Sort by
Refine Your Search
-
Listed
-
Category
-
Country
-
Program
-
Field
-
of singlet oxygen; Interaction of nano/microstructured systems with the biological environment: nanotoxicology, cellular uptake and active and passive targeting strategies for tumor cells. Principles
-
Reference Number NS25-FZJ03 Is the Job related to staff position within a Research Infrastructure? No Offer Description Context & Job description Thesis subject: High-Resolution Time-Resolved Microstructural
-
, chemical analysis, and evaluation of microstructural and phase changes. Experience in additive manufacturing of inorganic materials, particularly Direct Ink Writing (DIW), and preparation of ceramic
-
schools in the world. For more details, please view https://www.ntu.edu.sg/mae/research . We are looking for a Project Officer to support research and development in surface engineering and heat exchangers
-
the way in sustainable additive manufacturing research and development. For more details, please view https://www.ntu.edu.sg/sc3dp/ Key Responsibilities: Perform fabrication using Laser powder-bed fusion
-
linking: PVD process → thin-film morphology → electrode microstructure → electrochemical behaviour → full-cell performance The two successful candidates will investigate how the morphology and physical
-
related research under the supervision of the Principal Investigator (PI). The successful candidate will develop computational models to establish relationships between microstructural features
-
PhD Studentship: Advancing solid-state battery electrolyte manufacturing with terahertz spectroscopy
electrolytes are key to safer, higher-performance batteries, but understanding and inspecting their microstructural homogeneity and conduction in product-scale electrolytes remains challenging. The project will
-
attributes including microstructure, geometry, mechanical strength, stability, puncture performance and drug release behaviour. Experimental studies will involve fabrication of microneedle systems with varying
-
, Lab-4DµXRD, and to apply this technique to quantify local microstructural evolution during mechanical loading. The work will lay a strong foundation for the application of this novel characterization