Benefits at a glance
- Value: Get up to four years PhD scholarship worth S$260,000, inclusive of monthly stipends and tuition fees.
- Teaching opportunities: Upon confirmation of PhD candidature, students on scholarships will be engaged in teaching duties. It will add value to their curriculum vitae, and provide valuable exposure and experience for those who wish to pursue an academic career subsequently
- Conference support: Financial support will be provided to students to present their research findings at international and local conferences,subject to good progress and existing guidelines
- Overseas attachments: Attachments at reputable overseas universities/institutions are available for selected students
- For more information about scholarships, please click here.
- For admission requirements to the PhD programmes, please click here.
EDB-Industrial Post-graduate Programme Scholarship
Company name: Makino
Project 1: Numerical simulation of DED process
Project 2: Parameter optimisation and property evaluation of metal parts manufacturing
using DED process
Project 3: In-situ processing monitoring of DED process to identify parts defects
Project 4: Generate optimisation of CAM system in DED process
Click here for more information.
Company name: DNV GL
Project 1: Investigation on the processing-microstructure-property correlation to establish qualification requirements for 3D printed metals for marine and offshore applications
Project 2: Application of design methodologies and tools for novel design and redesign of metal additive manufacturing products for marine and offshore applications
for more information.
NTU Research Scholarships
The NTU Research Scholarship is awarded to outstanding
graduate students for research leading to a higher degree at the University.
The Scholarship consists of a monthly stipend plus a tuition fee subsidy.
Details available here.
Project 1: Microstructure control in metal additive
Supervisor: Assistant Professor Matteo
Interested applicants, please contact Assistant Professor Matteo
Seita at MSEITA@NTU.EDU.SG.
Dynamical responses of 3D printed structures with topological optimisation in
Supervisor: Assistant Professor Ng Bing
Project will investigate the
structural flexibility of 3D printed parts in UAVs, focusing on topological optimisation
to improve on structural performances. Project will involve both experimental
and numerical studies with wind tunnel testing of 3D printed parts to
understand the behaviour of 3D printed structures in
fluid-structure-interaction (FSI). The student will also be involved in
numerical analysis and topological layout of the structures to investigate the
optimum design parameters.
The student should possess a
relevant engineering degree with strong interest in 3D printing, UAVs or FSI.
Interested applicants, please contact Assistant Professor Ng Bing
Feng at BINGFENG@NTU.EDU.SG .
Project 3: Vision feedback on freeform-shaped structure 3D printing
Supervisor: Associate Professor Tegoeh
Printing a complex wall with a passive system might result in uneven surfaces, which is due to the rheology of the concrete mixture as thixotropic fluid. Wall printing with a rectangular orifice nozzle does not consequently result in a rectangular extrudate shape. In order to adjust the resulting extrudate shape, a smart variable orifice nozzle that can change its outlet shape to adapt for different wall profile requirements, e.g. walls with different slanted angles as in a dome, has been developed. A constituted nozzle-extrudate shape relationship has also been formulated using neural-network approaches and preliminary results have shown potential implementations.
However, concrete printing by nature is a complex process. The extrudate shape does not depend only on the orifice shape but also on tons of other parameters, including the concrete mixture composition, material flows and time. Slight variations on the parameters to those from where the nozzle-extrudate shape relationship were established might cause unexpected changes on the resulting extrudate shape. This leads to the requirement of a feedback loop to adjust the deviation to the wall profile. One potential approach is by using vision feedback, where the resulting wall profiles during the printing process is visually monitored using a computer vision approach and any deviations from the wall profile references will be corrected through the adjustable orifice nozzle. As a result, the complete system is expected to be able to print any complex wall structures, e.g. complex shape walls or dome, with acceptable surface profile quality.
Mechanical/mechatronics student with strong background in control and machine/deep learning.
Project 4: Investigating the flow of cementitious material for 3D printing of concrete
Supervisor: Associate Professor Wong Teck Neng
Application of 3D printing in the building and construction industry has generated vast interest due to its remarkable advantages: cost effective, time efficient, provides freedom for complex designs and potentially reduce labour, making it one of the most promising technology for this labour intensive industry. In the 3D cementitious material printing process, material pumpability and buildability is crucial in ensuring the printed layers have enough strength to support itself. Only with the appropriate pumpability and buildability, the cementitious material can then be transported in the delivery system smoothly and be deposited layer by layer firmly. The research aims to investigate the flow and rheology behaviour of spray-based /extruded cementitious material for the 3D printing of concrete, through systematic experiment and theoretical modelling.
Project 5: 3D food printing for personalised food
Supervisor: Associate Professor Yeong Wai Yee
3D printing of soft materials can be used to advance new technologies in food sciences for personalized food development. New research are now possible in term of creating new texture, microstructure, nutrient level and other dimension in food. The research is directly relevant to the aging population in search of new food sciences and technologies.
NEWRI Graduate Scholarship
Project: 3D printing of multi-porosity ceramic membranes for process intensification
Supervisor: Professor Chua Chee Kai
Co-supervisor: Assistant Professor Chong Tzyy Haur
Ceramic membranes are widely used in liquid filtration and waste treatment. Conventional ceramic membranes are homogeneous in microstructure and multiple membrane systems with different porosity and pore size have to be used in a typical process flow. This is usually associated with increased cost and process inefficiency.
3D printing is new manufacturing technology that allows freeform custom design and low cost fabrication at low production volume. With recent development in 3D printable ceramic materials, there is an opportunity to apply 3D printing to the design and fabrication of new ceramic membranes. Therefore, we propose to 3D print a multi-porosity ceramic membrane for process intensification. In this research, design, simulation, fabrication and characterization of the new ceramic membranes will be carried out.