| Name | Research Interests |
| Assoc Prof Adam Douglas Switzer | Adam Switzers main research interest lies in using coastal stratigraphy to define the recurrence interval of catastrophic marine inundation events (tsunami or large storms).
His most significant contributions to the field include:
* the first study of modern storm deposits from the Australian southeast coast;
* the recognition that immature heavy mineral suites in coastal sandsheets may indicate tsunami deposition rather than storm deposition in coastal settings;
* the recognition of an erosional signature of large scale washover of coastal dunes using Ground Penetrating Radar;
* initial evaluation of the sedimentary processes associated with the 2004 Indian Ocean tsunami on the southeast coast of India
a definitive review and re-analysis of large boulder accumulations in coastal settings on the southeast Australian coast. |
| Asst Prof Adriana Lopes dos Santos | I am marine microbial ecologist interested in understanding the structure of marine eukaryotic phytoplankton communities and how environmental factors shape their diversity. They are the core of globally important cycles such as carbon and oxygen and understand the factors that control and maintain their diversity and the structure of their communities, is fundamental to understand our planet. My work combined traditional culture isolation and laboratory studies along with cutting-edge DNA sequencing approaches to elucidate the patterns of marine eukaryotic phytoplankton communities across a wide range of marine environments.
* Marine microbial ecology
* Molecular diversity and taxonomy
* Biogeography of eukaryotic marine phytoplankton
* Dynamics and interactions eukaryotic |
| Asst Prof Amal Chandran | • Small Satellite Development.
• Satellite Instrumentation for Atmospheric remote sensing.
• Optical and Infrared remote sensing on cubesat platforms
• Cubesat instrumentation for Ionospheric plasma measurements.
• Climate Modeling: Stratospheric Sudden Warmings, Atmospheric Coupling, Stratosphere-Mesosphere dynamics
I have PhD student positions open for suitable candidates to work on instrumentation and atmospheric modeling.
In addition to their research, the PhD students will be expected to work as student project managers/system engineers on ongoing cubesat projects, learning all aspects of cubesat development and engineering. Students with prior experience in working with satellite hardware and background in electrical/mechanical engineering and coding experience will be preferred. |
| Dr Anna Lagerstroem | Research interests
Forest ecology
Ecological succession and nutrient dynamics
Plant functional traits
Selected publications
Lagerström, A., Nilsson, M.-C., Wardle, D.A. (2013) Decoupled responses of tree and shrub leaf and litter trait values to ecosystem retrogression across an island area gradient. Plant and Soil, 367: 183–197.
Lagerström, A., Esberg, C., Wardle, D.A., Giesler, R. (2009) Soil phosphorus and microbial response to a long-term wildfire chronosequence in northern Sweden. Biogeochemistry, 95: 199–2013.
Lagerström, A., Bellingham, P.J., Bonner, K.I., Wardle, D.A. (2011) The effect of simulated herbivory on growth and nutrient status of focal and neighbouring early successional woody plant species. Oikos, 120: 1380–1392.
Lagerström, A., Nilsson, M.C., Zackrisson, O., Wardle, D.A. (2007) Ecosystem input of nitrogen through biological fixation in feather mosses during ecosystem retrogression. Functional Ecology, 21: 1027–1033. |
| Asst Prof Aron Jeffrey Meltzner | • neotectonics, paleoseismology, paleogeodesy, and tectonic geomorphology
• earthquake recurrence, rupture repeatability, fault segmentation, and fault interactions
• temporal variability in interseismic deformation and strain accumulation
• Holocene relative sea-level change and glacial isostatic adjustment |
| Prof Benjamin P. Horton | 200 million people worldwide live along coastlines less than 5 meters above sea level. By the end of the 21st century this figure is estimated to increase to 400 to 500 million. These low-lying coastal regions vulnerable to changes in sea level brought about by climate change, storms or earthquakes. My research uncovers fundamental knowledge about how sea level has changed in the past and how it may change in the future. My findings therefore impact upon important ethical, social, economic and political problems specifically facing such coastal regions.
The Intergovernmental Panel on Climate Change (IPCC) re-emphasized the importance of sea level as a barometer of climate and drew attention to the potentially devastating consequences of future climate change. The IPCC highlighted the uncertainty with which the driving mechanisms of recent sea-level change are understood and the disconnect between long-term geological and recent observational trends. My research directly addresses the rates and geographic variability of sea-level change, which was highlighted at the top of the list of the eight priority science questions in the “Sea Change: 2015-2025 Decadal Survey of Ocean Sciences” report. The study of sea-level change was subsequently recommended as Strategic Research Priority I in “A Strategic Vision for NSF Investments in Antarctic and Southern Ocean Research”.
An incomplete understanding of the earthquake and tsunami hazards associated with the Sunda and Japan subduction zones contributed to the devastating societal impacts of the 2004 Indian Ocean and 2011 Tohoku events. Instrumental records of previous earthquakes and tsunamis proved too short to estimate the potential magnitude and recurrence interval of such great events that recur centuries to millennia apart. My earthquake and tsunami records on centennial and millennial temporal scales are necessary to understanding long-term subduction zone behavior and the occurrences of large, but infrequent events.
Tropical Cyclones and their associated storm surges are among the most destructive natural disasters to impact coastal regions. The severity and frequency of coastal floods is increasing (and will worsen in most locations over the 21st century. But the short timescale and narrow range of 20th century forcing captured by the instrumental record may not address important mechanisms underlying the dramatic changes expected in the late 21st century. My reconstructions of paleo storms reveal spatial and temporal variability of tropical cyclone activity and provided insight into their relationship with global climatic changes.
I have forged very strong international collaborations with developed and developing countries (e.g., Indonesia, Iran, Malaysia, Philippines, Vanuatu and Thailand). My research involves partnerships between fellows, graduate and undergraduate students of geology, archaeology, geophysics, oceanography, fluvial hydrology, statistics and atmospheric science. My research portfolio extends beyond the collection and interpretation of sea-level data to include topics as diverse as: development of Gaussian process models for the statistical analyses of paleoclimate data; the socio-economic impact of the 2004 Indian Ocean tsunami; the application of diatom analysis in forensic science; 20th century inter-decadal variability in temperature and precipitation; and the timing and location of emerging civilizations in relation to the productivity of coastal margins. I have thus assembled multinational, interdisciplinary research teams. This has enriched my own thinking and that of my postdoctoral scientists and graduate and undergraduate students. I am/have been supervisor to 22 students to the degree of PhD and 11 postdoctoral scientists. |
| Asst Prof Benoit Taisne | Benoit Taisne’s current research focuses on the early anticipation of the style and size of volcanic eruptions. He uses new tomographic methods (muon telescopes) to shed light on two crucial parts of the volcanic system that have so far remained elusive for volcanologists and hazard managers, and which are key inputs for ash dispersal models:
- The structure (i.e. density distribution) and geometry of the volcanic conduit,
- The characteristics of ash columns.
Results from the muon tomography experiments will be complemented by more traditional data and methods from different disciplines like geophysics (seismologic studies), geodesy (GPS studies), and geochemistry (petrology and gas chemistry). All these data will be jointly inverted in near real-time with physics-based models of magma migration to get quantitative values for key physical parameters controlling the eruption style, and hence anticipate the style and size of eruptions to come.
His main research interests are:
- Magma migration
- Eruption dynamic
- Development of realtime monitoring technics
- Numerical simulation
- Laboratory experiments in fluids dynamics |
| Asst Prof Caroline Bouvet De Maisonneuve | The development of increasingly precise geophysical monitoring tools has led to progress in the field of eruption forecasting, but predicting the size and vigor of an eruption remains a major challenge in the assessment of risks. The vast majority of active volcanoes display wide ranges in eruption styles over long and short time scales, from effusive lava flows or dome growth to explosive Strombolian, Vulcanian, or Plinian eruptions. My long term goals are to shed light on the combinations of processes and physical parameters that govern the magnitudes and styles of eruptions, and to enhance our ability to interpret geophysical and geodetic monitoring signals in terms of magmatic processes.
My main research interests, therefore, focus on:
What processes control the magnitude and style of a given eruption?
How and why do these controlling factors change from one eruptive center to the next?
Why does the magnitude and style vary from eruption to eruption at a same volcano?
In addition, the fact of addressing these questions may also bring elements of response to more petrology-based problems such as: How to reconcile the plutonic and volcanic record? How and where do magmas differentiate (e.g. assimilation vs. fractional crystallization)? How do the transport, accumulation, and differentiation of magma affect the formation of continental crust? |
| Asst Prof Cheung Sai Hung | -Catastrophe risk modeling, analysis, mitigation and management due to natural disasters and man-made hazards
-Reliability, Risk engineering and science
-Stochastic dynamics
-Complexity science
-Earthquake engineering, Performance-based engineering
-Sustainable urban planning and development
-Climate Change Impact Studies
-Optimal decision making, design and control under uncertainty
-Uncertainty quantification, System identification
-Structural health monitoring |
| Prof Chiew Yee Meng | He has had more than 25 years of research experience in many aspects of fluvial, hydraulic, coastal and offshore engineering. His particular research interest is in the area of erosion, sediment transport and turbulence. In addition to his research activities, Dr Chiew provides extensive consulting services to the engineering industries, both internationally and in Singapore. He was the Chairman of the 2nd International Conference on Scour and Erosion (ICSE-2) that was held in Singapore in November 2004.
SELECTED PUBLICATION LIST
1. Chiew, Y. M. "Mechanics of Local Scour Around Submarine Pipelines" Journal of Hydraulic Engineering, ASCE, vol. 116, no. 4, 515-529, 1990.
2. Chiew, Y. M. "Scour Protection at Bridge Piers" Journal of Hydraulic Engineering, ASCE, vol. 118, no. 9, 1260-1269, 1992.
3. Chiew, Y. M. and Parker, G. "Incipient Sediment Transport on Non-Horizontal Slopes" Journal of Hydraulic Research, IAHR, vol. 32, no. 5, 649-660, 1994.
4. Chiew, Y. M. "Mechanics of Riprap Failure at Bridge Piers" Journal of Hydraulic Engineering, ASCE, vol. 121, no. 9, 635-643, 1995.
5. Song, T. and Chiew, Y. M. and Chin, C. O. "Effect of Bedload Movement on Flow Friction Factor" Journal of Hydraulic Engineering, ASCE, vol. 124, no. 2, 165-175, 1998.
6. Cheng, N. S. and Chiew, Y. M. "Turbulent Open-Channel Flow with Upward Seepage" Journal of Hydraulic Research, IAHR, vol. 36, no. 3, 415-431, 1998.
7. Melville, B. W. and Chiew, Y. M. "Time Scale for Local Scour at Bridge Piers" Journal of Hydraulic Engineering, ASCE, vol. 125, no. 1, 59-65, 1999.
8. Cheng, N. S. and Chiew, Y. M. "Incipient Sediment Motion with Upward Seepage" Journal of Hydraulic Research, IAHR, vol. 37, no. 5, 665-681, 1999.
9. Ming, D. H. and Chiew, Y. M. "Experimental study for shoreline changes behind a detached breakwater" Journal of Waterway, Port, Coastal, and Ocean Engineering, ASCE, vol. 126, no. 2, 63-70, 2000.
10. Chiew, Y. M. and Lim F. H. "Failure behavior of riprap layer at bridge piers under live-bed conditions" Journal of Hydraulic Engineering, ASCE, vol. 126, no. 1, 43-55, 2000.
11. Song, T. and Chiew, Y. M. "Turbulence Measurement in Non-Uniform Open Channel Flow Using an Acoustic Doppler Velocimeter (ADV)". Journal of Engineering Mechanics, ASCE, vol. 127, no. 3, 219-232, 2001.
12. Chiew, Y.M. "Failure Mechanisms of Riprap Layer around Bridge Piers". Invited Paper (Plenary Section) in Proc. of First Int. Conf. on Scour of Foundations (ICSF-1), Vol. 1, 70-91, 2002.
13. Chen, X. W. and Chiew, Y. M. "Response of Velocity and Reynolds Stress Profiles to Sudden Change of Bed Roughness in Open-Channel Flow". Journal of Hydraulic Engineering, ASCE, vol. 129, no. 1, 35-43, 2003.
14. Chen, X. W. and Chiew, Y. M. "Velocity Distribution of Turbulent Open Channel Flow with Bed Suction". Journal of Hydraulic Engineering, ASCE, vol. 130, no. 2, 140-148, 2004.
15. Chiew, Y. M. "Local Scour and Riprap Stability at Bridge Piers in a Degrading Channel". Journal of Hydraulic Engineering, ASCE, vol. 130, no. 3, 218-226, 2004.
16. Lu, Y., Chiew, Y.M. and Cheng, N. S. "Review of seepage effects on turbulent open-channel flow and sediment entrainment". Journal of Hydraulic Research, IAHR, 46(4), 476-488, 2008. |
| Prof Chu Jian | Dr Chu's area of expertise includes labotrory and in-situ testing, soil properties, ground improvement, land reclamation, and waste utilisation. My research focus areas at the present are: (1) Instability behaviour of granular soil; (2) Innovative ground improvement methods including the use of microbial technologies; (2) Waste utilisation; and (4) Disaster mitigations. |
| Prof Daniel Marie Vaulot | * Diversity and oceanic distribution of marine phytoplankton, in particular green algae and Bolidophyceae.
* Analysis of marine eukaryotic communities using metabarcoding (nuclear 18S rRNA, plastid 16S rRN), especially on populations sorted by flow cytometry.
* Polar picoplankton communities and their adaptation to the long winter polar night.
* Development of databases for the analysis of eukaryotic metabarcodes: PR2 |
| Assoc Prof Danne Ojeda Hernandez | Her current research is devoted to the disciplinary redefinitions of Graphic Design and its implications in contemporary visual culture. It analyses antithetical aspects within the evolution of graphic design, like its communicative and allegoric nature, autonomy and social commitment, and expressivity and new media standards. The theoretical basis of this research includes binary concepts like natural/artificial, original/copy, public/private, and physical/virtual. The research is methodologically structured upon close readings of a variety of visual objects from the perspective of graphic design. These objects are discusses in connection with different sorts of conceptual platforms, like manifestos, (un)realized projects, curatorial proposals and critical reviews among others sources within today's dominant orientations in graphic design.
Moreover, her areas of interest can be summarized as follow: Issues in Visual Communication/Contemporary Design, Design Theory, Art/Design and Pedagogy, Design and Science and Art and Design relations. Her areas of specializations regarding professional practice are mainly editorial and exhibition design.
At NTU, Prof. Ojeda is engaged (or has been engaged) with the following projects:
TIER1 [2018] by Ministry of Education (MOE) › One and Three Books. An on going pedagogical and research project.
TIER1 [2013] by Ministry of Education (MOE) › D-SIGN-LAB. Research Experiments on Art, Design and Science with a focus on Magnetic Resonance Imaging (MRI) Analysis.
TIER0 [2010] Asian-Pacific Mega-exhibitions: A Critical Perspective
RCC [2009] For the Sake of a Second Life: Approaches to Sustainable Design
—
Selection of Danne Ojeda’s works:
http://www.d-file.com
https://www.paperbrains.net/
https://www.vanitas-book.com
— |
| Asst Prof David Lallemant | - Disaster risk modeling
- Engineering risk and reliability analysis
- Remote sensing and earth observation technology
- Geostatistics/spatial statistics
- Predictive modeling
- Humanitarian and development sciences
- Design thinking as a research tool |
| Prof Edgardo Manuel Latrubesse | Prof. Latrubesse main research interest includes Quaternary, fluvial and tropical geomorphology, hydrology of large rivers, impacts of human activities on large fluvial systems and tropical biomes, paleogeography of large rivers and plains, and hydro-geo-scientific contributions to multidisciplinary environmental research and global change. |
| Assoc Prof Emma Mary Hill | Geodesy, SAR, GPS, tide gauges, satellite gravity, natural hazards, earthquakes, sea level, natural disasters, tectonics, machine learning |
| Assoc Prof Federico Lauro | Dr Lauro has an aptitude matched with a passion, to discover the ways in which microorganisms evolve, adapt and function to drive the ecological processes that are critical for sustaining the health of global marine environments. He has purposefully developed skills in both experimental and computational sciences – in particular, deep-sea microbiology, and the latest “omic” technologies that are essential for deriving a clear and thorough understanding of microbial communities and ecosystem function. Importantly, Lauro has also gained an expert level of proficiency in microbial genomics – this has been achieved through the pursuit of creating bioinformatic tools for analyzing and modelling large datasets, involving a broad range of PERL-programming and implementation of open-source software. Along with his pursuit of marine microbial environments, Lauro is extending his exploration of microbial environments to that of the air microbiome. |
| Assoc Prof Fidel Costa Rodriguez | I'm interested in understanding the formation, transport, and eruption of magmas
(silicate melt, gas and crystals) on the Earth's surface. Main focus are the conditions
(pressure, temperature, volatile contents) at which magmas are stored prior to
eruption, the processes that lead to the erupted magma compositions
(magma mixing, crystallization), the rates and time scales at which these
processes occur, and, finally how all this information relate to volcanic monitoring
data and unrest phenomena. I have expertise and use a large variety of geochemical
(SEM, electron microprobe, SIMS, FTIR, LA-ICP-MS, XRF, INAA), experimental
(high pressure and temperature apparatus for phase equilibria),
and modeling (finite differences for kinetics in solid state) approaches. |
| Prof Kerry Edward Sieh | My principal research interest is earthquake geology, which uses geological layers and landforms to understand the geometries of active faults, the earthquakes they generate, and the crustal structure their movements produce. My early work on the San Andreas fault led to the discovery of how often and how regularly it produces large earthquakes in southern California.
More recently, my students and colleagues and I investigated Taiwan's multitude of active faults and figured out how their earthquakes are creating that mountainous island. We are currently exploring the earthquake geology of Myanmar (Burma). Our principal current research interest is the subductionmegathrust that produced the devastating giant Sumatran earthquakes and Indian Ocean tsunamis of 2004 and 2005. That research suggests that the megathrust is poised to produce yet another giant earthquake in western Sumatra.
I am also now involved in creation of the Earth Observatory of Singapore, which aims to conduct basic and applied research related to earthquake, tsunami, volcanic, and climate hazards. |
| Assoc Prof Law Wing-Keung, Adrian | Research in environmental fluid mechanics with special emphasis on wastewater disposal and impact, environmental hydraulics in wastewater treatment processes, pollutant transport in coastal environment, and advanced laser imaging techniques for measurements. |
| Asst Prof Lee Ser Huay Janice Teresa | After having worked on a range of topics in conservation (wildlife trade, invertebrate ecology, habitat fragmentation), I now focus on the conservation and development challenges faced in the context of commercial and small-scale agricultural expansion in the tropics. I am interested to pursue more research in the areas of conservation and development in the rural tropics, food security, sustainable certification of agro-commodities, as well as understanding how to curb the haze in Southeast Asia. |
| Assoc Prof Leong Eng Choon | Unsaturated soils, soil dynamics, field and laboratory tests, foundation engineering and numerical modelling.
Current research projects include:
1. Dynamic properties of Singapore soils
2. Instrumentation for the Study of Rainfall - Induced Slope Failures in Singapore
3. Soil Improvement for Tree Stability and Tree Root Systems
4. Slope Repair Technology in Singapore
5. Development of specialised container technology for growing trees in Singapore |
| Prof Lim Teik Thye | My core research fields are:
Advanced oxidation processes for water and wastewater treatment
Environmental catalysis for wastewater treatment
Environmental nanomaterials for water decontamination
My secondary research field is:
Waste-to-energy and waste-to-materials
Brief summaries of my research projects are listed below.
Catalytic advanced oxidation processes (AOPs)
I have 15 years of research track records in redox technologies for surface water, wastewater and groundwater treatment. For the oxidation technologies, my research activities cover sulfate-radical based advanced oxidation process or SR-AOP (homogeneous and heterogeneous), UV-based AOP (homogeneous and heterogeneous), Fenton processes (heterogeneous), photocatalysis (heterogeneous), electrochemical oxidation, and sonochemical oxidation, and hybrid AOPs. On SR-AOP, my group has made significant contribution to the scientific community in terms of advancing the understanding of the mechanisms of the heterogeneous SR-AOP with metal oxides (monometallic oxide and bimetallic oxides) and carbonaceous materials as catalysts to activate peroxymonosulfate (PMS) and peroxydisulfate (PDS). We have discussed our works in our numerous scientific papers and 3 critical reviews in the top journals. Specifically, we have provided insights into the radical and non-radical reaction pathways associated with transformation and mineralization of a wide range of organic emerging micropollutants such as antibiotics, cytostatic drugs, bisphenol A and industrial chemicals. On the homogeneous SR-AOP, our group is among the leading contributor to post-formation mitigation strategy for controlling iodinated disinfection by-products such as iodinated trihalomethanes and iodoacids in RO water. Our group also developed composite catalytic materials which comprise mixed metal oxides, bimetallic oxides, and catalyst-nanocarbon composites that exhibit multifunctional properties such as combined catalysis, adsorption-promoted catalysis, “switchable” catalysis, etc. Our iron-based catalytic composites can function as Fenton catalyst, photo-Fenton catalyst and photocatalyst, such that their applications can be switched over the day/night cycle. When irradiated with sunlight, they trigger sunlight-driven photocatalytic redox degradation of organic pollutants without any chemical addition. The materials can be recovered from the treated water using magnet. We have also developed a hybrid TiO2-activated carbon composites, which can be used as solar-driven photocatalyst or solar-regenerable adsorbent. This invention has been approved for PCT filing as a recognition of our intellectual property.
Catalytic ceramic membrane for removing recalcitrant organics
Over the last 10 years, my group has advanced the research of coupling catalytic oxidation and membrane separation process. The synergistic processes were enabled through our catalytic ceramic membrane research. We developed three types of such hybrid membranes: (1) photocatalytic membrane, (2) catalytic sulfate-radical oxidation membrane, and (3) catalytic ozonation ceramic membrane. One of our inventions, Ag-decorated photocatalytic TiO2-coated alumina membrane, has three functionalities: antibacterial and antibiofouling property, photocatalytic activity, and separation function with membrane pore sizes down to 4 nm.
The details of my research activities and publications are available at https://www.ntu.edu.sg/home/cttlim/ |
| Assoc Prof Low Bak Kong | Reliability analysis in geotechnical engineering, soil and rock slope stability, ground improvement, rock engineering, and engineering analysis accounting for uncertainty.
Current research works focus on geotechnical reliability-based design with insights for improving the evolving Eurocode 7 and the Load and Resistance Factor Design approach, for example as presented in his ASCE JGGE paper https://ascelibrary.org/doi/10.1061/%28ASCE%29GT.1943-5606.0001795, and his Chapter 4 of the ISSMGE TC205-TC304 joint report “Discussion of Statistical/Reliability Methods for Eurocodes” (the PDF file under the "Book Chapters" folder at http://alum.mit.edu/www/bklow).
Web of Science citation count and h-index are available at https://publons.com/researcher/2817861/Bak-Kong-Low/. |
| Asst Prof Marek Mutwil | Dr. Marek Mutwil and his research group combine computational and experimental biology to obtain a genome-wide understanding of gene function in plants. Despite decades of intensive research, only ~15% of genes of the most popular model plant Arabidopsis thaliana have been functionally characterized. To remedy this paucity of functional information, which prevents us from tailoring plants to our needs, the group produces large-scale transcriptomic (in form of RNA sequencing) and protein-protein interaction (PPI) data with the aim to build gene co-function networks. These networks can reveal genes that operate together in the same metabolic pathway, protein complex or regulatory circuit which makes them powerful tools to understand how gene products work together in the cell. The group uses gene co-function networks to answer three questions:
1) What are the functions of plant genes? To generate cutting edge gene function predictions we utilize our own and publicly available large-scale biological data, together with state-of-the-art ensemble prediction algorithms. We make these predictions publicly available with our popular online databases, such as GeneCAT and PlaNet.
2) How are biological networks evolving? Biological features (e.g. secondary metabolites or disease resistance) are encoded by polygenic gene modules, which often cannot be identified by genomics. To uncover them, we use a massively multiplexed protein-protein interaction assay which allows rapid elucidation of genome-wide PPI networks. By constructing and comparing networks of green algae, mosses, vascular-, seed- and flowering plants, we will gain a systems-level, kingdom-wide understanding of when these modules appear and how they change in plant evolution.
3) Which gene modules biosynthesize high-value compounds found in plants? Co-function networks based on RNA sequencing data are a proven tool to identify genes involved in biosynthesis of plant secondary metabolites. The group will focus on elucidating module-metabolite relationships with a special focus on plants of importance to Singapore and the bioprospecting of the rainforest. The functions of the elucidated modules, i.e. production of the secondary metabolites, will be tested by expression in heterologous systems, such as bacteria and/or yeast. |
| Assoc Prof Massimo Pica Ciamarra | We are interested in understanding the physics of disordered many-particle systems via statistical mechanics tools and numerical simulations, which is arguably one of the most pressing needs in material science. Such an understanding is crucial to 1) design atomic or polymeric disordered materials with specific mechanical and rheological properties; 2) rationalize natural catastrophic events, such as earthquakes and avalanches; 3) improve the many industrial products and processes handling particulate media, from the food to the pharmaceutical and the electronic industry. The main difficulty is the developing of a theoretical framework connecting the macroscopic and the microscopic scales in the presence of disorder. Some topics of specific interest are:
1. glass transition
2. suspensions of soft deformable particles, e.g. microgels
3. liquid with density anomalies
4. rheological properties of disordered particulate systems, with applications to earthquakes
5. pattern formation in driven particulate systems, e.g. segregation
6. transport properties in disordered media |
| Dr Natasha Bhatia | Dr Bhatia's research interests are centered around understanding the interactions between environmental economics and the marine environment. Through the identification and valuation of ecosystem services, policy and management decisions can be made in a way which promotes the sustainable use of the environment, something which impacts us all. Specific projects have previously included socio-economic valuation of Special Areas of Conservation along the east coast of England; Non-market modelling of the changing value of coastal ecosystem services in the wake of the 2013 UK storm surge; the FP7 project ‘VECTORS’ which investigated the drivers, pressures and vectors of change in marine life and its impact on marine economic sectors; and the EU project ‘DEVOTES’ which aimed to develop innovative tools for understanding marine biodiversity and the assessment of good environmental status, as well as creating conceptual models for the effects these pressures have on society. |
| Prof Pan Tso-Chien | Damage Assessment of buildings subjected to dynamic loading
Structural design for blast loading and missile impacts
Vibration isolation for structures and equipment
Seismic hazard, vulnerability and risk assessments |
| Asst Prof Patrick Martin | My research interests focus on the cycling of carbon, nitrogen, and phosphorus in the marine environment. The cycling of these elements is an essential part of the global climate system, and is also critical in supporting healthy marine ecosystems.
The main focus of my research group at the moment is to understand how land-derived organic carbon is processed biogeochemically at sea. South-East Asia's coastal peatlands are a globally significant source of dissolved organic matter to the ocean, but we do not understand well what happens to this organic matter at sea, and what the environmental consequences of this input are. Using a combination of in-situ observations, laboratory experiments, and remote sensing, we are trying to understand better how extensively this organic matter is degraded by microbial and photochemical processes, and how its presence influences light availability in coastal waters. We are also developing methods to better quantify land-derived organic matter in the sea both in the present (using optical spectroscopy and stable isotopes), and in the past (using palaeoceanographic reconstructions from coral cores).
Furthermore, I am interested in nutrient cycling processes in tropical coastal waters. Using time-series measurements, we are trying to understand how the rates of coral-associated nitrogen fixation are controlled by environmental conditions, and how the cycling rates and bioavailability of dissolved organic nitrogen and phosphorus on coral reefs are controlled. Nitrogen fixation is a potentially important process that contributes new nitrogen to coral reef environments, while the cycling of organic nitrogen and phosphorus is essential for maintaining productivity in nutrient-poor waters. |
| Prof Satish Singh | Professor Satish Singh has a very broad research interest in geophysics, covering theoretical developments, design of innovative field experiments, analysis and interpretation of a variety of geophysical and geological data using advanced techniques and has made fundamental contribution in several disciples of Earth Sciences. Some of the research achievements below highlights his research interests:
Modelling and Inversion: Singh is a world leader in modelling and inversion of seismic data and has established one of the most productive research groups in Europe. He was the first to recognise the importance of jointly inverting seismic reflection and refraction data and developed 2D and 3D tomographic inversion techniques. Long before waveform inversion became one of the main areas of research, he developed 2D full elastic inversion and applied to long offset streamer data, to ocean bottom cable data, and time lapse seismic and included electromagnetic data in a joint inversion.
Mid-Ocean Ridges. Singh started working on Mid-Ocean Ridges in late nineties when he first applied seismic full waveform inversion to seismic data from the East Pacific Rise and showed that axial magma chambers are segmented along the ridge axis between 2-4 km pure melt lenses at 15-20 km mush zones, and published his seminal paper in Nature in 1998. In 1997, in collaboration with colleagues from Scripps Institution of Oceanography, he led the world's first 3D seismic reflection-refraction seismic experiment at the northern East Pacific Rise and discovered the widest melt lens beneath 9ºN overlapping spreading centre and imaged the Moho beneath the axial magma chamber and published two papers in Nature (2000, 2006). In 2005, he led another 3D seismic experiment at the Mid-Atlantic Ridge, and discovered axial magma chamber at a slow spreading ridge for the first time (Nature, 2006).
Subduction Zones. After the 2004 great Sumatra Andaman earthquake, Singh launched an ambitious research program, which was not just funded by government funding agencies, but also by industry that provided their best technology to image the faults and rupture zone. Using these exceptional technologies, he was able image the subducting oceanic crust (top and Moho) down to 60 km depth. He showed that the down-going subducting plate breaks, bends and unbends as it subducts, possibly rupturing a part of the oceanic plate during great earthquakes, such as Sumatra 2004 (Nature Geoscience, 2008). He has imaged the deepest subducted seamount (30-40 km) beneath the Sumatra forearc continental mantle and suggested that subduction of seamounts can lead to a weak coupling, can act as barrier for rupture propagation, and hence reduce the maximum size of earthquakes (Nature Geoscience, 2011). Using these high-resolution seismic data, Singh suggested that large tsunamis during the 2004 and 2010 earthquakes were due to frontal rupturing, which was supposed to be aseismic; same thing happened during the 2011 Tohoku earthquake.
Gas Hydrate: Singh made a major impact on the study of gas hydrates when he inverted seismic data from the Cascadia margin and showed that bottom simulating reflections (gas hydrates) are mainly due to a small amount of free gas and the amount of hydrate above is also very small and therefore the total amount of methane present in gas hydrate stability zone along the continental margins would be an order of magnitude smaller than predicted previously and hence its effect on its energy potential and the global warming would be much small (Science, 1993).
Singh has also worked on the inner core suggesting that upper part of the inner core is partially molten (Sience, 2000). Now he wants to study the whole of the lithosphere, particularly the lithosphere-asthenosphere boundary and is organising series of marine experiments across Atlantic Ocean. |
| Prof Shane Allen Snyder | • Advanced oxidation processes for water treatment
• Analytical and bioanalytical methods for emerging environmental contaminants
• Novel sensor systems and networks for water treatment
• Water treatment process engineering and optimization
• In vitro bioassay systems for evaluating environmental mixtures
• Characterization of organic matter and disinfection byproducts |
| Mr Simon Redfern | Professor Redfern's work explores how minerals control and reflect Earth processes and he has worked in collaboration with a wide variety of Earth and environmental scientists, from climate scientists to volcanologists to palaeontologist to seismologists and even exoplanetary “geo”scientists. In all cases he is interested in how insights into nanometre scale features provide understanding of global processes. His work has extended to using insights from nature to develop new materials in the context of materials design and engineering.
His research interests focus on the physical and chemical properties of minerals and associated fluids in planetary interiors. He uses experimental and computational methods to understand the role of minerals in Earth and planetary processes at extreme pressures and temperatures. I has published more than 270 peer-reviewed papers in the scientific literature (H-index 46 [ISI], 54 [Google Scholar]), in internationally leading journals including Nature, Science, Physical Review Letters, Advanced Materials, Earth and Planetary Sciences Letters, JACS, Applied Physics Letters, and GRL. His research is highly inter-disciplinary and he has as many papers in the materials physics/chemistry literature as in geosciences.
Professor Redfern pioneered the development of combined high-pressure high-temperature methods for the study of materials and minerals by neutron scattering and was at the vanguard of researchers using neutron methods in Earth and planetary sciences, and built new facilities at Rutherford Appleton Laboratory (UK) for the wider user community, including the first high-temperature high-pressure Paris-Edinburgh Cell for deployment at neutron sources, now used worldwide. From 2003 to 2006 I was Chair of the working group that designed and implemented the Extreme Conditions Beam Line (I15) of the Diamond Light Source synchrotron.
He has edited several thematic sets of papers resulting from international scientific meetings that he convened, including a volume of Reviews in Mineralogy (Mineralogical Society of America) on "Transformation Processes in Minerals", his primary area of expertise. I have held several competitive UK research grants (total funding of more than £25m) and has led collaborations with a strong group of postdoctoral fellows and research students. He has supervised over 30 PhD students in Cambridge, and acted as postdoctoral mentor and advisor to more than 20 postdoctoral researchers, most of whom have gone on to permanent academic, business or governmental science positions. |
| Asst Prof Susanna Jenkins | My research interests lie in volcanic hazard, vulnerability and risk assessment for the purpose of disaster risk reduction. I achieve this through the use of numerical models, field studies and the statistical interrogation of large datasets.
Recent research has focussed on investigating techniques and frameworks for probabilistic hazard and risk assessment. This includes the development of large-scale multi-source ash dispersal models that calculate the total ash hazard at a site, rather than from a volcano (used for the 2015 UN-ISDR Global Assessment Report), and the quantification of likely hazards and physical impacts arising from volcanic eruptions, through pre- and post-eruption field studies and numerical modelling.
Research areas include Indonesia, Philippines, Italy, Iceland, Cape Verde and the Lesser Antilles. |
| Dr Sylvain Rigaud | Micropaleontology
Carbonate Sedimentology
Macroevolution
Biostratigraphy
I am comparing fossil and sedimentological archives. Convinced that the co-evolution of life and rocks through time will help resolving major questions about life inner workings and past climatic, environmental and oceanographic changes, I intend to develop innovative scientific projects, bridging disciplines, on various aspects of paleontology and sedimentology, with a special focus on the foraminiferal evolution over the Phanerozoic. The scientific questions I would like to address are:
• When and why did major foraminiferal radiations and extinctions occur?
• What controls the spatial and temporal distribution of foraminifers?
• How do foraminiferal tests reflect the biological and genetic complexity?
I therefore focus my research on questioning, refining and expanding our current knowledge on the taxonomy, evolution, phylogeny, ecology, biology, and geographic and stratigraphic distribution of foraminifers through time and space, with the final objective of constraining controls and mechanisms involved in life development and evolution and anticipating future impacts on life and climate. |
| Assoc Prof Tan Soon Keat | Dr Tan's research interests include application of geographical information system (GIS) in water resources, numerical simulation of flow for hydraulics and coastal engineering applications. His current research projects include hydrodynamic consideration of mega underwater structures and application of wetland technologies in the removal of pharmaceutical products from wastewater streams.
Dr Tan specilaises in urban water management, rainfall-runoff modeling as well as water quality modeling, flooding, drainage, urban response, climate change and future scenarios analysis. Managing surface water in terms of quantitative distribution, storage and transport, removal of water-borne contaminant, particularly trace quantity of drugs and pharmaceutical products from waste-water streams are challenges in the management of water resources, and in particular, supply of raw water in the face of climate change and rapid urbanisation. A viable and feasible solution is to employ wetland technology as a means to remove contaminants and management of peak runoff. Under the supervision of Dr Tan, a research team is carrying out a series of constructed wetlands experiments with raw water spiked with selected contaminants. The research work has produced meaningful results and highly cited publications since its inception in 2009.
Currently Dr Tan is leading research work on strategic development of coastal, urban scape and water resources, in response to climate change as well as developmental scenarios. |
| Assoc Prof Tan Soon Yim | Prof Soon Yim TAN's areas of expertise are electromagnetic scattering and diffraction theory, localization methodology and propagation models for wireless communication systems and sensor networks, and non-invasive cancer detection. His current research works focus on non line-of sight localization methodology for mobile communications and sensor networks, Microwave breast cancer detection and magnetic therapeutic. |
| Assoc Prof Teh Cee Ing | Application of numerical and computational methods to geotechnical engineering.
In-situ testings and interpretations.
Ground improvement. |
| Prof Tim White | Tim White has thirty years of experience in the design and demonstration of advanced materials for environmental, superconducting, ionic conductivity and hydrogen storage applications. His particular interests lie in tailoring ceramics at the atomic scale to develop or enhance particular properties. These studies have been supported and facilitated through the use of advanced characterization methods, including atomic resolution electron microscopy, crystal refinement using X-ray and neutron diffraction, and synchrotron-based surface analysis for the investigation of chemical states and molecular environments. He is author or co-author of over 200 publications, 4 conference proceedings, 3 patents and confidential reports to industry.
In 2006, he introduced a suite of teaching modules for materials scientists called On-line Micro- and Nano-characterisation Instruction (OMNI). These courses were extended by the Australian Learning and Teaching Council to create MyScope, a national curriculum in microscopy and imaging. For three years (2007-2009), he ran the first totally on-line course at NTU called Symmetry and Crystals. Together with a team from Centre for Excellence in Learning and Teaching (CELT), he is delivering the Coursera MOOC Beauty, Form and Function: An Exploration of Symmetry. |
| Asst Prof Tong Ping | Numerical methods, inverse problems, seismic imaging (migration+tomography), time-series analysis |
| Assoc Prof Wang Xianfeng | Climate Science
Isotope Geochemistry
Ocean Chemistry |
| Asst Prof Wei Shengji | 1, real time seismology
2, earthquake focal mechanism inversion
3, kinematic finite fault inversion, involving joint constraints from geodetic, seismological, tsunami and field observations
4, strong ground motion simulation with 3-dimensional velocity structure and their potential application to earthquake engineering
5, crustal to upper mantle scale velocity structure study, aim to establish path calibrations for earthquake studies and image slab structure in the subduction zones |
| Prof Wen Changyun | Prof Wen's areas of expertise are Adaptive Control,Switching and Impulsive Systems,Modeling and Design of Steam Ejector Based Air-Conditioning Systems,Modeling, Monitoring, Control and Optimization of Water Distribution Networks, Iterative Learning Control,Control of Nano-Systems, Control of Biomedical Systems,Optical signal Processing,Active Vision and Its Applications,Chaos-Based Secure Communication Systems,Robust Control,2-D Systems and Image Processing. Currently his current research works focus on Adaptive Control,Modeling and Design of Steam Ejector Based Air-Conditioning Systems,Modeling, Monitoring, Control and Optimization of Water Distribution Networks, Control of Nano-Systems, Control of Biomedical Systems,Chaos-Based Secure Communication Systems. |
| Asst Prof Wu Wei | Experimental geophysics and energy geomechanics, with emphasis on mechanism of induced seismicity, unconventional energy extraction and storage. |
