chemiluminescence-Resonance Energy Transfer Strategies for Next Generation Photodynamic Therapy

This research project aims to develop new molecular systems that can produce light directly inside biological tissues, allowing diseases such as cancer to be detected and treated without the need for an external light source. Conventional light-based therapies are limited because light does not penetrate deeply into the body, reducing their effectiveness for internal or […]

Read More
Multi-Sensor Validation and Scaling of Machine Learning Models for Contrail Detection and Flight Attribution using Integrated Ground-Based and Satellite Observations

This proposed research project aims to tackle the significant climate impact of aviation contrails by creating a high-quality “ground truth” dataset to improve how we detect and predict them. By extending Western University’s extensive Global Meteor Network of ground cameras to European ground-based camera systems and improving current machine learning models, the project will help […]

Read More
Reactive Carbon Dioxide Capture Using Novel Silicon-Carborane Catalysts

Rising carbon dioxide emissions necessitate innovative approaches for its capture and effective conversion into valuable chemical products. This project will develop Frustrated Lewis Pairs (FLPs) tethered to redox-active ortho-carboranes, providing a tunable platform for carbon dioxide capture and catalytic hydrosilylation. By combining electrochemical activation with main-group catalysis, the project aims to synthesize a new class […]

Read More
Enhanced Optical Rulers from Nonlinear SNAP Resonators

This project brings together leading Canadian and European researchers to explore a new type of tiny optical device called a SNAP resonator, which can guide and control light with extreme precision. These devices may play an important role in future technologies such as environmental sensing, low-energy optical computing, and advanced communication systems. During a 12-week […]

Read More
Alignment and characterization of multimode-fibre compatible superconducting nano-wire single-photon detector

This project aims to couple a multimode optical fiber(MMF) to a superconducting nanowire single-photon detector(SNSPD) and characterize it. SNSPDs are currently the most sensitive single-photon detectors available. But most of the current SNSPDs are coupled using single-mode fibers(SMF), which collect photons in only one spatial mode. This is inefficient when collecting photons from biological samples, […]

Read More
Neural Oscillations During Sleep: Mathematical Modeling and Data Analysis

When we sleep, the brain produces rhythmic patterns of activity that help us learn, remember, and maintain healthy function. Some of these patterns travel across the brain like waves. Scientists believe these traveling waves are important for how the brain processes information, but we still do not fully understand how they form or what they […]

Read More
Nouvelle classe de complexes hétéroleptiques d’Ir(III) pour la photoproduction d’hydrogène.

Ce projet vise à utiliser la lumière du soleil pour produire de l’hydrogène, un carburant propre capable de remplacer les énergies fossiles. Pour cela, nous développons des molécules contenant du métal iridium qu’on appelle des organométalliques, capables de capter efficacement la lumière visible et de déclencher des réactions chimiques qui nous permettent de produire de […]

Read More
Développement et évaluation d’algorithmes d’apprentissage automatique quantique pour l’ordinateur quantique photonique

Quandela est une entreprise pionnière dans le développement d’ordinateurs quantiques photoniques fulstack, intégrant matériel, logiciel et accès cloud [1]. Ses activités couvrent la conception de sources de photons uniques, la fabrication de processeurs photoniques, ainsi que le développement de plateformes logicielles comme Perceval [2] ou MerLin pour la programmation et la simulation quantique. L’un des […]

Read More
Pioneering Quantum Nanodevices: Enhanced Gold Bipyramid Integration for Ultrafast Coupling – 2025

Quantum computing is a cutting-edge field poised to revolutionize technology, with its quantum information processing segment projected to reach $100 billion in the next decade. It harnesses tiny units called qubits that collaborate via strong coupling to tackle complex problems far faster than conventional computers. The power of this coupling determines processing speed – stronger […]

Read More
Equilibrium isotope effects in aqueous environment

Water is without a doubt the most studied chemical compound. Nonetheless, because water is at the center of all biological and many geological processes and because it has uncommon physical and chemical properties, there is always more to discover about it. Here we aim to understand how water affects isotopic equilibria in gases containing methane, […]

Read More
Self-Driving Lab en chimie des nanomatériaux : spectroscopies in-line & RL

Ce projet vise à développer un laboratoire autonome combinant intelligence artificielle et spectroscopie pour accélérer la découverte de matériaux et l’analyse de produits complexes. Sous la supervision du professeur Jean-François Masson à l’Université de Montréal, le stage portera sur la mise en place d’un système de synthèse en flux contrôlé par apprentissage automatique, permettant de […]

Read More