SHU
A New Conceptual Framework for the Engineering of Nature-Inspired Metamaterials
β Funded (Competition)
β° Closing Soon
mechanical engineering
metamaterials
materials science
additive manufacturing
computational modelling
manufacturing engineering
applied mathematics
3d printing
Develop innovative metamaterials by combining nature-inspired design and advanced manufacturing techniques. Explore computational modelling and 3D printing to create lightweight, high-performance materials with tailored mechanical properties.
AI-generated overview
Mechanical Metamaterials
Additive Manufacturing
Computational Modelling
Materials Science
Nature-Inspired Design
Advanced Manufacturing
Project Description
This PhD project is part of Sheffield Hallam University's Graduate Teaching Assistantship scheme, aimed at designing next-generation mechanical metamaterials by leveraging nature-inspired multi-scale architectures. The project integrates advanced computational modelling and additive manufacturing techniques such as 3D printing to predict, optimise, and fabricate lightweight materials with tailored mechanical behaviours. You will join an interdisciplinary research team, accessing high-performance computing, 3D printing, and mechanical testing facilities. Activities include developing simulation frameworks, creating novel complex geometries, conducting material testing, engaging with industry partners, attending conferences, and participating in public engagement and training events. Outcomes include novel design strategies for resource-efficient, high-performance metamaterials with enhanced strength, stiffness, and durability. The research will contribute to engineering applications in aerospace, energy systems, infrastructure, and advanced manufacturing, facilitating the development of materials that deliver superior functionality with less material use. This research empowers sustainable engineering by exploiting the structural complexity of natural materials to inform advanced manufacturing. It addresses critical global engineering challenges by enabling the design of innovative materials that improve performance while reducing resource consumption, supporting environmental and economic sustainability.
Entry Requirements
Applicants should hold at least a 1st or 2:1 Honours degree in Mechanical Engineering, Materials Science, or a closely related subject such as Applied Mathematics, Computing, or Physics. Knowledge of mechanics, computational modelling, or additive manufacturing is desirable. English proficiency tests (IELTS 7 overall, minimum 6.5 per section) are mandatory for non-native speakers.
How to Apply
Submit via Sheffield Hallam University's online application form (PHD Materials Science and Engineering Full-time 2025). Upload the following:
(1) a personal statement (max 2 pages) detailing your interest and relevant experience;
(2) two letters of reference (at least one academic, both dated within the last 2 years);
(3) copy of your highest degree certificate;
(4) non-UK applicants must also submit IELTS results (taken within the last 2 years) and a copy of their passport. If applying to multiple GTA projects, list all in your application and submit a tailored personal statement for each. Application deadline: 07 May 2026. Interviews: TBC.
(1) a personal statement (max 2 pages) detailing your interest and relevant experience;
(2) two letters of reference (at least one academic, both dated within the last 2 years);
(3) copy of your highest degree certificate;
(4) non-UK applicants must also submit IELTS results (taken within the last 2 years) and a copy of their passport. If applying to multiple GTA projects, list all in your application and submit a tailored personal statement for each. Application deadline: 07 May 2026. Interviews: TBC.
Eligibility
UK/Home
EU
International
Supervisor Profile
DS
Dr Shruti Mandhani
Sheffield Hallam University, Engineering and Built Environment
Dr Shruti Mandhani focuses on the interdisciplinary development of advanced materials through computational modelling and additive manufacturing techniques. Her research explores nature-inspired mechanical metamaterials to design lightweight and high-performance structures. She leads projects integrating experimental validation with industrial applications in materials science and mechanics.