The Low-carbon Calcined Clay Concrete for Additive Manufacturing Scholarship is a fully funded PhD research scholarship offered by the School of Engineering at Western Sydney University, Australia. The project focuses on developing sustainable low-carbon calcined clay concrete for additive manufacturing, also known as 3D concrete printing, to support Australia’s transition toward net-zero construction. Moreover, the research forms part of the ARC Research Hub for Infrastructure Net Zero and involves close collaboration with an industry partner. Through this scholarship, doctoral researchers contribute to innovative construction technologies while developing expertise in sustainable materials and digital engineering.

Background and Purpose

The scholarship aims to reduce the environmental impact of the construction industry by developing low-carbon alternatives to conventional cement-based concrete. The research investigates calcined clay-based binders that can lower the embodied carbon of concrete while maintaining the performance required for additive manufacturing. Furthermore, the project examines key material properties such as rheology, printability, structural build-up, interlayer bonding, mechanical strength, durability, and long-term structural performance. It also combines advanced laboratory testing with analytical modelling to optimize sustainable construction materials for 3D printing applications. As a result, the research supports the development of greener infrastructure and accelerates the adoption of digital construction technologies.

Low-carbon calcined clay concrete for additive manufacturing PhD Scholarship Benefits

The scholarship provides comprehensive financial support throughout the doctoral program. It includes a tax-free annual living stipend, tuition support through the Australian Government Research Training Program (RTP), and additional funding for conference participation, fieldwork, and approved research expenses. In addition, scholars gain access to advanced laboratories, modern construction materials testing facilities, and expert academic supervision at Western Sydney University. They also collaborate with industry partners and researchers working on infrastructure decarbonization projects. Consequently, recipients gain valuable technical expertise, professional experience, and industry connections while conducting impactful research.

Eligibility Criteria

Applicants must satisfy the admission requirements for a PhD program at Western Sydney University. Additionally, they should possess an excellent academic record and hold qualifications in civil engineering, structural engineering, materials engineering, construction engineering, chemical engineering, or a closely related discipline. Candidates with experience in concrete technology, cement chemistry, sustainable construction materials, additive manufacturing, or materials characterization may receive preference. Furthermore, applicants should demonstrate strong research potential, analytical ability, and an interest in sustainable infrastructure research.

Low-carbon calcined clay concrete for additive manufacturing PhD Scholarship Application Process

Eligible applicants must apply for admission to the PhD program at Western Sydney University and submit all required scholarship application documents. The selection committee evaluates candidates based on their academic achievements, research experience, technical expertise, and suitability for the project. Shortlisted applicants may also participate in interviews before the university makes the final selection. Successful candidates will undertake the research within the ARC Research Hub for Infrastructure Net Zero while collaborating with academic researchers and industry partners.

Opportunities for Scholars

The scholarship provides exceptional opportunities to conduct industry-focused research that advances sustainable construction and digital manufacturing technologies. As a result, scholars gain expertise in cement chemistry, concrete technology, rheology, additive manufacturing, materials characterization, experimental testing, and data analysis. Furthermore, they contribute to the development of innovative low-carbon construction materials that support infrastructure decarbonization and reduce greenhouse gas emissions. Their research also strengthens collaboration between academia and industry while generating practical engineering solutions. Ultimately, the scholarship prepares graduates for successful careers in civil engineering, sustainable infrastructure, construction materials research, digital construction, advanced manufacturing, and academia.