Welcome to Actuate Lab
University of Limerick
Department of Chemical Sciences | Bernal Institute | SSPC
Learn MoreWe use high-accuracy first-principles modelling to screen, predict and rationalize the material properties of crystals, metal-organic frameworks (MOFs), self-assembled monolayers (SAMs), and other molecular assemblies from the nano to the macroscale.
Our advanced computational methods simulate and optimize the structural, electronic, and mechanical characteristics of materials, enabling informed design choices and accelerating the discovery of novel materials with tailored functionalities for diverse applications including energy storage, electronics and more.
We grow biomolecular crystal assemblies for use in sensors, actuators, and nanogenerators. These low-cost, eco-friendly materials have high sensitivity and scalability, driving innovation in diverse technological fields.
Our research focuses on optimizing crystal growth techniques to enhance performance and efficiency. The resulting biomolecular crystals exhibit remarkable stability and versatility in various applications.
We integrate our green crystalline films into functional devices for medical device, energy harvesting, and structural health monitoring applications. These films serve as the backbone for cutting-edge technologies, offering sustainable solutions across diverse industries.
Our research endeavors focus on advancing fabrication techniques to optimize device performance and durability. Through interdisciplinary collaboration, we aim to pioneer new applications for biomolecular crystals in emerging fields.
We aim to engineer functional properties in molecular materials from the nanoscale to the macroscale.
Our group integrates computational chemistry, materials science, and device physics to design functional eco-friendly sensors and actuators. Link