Research

Overview

Our primary research area revolves around the application of cutting-edge manufacturing techniques to create advanced structure materials with multifunctional properties. These materials are designed to cater to a wide array of applications, including but not limited to the automotive, aerospace, and biomedical sectors. In our endeavors, we delve into understanding the intricate interplay between advanced manufacturing methods and material properties, aiming to optimize their performance in real-world scenarios. Additionally, our investigations extend to examining the impact of diverse environmental conditions on the mechanical behavior of these enhanced-structured materials. By comprehensively exploring these aspects, we contribute valuable insights that can revolutionize industries and enhance the functionality and durability of various products. 

Additive Manufacturing

Our research is centered on Additive Manufacturing (AM) where we focus specifically on creating lattice structures using Triply Periodic Minimal Surfaces (TPMS). TPMS possess a unique characteristic of having a mean curvature of zero, which mitigates stress concentration, a common issue observed in strut-based structures. Moreover, TPMS structures exhibit interconnected pore networks, making them exceptionally promising for various real-world applications.

In our study, we investigate the application of current AM technologies to fabricate lattice structures based on TPMS, ensuring that they possess the necessary properties for specific uses. Additionally, our research delves into the intricate details of lattice variables and manufacturing parameters. By optimizing these factors, we aim to develop TPMS-based lattices that meet the desired properties, thus paving the way for enhanced materials in diverse applications.

Material Science

The primary objective of our research is to significantly reduce the occurrence of fall-related injuries for individuals who are required to work outdoors during the winter season. Simultaneously, we aim to promote outdoor mobility for everyone, even in winter, by designing and developing materials that possess exceptional and long-lasting slip-resistant properties. By creating these advanced materials, we strive to enhance safety and encourage greater outdoor activity, ensuring a safer environment for those working outdoors and fostering a more active lifestyle for everyone, even in challenging winter conditions. 

Funding

We acknowledge all of the support that allows us to conduct our research, including from these sponsors: