CHEMICAL ENGINEERING
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Integrated System for Sustainable Process Design Selection
Dr Tan , Jully Associate Professor PhD , PEng , CEng , MIChemE
Research expertise : Engineering education research , Sustainability assessment , Life cycle assessment , Multi criteria decision making
E : tan . jully @ monash . edu T : + 603 5519 9786
Innovating Advanced Nanomaterials for Dual Energy Generation and Environmental Remediation
Dr Tan , Lling-Lling ( Carynn ) Senior Lecturer PhD , CEng , MIChemE Research expertise : Advanced materials , Nanotechnology , Photocatalysis , Artificial photosynthesis , Reaction engineering E : tan . llinglling @ monash . edu T : + 603 5514 4901
Due to evolving student interests , forward-thinking technological pedagogies creatively enhance student learning , particularly through the integration of technology-based tools like Virtual Reality ( VR ), which deepen students ' understanding and practical application of chemical engineering principles and practices . This immersive learning transforms the curriculum by showcasing how innovative teaching and learning invigorate traditional programs , attracting and engaging students in novel ways . It not only enhances student learning but also fosters better knowledge , understanding , and application among future graduates . This serves as a valuable tool for educators to effectively engage students and helps industry players prepare graduates for the
Photocatalysis has garnered increasing attention in recent years , particularly in the context of reactions involving small molecules like CO2 ( for solar fuel production ), H2O ( water splitting ), and N2 ( ammonia fixation ), as well as in the synthesis of valuable fine chemicals . Despite its rapid development , the current state-ofthe-art in photocatalysis remains more of a promising concept than a fully realised technology . Scaling up its application necessitates further research , particularly in the areas of discovering new photocatalyst materials and designing innovative photoreactors . Our research project is geared towards advancing this technology to an industrial scale , focusing on smart engineering and the rational design of various workplace more effectively . Increased environmental awareness has spurred interest in adopting sustainable technologies . Optimizing sustainable process plant configurations necessitates systematic assessment methods focusing on natural resource usage , pollutant release , and environmental impact generation . Identifying and selecting measures must consider factors like cost-effectiveness , scalability , and techno-economic risk . Using life cycle assessment for strategic decision-making enables comparing technologies , aiding in selecting the most promising ones . Integrated analytic hierarchy process-life cycle assessment systematically determines the most sustainable process design or technology .
advanced nanomaterials , including perovskites , metal-organic frameworks , and quantum dots . These materials offer tunable structural , electronic , and optical properties , essential for optimising photocatalytic performance . Additionally , our research aims to unravel the fundamental mechanisms driving high-efficiency solar energy utilisation . We employ a combination of experimental techniques and theoretical Density Functional Theory ( DFT ) analysis to gain critical insights into these mechanisms . Ultimately , our work promises to open new horizons in materials science , offering a potent tool for tackling climate change and meeting the world ' s evergrowing energy demands .
Example of decision modelling framework for identifying the minimum environmental footprints
Example of VR simulator interfaces in teaching and learning
Example work done on leadfree halide perovskites for fuel generation .
Envisioned integration of photocatalytic systems into existing plants
CHEMICAL ENGINEERING
RESEARCHER PROFILE 2025 / 2026