Advanced Materials and Processing for Future Manufacturing
Subject(s)Engineering, Science.
DegreeDoctor of Philosophy
SupervisorDr Ajit Pal Singh
About this opportunity
This doctoral project is for an ambitious engineering candidate who wants to work at the interface of advanced materials, manufacturing processes, mechanical performance and failure analysis. Future manufacturing depends on materials that can be produced, modified, repaired and trusted in service. Whether the material originates from powder processing, additive manufacturing, joining, repair, hybrid processing or conventional supply chains, engineers must understand how the final material state controls service-relevant performance.
The project will focus on one clearly defined material route and examine it in depth. Materials that appear similar at the start can behave very differently after heat treatment, repair, mechanical loading or other processing steps. Internal defects, material interfaces, residual damage and microstructural changes can all affect how an engineering component performs. The successful candidate will investigate how these factors influence mechanical behaviour, damage development and failure.
The candidate will work with an engineering material system such as titanium alloys, aluminium alloys, nickel-based superalloys or a closely related structural material. The final material route will be selected in discussion with the candidate, taking into account their background, available facilities and the strongest feasible experimental pathway. The research will combine microstructural characterisation, mechanical testing and failure analysis, using methods such as optical or electron microscopy, tensile testing, fatigue, creep or fracture toughness testing.
The expected doctoral contribution is a practical process-microstructure-property-failure framework for the chosen material system. Through this project, the candidate will develop strong skills in processing, testing and material assessment, while producing guidance for future manufacturing applications where advanced materials can be used efficiently, reliably and sustainably. This direction is relevant to wider ambitions in scientific research, advanced manufacturing, sustainable production, industrial capability development, and economic diversification.
Location
The University of Waikato, Hamilton campus, New Zealand.
Scholarship value
This opportunity is intended only for applicants eligible or intending to apply through the Omani Ministry of Higher Education, Research and Innovation scholarship pathway. No University, supervisor-held or project-specific funding is currently available to support this PhD outside that scholarship pathway.
Eligibility
Applicants should be eligible for, or intending to apply for, Omani Ministry of Higher Education, Research and Innovation funding.
Applicants should meet the University of Waikato standard doctoral entry requirements.
Applicants should have a background in mechanical, materials, manufacturing, metallurgical, additive manufacturing, or a closely related engineering field.
Relevant research, project, laboratory or industry experience in materials processing, characterisation, mechanical testing, failure analysis, additive manufacturing, repair or experimental engineering would be advantageous.
Applicants should be willing to undertake hands-on laboratory work, specimen preparation, systematic testing, data analysis, independent problem-solving and technical writing.
Applicants should be able to communicate effectively in English. If English is not their first language, TOEFL or IELTS scores should be submitted with the application if available.