| Name | Research Interests |
| Asst Prof Abdulkadir C. Yucel | (i) Fast frequency and time domain electromagnetic simulators with applications to the VLSI/microwave/terahertz circuits, biomedical, photonics, wireless channel characterization, and analysis of highly inhomogeneous media.
(ii) Applications of machine learning, deep learning, and uncertainty quantification techniques to the electromagnetics |
| Assoc Prof Andrew James Kricker | Prof. Kricker's most significant research interest lies in the mathematical ramifications of current developments in mathematical and theoretical physics. To be precise, he is interested in the ramifications of certain developments in quantum field theory and quantum gravity in the fields of topology, algebra, and combinatorics. Prof. Kricker's particular speciality is in so-called "quantum topological invariants". These are invariants of knots, 3-manifolds, and various other low-dimensional topological structures, that arise from Topological Quantum Field Theories. More generally, he has a considerable general interest in the fields that surround this topic: knot theory, the theory of low-dimensional manifolds, Lie algebras, Hopf algebras, representation theory, homological algebra, algebraic combinatorics, and so on. |
| Asst Prof Bent Weber | • Atomic and electronic structure of two-dimensional and topological materials
• Quantum information processing science and technology
• Nanoelectronic and quantum device physics
• Low-temperature scanning probe microscopy
• Atomic manipulations and lithography |
| Assoc Prof Cesare Soci | Our research embraces several key areas of nanoelectronics and nanophotonics, including organic semiconductors and plasmonic materials, as well as new ideas on specialty optical fibers and “cognitive photonic networks”. We are particularly interested in fundamental properties of materials emerging from small dimensionality, large interface area, hybridization and artificial nanostructuring. |
| Assoc Prof Chai Gin Boay | Composite Materials & Structures, Buckling and Failure of Structures,
Practical Application of Finite Element softwares (ANSYS, ABAQUS, MARC/MENTAT). |
| Asst Prof Chang Wonkeun | - Ultrafast light-matter interactions
- Light source development in mid-infrared and vacuum-ultraviolet
- Ultrashort pulse generation
- Complex dynamics in pulsed laser systems |
| Dr Chen Yu | General Relativity; Condensed Matter Physics |
| Assoc Prof Cheong Siew Ann | Asst Prof CHEONG Siew Ann's areas of expertise are in computational physics, complex system dynamics, and bioinformatics. He is currently working on the development of self-consistent stochastic boundary conditions for ab initio and molecular dynamics simulations, methods to accelerate Monte Carlo simulations and high-dimensional optimization. He is also interested in developing automatic coarse-graining algorithms to perform data-driven identification of effective degrees of freedom in financial markets, very-large-scale computer simulations. He is also working on applying ideas from the Renormalization Group in statistical physics to the mining of very-large-scale databases. |
| Assoc Prof Chew Lock Yue | Dr Chew research interest is to investigate and uncover the fundamental physical mechanisms and organization principles of complex systems. He explores and elucidates the underlying behaviour and dynamics of these systems through theoretical modelling based on statistical and nonlinear physics. His current research focus is on the topic of: quantum complexity; quantum chaos and entanglement; statistical physics of protein aggregation; critical phenomena in social and coupled social-ecological systems; complexity measure and characterization of complex systems. |
| Assoc Prof Chia Ee Min, Elbert | Dr. Chia's areas of expertise are low-temperature condensed matter physics, specifically penetration depth studies of unconventional superconductors and ultrafast dynamics of strongly correlated electron systems. His current research works focus on ultrafast quasiparticle dynamics of high-temperature superconductors, heavy fermions, multiferroics, and nanocomposites. |
| Assoc Prof Chong Yi Dong | The focus of my research is topological photonics, a new field of photonics dealing with optical structures that support "photonic topological edge states": exotic electromagnetic waves that are qualitatively different from regular waves, analogous to electronic wavefunctions in topological insulator materials.
I am also interested in non-Hermitian photonics: photonic devices that exhibit qualitatively distinct behaviors in in the presence of optical amplification and/or dissipation. One such behavior is the phenomenon of "coherent perfect absorption"—the complete absorption of light via waveform tuning—a concept that I helped to develop.
I am also interested in several other areas, including the physics of random lasers, the theory of waves in lattices (e.g. Berry phase effects), nanoplasmonics, and computational electromagnetics. |
| Prof Christos Panagopoulos | Driven primarily by innovations in materials science and engineering, his research focuses on condensed matter systems with spontaneous tendencies toward complex electronic pattern formation. The materials investigated in his laboratory include spin and charge memory devices, magneto-electrics and high-temperature superconductors. These are part of a larger class of prime examples of frontier technology for the 21st century, displaying novel behaviours that do not conform to the quantum theory of solids developed over the past 70 years. Panagopoulos develops an international coordinated effort on the science and applications of emergent complex phases in modern materials. Understanding and controlling these spontaneous tendencies will enable the design and development of highly sensitive micro- and nano-scale devices where we tune electronic matter to the widest possible range, starting from an insulator to a high temperature superconductor. |
| Assoc Prof David Paul Maxime Wilkowski | * Quantum Mechanics
* Atomic Physics
* Nano-technologies
* Ultracold gases
* Coherent transport of Light in random Media (Anderson localisation, Superradiance)
* Gauge field physics
* Atoms/Metamaterial hybrid system |
| Asst Prof Dr Kedar Hippalgaonkar | Asst. Prof. Hippalgaonkar’s interests are in designing functional materials, especially for energy applications. He has fundamental knowledge in solid state physics, 1D (nanowires), 2D (TMDCs) as well as inorganic-organic (hybrid) materials. His approach to materials by design is built on creating and utilizing materials data by high-performance computing and high-throughput experiments to synthesize and characterize materials for optical and electronic properties. Specifically, he is leading projects on the application of high-throughput experimentation, optimization and machine learning on industry and academic projects on batteries, thermoelectrics and catalysis. In addition, he is interested in the use of material descriptors, machine learning and data science for materials discovery. His background is in transport properties of materials specifically in understanding their thermal, optical and thermoelectric properties. He is keen on developing tools such as process optimization, design of experiments and materials and process fingerprinting from materials development to device applications. |
| Assoc Prof Du Hejun | His research interests mainly include three areas: 1) numerical and computational methods for engineering applications; 2) MEMS sensors and actuators and micro-fluidics; 3) smart materials and their engineering applications. |
| Mr Edwin Tan Pei Ming | *****************************************************************************
Computer Science & Engineering
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I am interested in the theory and applications of the following areas:
• Artificial Intelligence
• Machine Learning
• Deep Learning
• Computer Vision
• Data Science
• Information Security
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Physics Teaching
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I have been involved in teaching the following Physics modules:
• PH1012 (Physics A)
• PH1104 (Mechanics)
• PH1105 (Optics, Vibrations & Waves)
• PH1106 (Electricity & Magnetism)
• PH2103 (Thermal Physics)
• PH3101 (Quantum Mechanics ll)
• PH3102 (Condensed Matter Physics I) |
| Prof Fan Hongjin | 1. Energy Materials and Physics.
- Nanomaterials for solar water splitting via photoelectrochemical cells
- Electrochemical energy storage (Li-ion and Na-ion batteries)
- Atomic layer deposition in energy applications
2. Optical Properties of Low-Dimensional Semiconductors
- Semiconducting nanowires
- 2D semiconductors especially their heterostructures, and nanostructured hybrid perovskites |
| Assoc Prof Fan Hui | Prof. Fan has been conducting research in the area of solid mechanics for over 20 years. His publications touched topics: fracture mechanics, mechanics of composites, micromechanics of defects in the solids, and multi-physics. |
| Assoc Prof Fan Weijun | His research interests include semiconductor band structure calculations by using effective mass theory, the first-principles method and empirical pseudopotential method (EPM); Compound semiconductor material growth, characterizations and device fabrications; Si photonics; Spintronics. |
| Assoc Prof Gao Weibo | Quantum information, Quantum optics, Nano-photonics, Solid state physics, Spin opto-mechanics, Hybrid system, Quantum dot, Rare earth ions.
1. Observation of entanglement between a single photon and a quantum dot spin,
Nature, 491, 426 (2012) [research result from the Marie-Curie Grant]
Wei-Bo Gao, P. Fallahi, E. Togan, J.M. Sanchez and Atac Imamoglu
See also News & views on Nature by S. E. Economou
Highlighted by Nature physics
2. Experimental measurement-based quantum computing beyond the cluster-state model,
Nature Photonics, 5, 117 (2011)
Wei-Bo Gao, Xing-Can Yao, Jian-Ming Cai, He Lu, Ping Xu, Tao Yang, Chao-Yang Lu, Yu-Ao Chen, Zeng-Bing Chen, Jian-Wei Pan
3. Experimental demonstration of a hyper-entangled ten-qubit Schrödinger cat state,
Nature Physics, 6, 331 (2010)
Wei-Bo Gao, Chao-Yang Lu, Xing-Can Yao, Ping Xu, Otfried Gühne, Alexander Goebel, Yu-Ao Chen, Cheng-Zhi Peng, Zeng-Bing Chen, Jian-Wei Pan.
Highlighted by Nature Photonics.
4. Quantum Teleportation from a Propagating Photon to a Solid-State Spin Qubit,
Nature Communications, 4, 2744 (2013)
Wei-Bo Gao, P. Fallahi, E. Togan, A. Delteil, Y. S. Chin, J.M. Sanchez and Atac Imamoglu
5. Experimental demonstration of topological error correction,
Nature, 482, 489 (2012)
Xing-Can Yao, Tian-Xiong Wang, Hao-Ze Chen, Wei-Bo Gao, A. G. Fowler, Robert Raussendorf, Zeng-Bing Chen, Nai-Le Liu, Chao-Yang Lu, You-Jin Deng, Yu-Ao Chen, Jian-Wei Pan
See also News & views on Nature by J.D. Franson |
| Asst Prof Gu Mile | One of the most remarkable facts about the universe is that it can be simulated on a computer. No matter what systems we study, whether it is the dynamics of planets or that of fluids, the rise of fall of tides or stock markets, they all can be simulated by a computer. This fact fascinates me.
After all, a computer is typically built out of silicon; it runs via the electro-magnetic force. What a priori reason would it allow us to understand the motion of planets governed by gravity, fundamental particles govern by the strong and weak force? This universality is, when you think about, rather remarkable. Somehow, everything we know around us, can be reduced to the processing of information.
My research interests are motivated by this remarkable observation. Can we find interdisciplinary laws that span multiple disciplines through the understanding of how nature fundamentally processes information? Some current directions:
On outset, Quantum and complexity science appears to be very different. The former details with objects at the atomic scale – atoms, electrons and photons. The latter, on the other hand, is typically associated with macroscopic systems is many interacting components – the weather, traffic, stock markets.
Yet the two science, in fact, an intimately linked; both are bring transformed by the study of information. In quantum science, new information theoretic techniques have allowed the `second quantum revolution’; heralding exciting new quantum technologies such as quantum cryptography and quantum computation. Meanwhile, in complexity science, researchers’ new ways of understanding just how massive systems interact with each other by seeing how they transform and process bits of data.
My interest is to unite these two fields – by forging new connections. Can quantum computation lead to new ways of understanding complex systems? Can the use of methods of complexity science help us understand how quantum computer’s get their power and bring forth new quantum technologies?
For more information, see
https://www.newscientist.com/article/mg22429950-200-quantum-logic-its-simpler-to-be-two-things-at-once
What Makes Quantum Computers Powerful?
What are the resources behind Quantum Advantage? Quantum computers are heralded to do many things that classical computers cannot, but what resource powers this advantage? For a long time, people thought that the main culprit is quantum entanglement – the unique quantum phenomena where the realities of two spatially separated particles are closely linked. Yet we now see that this may not be the full story. DQC1, for example, seems to allow us to compute the normalized trace of an exponentially large matrix in efficient time – and yet contain negligible entanglement. Meanwhile quantum illumination allows the better detection of faint particles far away in regimes so noisy that entanglement cannot survive. What other resources are associated with improved quantum advantage? We are interested in this question both for practical and foundational concerns. On the one hand, it can lead to noise resilient quantum technologies; on the other it may tell us fundamentally what is quantum. |
| Dr Ho Shen Yong | Physics Education, Quantum Physics |
| Asst Prof Huang Changjin | 1. Cellular and tissue biomechanics
2. Mechanobiology
3. Theoretical and computational modeling of biological systems
4. Mechanics of soft matters |
| Assoc Prof Huang Weihong | Dr. Huang has wide research interests ranging from microeconomics, industrial organization, financial economics, public economics to nonlinear economic dynamics. Recently, Dr Huang has devoted much time and effort to reexamine the economic behaviors from the perspective of ancient Chinese philosophy. In recent years, he has devoted his most effort in incorporating ancient philosophical wisdom to the analysis of the economic behaviors. |
| Assoc Prof Huang Xiaoyang | Microscale fluidics and acoustics, nonlinear acoustics, aerodynamic instabilities, flow-structure interactions. |
| Asst Prof Justin Song Chien Wen | Justin's research interests cover a broad range in theoretical condensed matter physics and emergent phenomena in quantum materials. He is particularly interested in Berry phases/quantum geometry and its interplay with interacting correlated electronic systems and transport/dynamical phneomena. Other interests include plasmonics, out-of-equilibrium quantum phases, as well as unconventional charge/valley/spin/energy transport and interactions in vdW layered heterostructures. |
| Assoc Prof Kantisara Pita | Prof K. Pita's areas of expertise are synthesis and fabrication of novel oxide based films and nanoparticles for photonics applications such as light emitting based devices, waveguide based devices and solar cells. His current research works focus on novel oxide based films/nanoparticles materials system for light emitting based devices, solar cells and waveguide based devices. |
| Dr Koh Teck Seng | (1) Quantum information and quantum computation:
- Quantum Control and Decoherence of Quantum Dot Spin Qubits
- Bayesian Quantum Noise Spectroscopy
(2) Science, Technology and Society:
- Trust, Security and Ethics with Quantum Technologies
(3) Physics Education Research |
| Asst Prof Lan Shau-Yu | My research interests focus on utilizing quantum optics, atom optics, and laser cooling and trapping techniques for quantum sensing, precision measurement, and quantum metrology. For example, I am going to explore the use of an optical matter wave guide based on a hollow-core photonic crystal fiber. This could lead to demonstration of atom interferometry with optically guided matter waves inside the fiber and use it for mobile gravity gradiometry, testing the charge neutrality of atoms, and eventually measuring Newton’s gravitational constant G. This research could bring research in the field of atomic sensor and precision measurement to the next level of compactness and versatility combined with high accuracy. |
| Prof Lee Soo Ying | My current areas of research interest include: Understanding vision; many types of Raman scatering; ultrafast nonlinear spectroscopy; molecular reaction dynamics; multidimensional spectroscopy. |
| Dr Leek Meng Lee | In general, my interests are in theoretical condensed matter and in theoretical high energy physics.
In theoretical condensed matter physics, my interest is towards many-body theories like Non-equilibrium Green’s Function (NEGF) in applications like transport in materials.
In theoretical high energy physics, my interest is towards supersymmetric quantum field theories and theories related to quantum gravity and unification of forces. |
| Prof Leopold Schmetterer | Includes a wide array of sub-specialties in ophthalmology including imaging, glaucoma, medical retina and dry eye syndrome. |
| Prof Lew Wen Siang | Dr Lew's areas of expertise are spintronic devices, nanoscale magnetism, and bio magnetic sensors. |
| Asst Prof Li Hong | Dr. Li’s expertise is development of electrochemical devices and catalysts for energy conversion and storage applications. His current research works focus on energy conversion through designing of electrochemical devices and engineering of electrocatalysts. |
| Assoc Prof Li Hua | Dr. Li Hua's area of expertise is computational science and engineering. His current research works focus on the multiphysics modelling of soft matters (smart hydrogel in BioMEMS and biological cell in micro scale fields), development of highly efficient numerical computational methodology (meshless & multiscale algorithms), simulation of sustainable energy (building energy efficiency and fuel cell system), and dynamics (high-speed rotating shell and composite materials structure). |
| Asst Prof Liew Chi Hin Timothy | Spin Dynamics of Excitonic Systems :
Excitons are bound hydrogen-like states of electrons and holes, typically appearing in semiconductor quantum wells. Their electric dipole moment allows them to couple to light, particularly in semiconductor microcavities, and if this coupling is strong enough it can lead to hybrid states of excitons and light known as exciton-polaritons. Being hybrid states, exciton-polaritons inherit a mix of electronic and optical properties, including strong nonlinearities, sensitivity to electric/magnetic fields, long coherence times, fast picosecond scale dynamics. Theoretically, excitons and exciton-polaritons are also interesting for their rich spin dynamics, which gives rise to the optical spin Hall effect, spin-to-orbital angular momentum conversion; and spinor vortex dynamics.
Optical Circuits :
The nonlinearity of exciton-polaritons implies their application as optical circuit elements. While exciton-polariton systems are highly lossy, they admit a mechanism of signal propagation that mimics the signal propagation of biological neurons where losses are fully compensated by amplification. Recently a complete theoretical framework of polariton based circuits has been developed , accounting fully for disorder and finite lifetime. Mechanisms of hybrid electro-optic circuits can be based on incoherently excited polariton transistors or alternative mechanisms of bistability.
Quantum Optics in Weakly Nonlinear Systems :
To generate quantum effects from an optical system one typically requires nonlinearity stronger than the system decay rate. For example, the well known photon blockade effect requires the interaction energy between two photons to exceed the linewidth. Unfortunately, most photonic systems (e.g., microcavities or photonic crystals) have short photon lifetimes. Recent research moves to circumvent this problem by making use of quantum interferences or mechanisms of amplifying a weak nonlinearity.
Bosonic Quantum Cascade Lasers :
A variety of semiconductor nanophotonic systems have been considered for the emission of terahertz radiation, where one typically aims to convert an optical photon into a terahertz photon. While terahertz sources have several practical applications, this process is highly inefficient as the terahertz photon carries only a small fraction of the initial energy. To overcome this problem, the concept of a bosonic quantum cascade laser has been introduced , making use of multiple terahertz emitting transitions in an exciton trap. Unlike fermionic quantum cascade lasers, the efficiency is greatly increased by bosonic final state stimulation (achieving quantum efficiency above unity) while the system size is on the micron scale.
Topological Photonic/Exciton Systems :
The field of topology has proven how macroscopic properties of physical systems can result in exotic features at the boundaries between topologically distinct materials. Following earlier ideas from electronic topological insulators and photonics, the theory of topological polaritons and topological indirect excitons was recently introduce. In these systems, density currents propagating in chiral edge states are protected from scattering with disorder, which is a clear advantage for exciton based optical circuits.
Optical Neural Networks :
Neural networks exploit massive interconnectivity to become highly efficient at certain tasks, such as classification, and pattern recognition. While biological neurons may operate individually on millisecond time scales, their simultaneous connection to several thousands of other neurons allows a parallelization of tasks far beyond the capabilities of complementary metal-oxide-semiconductor logic. Naturally, this observation has motivated research into optical neural networks.
Open Positions:
PhD and Postdoc Positions are available (http://www.spms.ntu.edu.sg/pap/Home/Faculty/TimothyLiew.html). |
| Mr Lim Kim Song | I'm interested in the interaction between Geometry, Topology and Physics.
Currently, I've some interest in string theory, in particular on the compactification of Superstring and M theory via threefold Calabi-Yau manifold in complex geometry as well as its mirror counterpart in symplectic geometry.
Understanding relativity, classical and quantum mechanics through symplectic geometry are also some of my wishes.
I'm also keen to look at the application of the Atiyah-Singer Index theorem to resolve anomalies that arises in theoretical physics, especially those appear in (two dimensional) conformal field and gravitational theory. |
| Assoc Prof Liu Quan | • Biophotonics
• Biomedical optical spectroscopy and imaging
• Non-invasive medical diagnostics
• Biomedical instrumentation
• Computer simulation of light propagation in tissue |
| Assoc Prof Loh Zhi Heng | The central theme of our experimental research program is the study of coherent electron and nuclear dynamics in molecules and nanomaterials. Coherent electron motion and the ensuing quantum dynamics set forth by either optical excitation or nonresonant strong-field ionization with few-cycle laser pulses will be probed with attosecond to femtosecond time resolution. This proposed work builds upon my previous work, in which coherent electron motion in Kr+ ions that accompanies the formation of a spin-orbit wave packet is observed (Nature, 2010).
The main experimental techniques that are employed include attosecond time-resolved core-level transient absorption and transient photoelectron spectroscopies, in which soft x-ray pulses produced in a tabletop setup by high-order harmonic generation are used as probe. These soft x-ray studies are complimented with optical pump-probe measurements employing few-cycle (~5 fs) laser pulses. The ultimate goal of our studies is to exploit quantum coherences to enhance the performance of nanoelectronics and artificial light harvesting systems. |
| Asst Prof Lu Bing Sui | 1. The Casimir effect
2. Fluctuation-induced interactions
3. Polyelectrolytes
4. Soft condensed matter |
| Asst Prof Luo Yu | Metamaterials for microwave and optical applications
Transformation optics and invisibility
Nonlocal and quantuenm effects in mesoscopic plasmonic systems
Nonlinear phenomenon in active metamaterials
Openings
We currently have openings for PhD students and research fellow (postdoc). |
| Asst Prof Marco Battiato | In the past, Marco Battiato developed the model of superdiffusive spin transport as a mechanism of the ultrafast demagnetisation, prediction which was experimentally confirmed. He has worked since then on several topics that stemmed from the discovery of the ultrafast spin transport: 1) ultrafast spin injection, 2) triggering of ultrafast demagnetisation via injection of excited unpolarised carriers, 3) ultrafast increase of the magnetisation, 4) generation of THz emission via injection of ultrashort spin current pulses in high SO coupling materials, and 5) injection of ultrashort spin current pulses from ferromagnetic metals into semiconductors.
He is currently interested in a wide range of phenomena that arise from the complex interplay of strongly out-of-equilibrium electronic populations in real band-structures, out-of-equilibrium transport in multilayers, and formation of THz electromagnetic fields. He is developing a massively parallel solver for the full Boltzmann-Maxwell system for real space transport in ab-initio band-structures, using the most general (without close to equilibrium approximations) expression of the collision operator for strongly out-of-equilibrium thermalisation dynamics.
He is applying the method to:
- Thermalisation of laser excited carriers in topological insulators;
- Ultrafast spin transport in metallic multilayers and metal-semiconductor junctions;
- THz emission after laser excitation of multilayers;
- Ultrafast dynamics triggered by THz excitation.
Finally one of his main goals is the construction of all the building blocks of ultrafast THz spintronics using the sub-picosecond spin current pulses as vector of information. |
| Assoc Prof Marcos | His research interests include small scale fluid dynamics, microfluidics, swimming in non-Newtonian fluids, and bio-locomotion. |
| Asst Prof Martial Duchamp | Development of novative in operando TEM methods for application to solar cells, batteries, fuel cells devices...
In situ and in operando TEM studies of 2D devices for applications in optoelectronics, electronic, sensors...
Fundamental understanding of 2D materials to reveal their unprecedented electrical properties at local scale including half-metallic, semiconducting, superconducting and charge density wave behavior |
| 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 |
| Asst Prof Matteo Seita | Dr. Seita’s research is focused on the development of novel metallic materials with improved reliability and tailored properties using additive manufacturing technology. Areas of current interest are:
- Microstructure control during metal additive manufacturing;
- Development of novel additive manufacturing techniques;
- High-throughput characterization of polycrystalline metals;
- Grain boundary crystallography-property relationships;
- Environment-assisted failure of structural metals and metal alloys. |
| Assoc Prof Mu Yuguang | Research Fields
1. MD simulation method and data analysis method development.
2. DNA dynamics, DNA ?protein, DNA-counterions interaction study.
3. Peptide, protein folding, unfolding study, specially aimed at folding, misfolding mechanism which could lead to amyloid fibril.
4. RNA dynamics and folding study. |
| Assoc Prof Murukeshan Vadakke Matham | Associate Professor Murukeshan V Matham's research expertise and focus interests falls under the category of (i) Biomedical Optics and Nanoscale optics(iii)Applied Optics, (iv) Optical Metrology, and (v) Fiber Optic sensing (IF, PCF, HiBiF and POF).
The details of his Research Frontiers and current projects can be found in brief as given below:
RESEARCH FRONTIERS & CURRENT FOCUS
(i) Nanoscale optics
(ii) Biomedical optics ( Multimodal Imaging) and Instrumentation
(iii) Applied Optics for precision engineering and metrology(measurement), Nondestructive testing (NDT) and machining
Major Current on-going projects:
BIOMEDICAL OPTICS
(i) Multimodality multidimensional imaging for tissue imaging and cancer diagnosis
(ii) Photoacoustic, Hyperspectral and Fluorescence Imaging and Spectroscopy
(iii) High resolution Probe and Microscopy for Ocular ( Corneal and Angle) Diagnostic Imaging
(iv) Optogenetics and Microscopy around opaque obstacles - Instrumentationa and Novel concepts
(v) Nanoscale Multi molecular probes for theranaustics
NANOSCALE OPTICS
(I) Random Media and Nonlinear Optics for next generation optoelectronics and energy harvesting applications
(ii) Specialty Fibers ( Image fiber and Photonic Crystal and crystal fibers for communications and bio-sensing
(iii) Novel Interferometric ( EW and SP) lithography for sub-30nm feature fabrications- semicon and bio applications
(v) Nanoscale Optics and Waveform Control for Laser 3D Printing ( A next generation investigation)
APPLIED OPTICS
(i) Applied Optics/ Optical Metrology for engineering applications
(ii) Large Area Dimensional Measurements (
(iii) Investigation into development of flexible probe for surface roughness measurements of internal structures and inaccessible areas |
| Asst Prof Nam Donguk | We have "1" openings for PhD scholarship which offers >2,000 SGD monthly allowance. The potential research areas are:
- 2D material-based optoelectronics
- Silicon photonics for medical applications
We are also looking for highly motivated postdoc candidates in the following research areas:
- Silicon/germanium photonics
- Nanolasers using emerging materials
- 2D materials-based optoelectronics
- Quantum photonics (e.g., single photon emitters)
If you are interested, please send your CV to dnam@ntu.edu.sg. |
| Assoc Prof Ng Beng Koon | My research expertises include the physics of impact ionization process in semiconductors, the design and characterization of advanced photodetectors, and the use of Biophotonics imaging techniques for medical diagnosis. |
| Assoc Prof Ng Yin Kwee | His main area of research is thermal imaging, biomedical engineering; computational turbomachinery aerodynamics; marine sustainable energy problems; computational fluid dynamics & computational heat transfer such as laser modelling, bioheat transfer analysis. He is the: Adjunct National University Hospital Scientist; Editor-in-Chief for the J. of Mechanics in Medicine and Biology; J. Med. Imaging and Health Informatics (Founding EiC); and strategy Assoc. Editor-in-Chief for World J. of Clinical Oncology;
Assoc. Editor for Int. J. of Rotating Machinery; Computational Fluid Dynamics J. (CFDJ); Int. J. of Breast Cancer, Chinese J. of Medicine, Open Medical Informatics J., Open Numerical Methods J., J. of Healthcare Engg, J. of Scientific Conf. Proceedings, and J. of Bionano Science & many more; co-chairman for 15th Int. Conf. on Mechanics in Medicine and Biology (2006); co-chair of the working group on thermal imagers under Medical Technology Standards Committee by SPRING, Singapore (handling the international standardisation aspects for thermal imagers for ISO-IEC) etc. |
| Asst Prof Ni Ran | The concept of "soft matter" was first introduced by Pierre-Gilles de Gennes in his Nobel lecture in 1991. Essentially, soft matter is a subfield of condensed matter comprising a variety of physical systems that are deformed or structurally altered by thermal or mechanical stress of the magnitude of thermal fluctuations. Because of their responsivity with respect to perturbations, e.g. thermal fluctuations, mechanical deformation, external fields, etc., soft matter have shown great promise as the next generation “smart materials”.
In our group, we use computer simulation as a tool to study and predict the structural properties and dynamic behaviour of soft matter systems in and out of equilibrium to direct the experimental fabrication of functional materials. In particular, we are interested in the self-assembly of colloidal and (bio) polymer systems and work synergically with experimentalists to design new functional materials with application in photonic devices, bio-sensor, bio-materials, etc. Presently, we are interested in the projects below:
1. Dynamic assembly of active matter
2. Glass transition of anisotropic colloids
3. Hierarchical self-assembly of anisotropic colloids
4. Self-assembly of fibril-forming polypeptides |
| Prof Nikolay Zheludev | Nanophotonics, Metamaterials, Nonlinear Optics |
| Prof Peter M. A. Sloot | I try to understand how nature processes information. I study this 'natural information processing' in complex systems by computational modeling and simulation as well as through formal methods. My work is applied to a large variety of disciplines with a focus on -but not limited to- Biomedicine. Recent work is on modeling the virology and epidemiology of infectious diseases, notably HIV, through Complex Networks, Cellular Automata and Multi-Agents. Recently in my work I try to build bridges to socio-dynamics. Currently I lead two large EU projects: ViroLab and DynaNets and supervise research from various NIH, NSF and NWO and Royal Academy projects.
See: http://www.peter-sloot.com/ |
| Prof Peter Torok | My research interests span through the entire range of classical optics, including optical design, electromagnetic imaging theory, polarisation, confocal microscopy, compressive/single pixel imaging, Brillouin and Raman spectroscopy and microscopy, reconfigurable optics and various metrology applications. Since its inception in 2018 my research group at NTU mostly concentrates on highly interdisciplinary applications of optics working in collaboration with colleagues in life- and biomedical sciences. |
| Prof Phan Anh Tuan | Professor Phan's research is at the interface between Physics, Chemistry and Biology. His group uses a combination of physical, chemical, biological and computational methods to investigate and manipulate properties of biomolecules. The research goals include:
(1) Structures, dynamics, interactions and functions of DNA, RNA and proteins.
(2) Noncanonical structures of DNA and RNA as molecular targets against diseases.
(3) Structural design and engineering of nucleic acids and proteins.
(4) Application and development of methods, including Nuclear Magnetic Resonance (NMR) and other spectroscopic techniques, as well as single-molecule manipulations, for the study of biomolecular structures and dynamics. |
| Assoc Prof Pinaki Sengupta | My research interests lie in exploring the physics of strongly correlated many body systems combining analytical and computational approaches, focusing on novel quantum phases and quantum phase transitions that arise from the interplay between competing interactions, lattice geometries and external potentials like applied magnetic field. The search for such exotic phases is driven by fundamental and technological motivations. The technological interest results from the possibility of novel functionalities – such as colossal magnetoresistance and high temperature superconductivity – associated with these new states of matter. The theoretical motivation lies in understanding the nature of fundamental interactions in matter. Working closely with several experimental groups, I use analytical methods supplemented by large scale computer simulations to develop theoretical frameworks (based on appropriate microscopic models of the relevant materials) to explain the many unique experimental observations and provide guidelines for future experiments in different strongly correlated systems including quantum magnets and ultracold atoms trapped in optical lattices. Some representative problems that I have worked on in the recent past are:
1. Supersolid: The supersolid is a novel phase of matter that has simultaneous solid and superfluid character. Although first postulated more than 50 years ago, this phase has never been observed in nature despite intense experimental efforts. I showed for the first time the conditions necessary for realizing such a phase in trapped ultracold atoms in optical lattices. Subsequently, I extended the idea of supersolid phase to quantum magnets and proposed the spin supersolid phase, an idea that has gained widespread recognition in the Condensed Matter Physics community.
2. Quantum magnetism at high magnetic fields: The rapid advance in material synthesis has produced a wide variety of spin compounds with different moments, interactions and geometries. The interplay between competing interactions, coupled with strong magnetic fields results in several novel quantum phases. I work with several experimental groups at the National High Magnetic Field Laboratory (USA) as well as at Oxford and Cambridge Universities (UK) to understand the unique experimental observations in many such compounds including formation of magnetic crystals and Bose Einstein Condensation of magnons.
3. Ultracold atoms in optical lattices: A rapidly emerging field of research lies at the interface of Atomic and Condensed Matter Physics. Magneto-optic trapping and evaporative cooling of atoms has opened a new frontier in the study of strongly correlated systems. I have investigated the novel superfluid to insulator transition in these systems, the interplay between interacting Bosons and Fermions, and the formation of quantum glassy phases in the presence of disorder.
4. Control of quantum systems: I have developed a scheme to designing soft scalable pulses for the coherent control of interacting quantum systems (qubits). Such pulses have important applications in the fields of solid state Nuclear magnetic Resonance, quantum information processing (including quantum computation) and optical (laser) probes for biomedical applications.
5. Theoretical biology: Cholesterol plays an important role in the stability of lipid membranes. Experiment shows that at certain concentrations of cholesterol, the membrane acquires extra stability. Using a simple model, I explained the origin of this enhanced stability. |
| Assoc Prof Poenar Daniel Puiu | Sensors & actuators; MEMS; Si processing; (Bio)chemical sensors; bio-photonics; colour discriminators (e.g. using triple junction structures); miniaturization of bio-analitical methods (e.g. spectrometry, electrophoresis, chromatography) for (Bio)chemical applications, as well as optical detection for these separation methods; bio-photonics & opto-fluidics |
| Assoc Prof Qian Kemao | Dr Qian's areas of expertise are optical metrology, image processing and computer animation. |
| Assoc Prof Rainer Helmut Dumke | The investigation and utilization of wave properties of atomic matter is of great interest in fundamental as well as in applied physics. Due to the recent progress in the control of ultra cold atomic matter, there is now a major effort to develop compact and fully integrated Atom-Chip devices. These systems will be suitable for a broad spectrum of applications ranging from Bose-Einstein condensation, atom interferometry, quantum information processing to high precision measurements. |
| Assoc Prof Ranjan Singh | Dr. Singh’s research interests lie at the intersection of electromagnetics, materials, photonics and micro-nanotechnology, with special focus on studying light-matter interaction at the micro-nanoscale. Broadly his research interests are in the areas of nanophotonics, semiconductors, metals, superconductors, plasmonics, metamaterials and nanofabrication. He has been working on design, simulations and fabrication of novel electromagnetic devices including metamaterials, plasmonic resonators and complex oxide transition materials, while simultaneously exploring their applications in information, sensing and energy.
Dr. Singh’s research interests are focused on the development of terahertz, infrared, and optical metamaterial based active and passive plasmonic devices. Metamaterials have been found to possess exotic properties and effects that are beyond the realms of materials that exist in nature. His contributions in the field so far has been in the terahertz region where he demonstrated classical active and passive analogues of electromagnetically induced transparency through near field coupled metamaterial resonators, sensing with metamaterials, chiral metamaterials, ultra-high quality factor Fano resonances, and ultrafast superconductor metamaterials.
Dr. Singh’s recent research focuses on addressing the issue of losses in subwavelength plasmonic metamaterials and investigates new dynamic materials that could be integrated with metamaterial resonators to achieve the active control of the photonic devices with exotic properties. |
| Prof Redfern Simon Anthony Turner | 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. |
| Assoc Prof Rusli | A/Prof Rusli's areas of expertise are on the growth, characterization and application of amorphous thin films which include a-C:H, a-Si:H, a-SiC:H, a-SiN:H etc. He has also worked extensively on the design, fabrication and characterization of high frequency, high power and high temperature SiC power devices. His current research works focus on silicon nanowires and their applications. |
| Assoc Prof S. N. Piramanayagam | The research interests of A/Prof S.N. Piramanayagam lies in the interdisciplinary areas of condensed matter physics, materials science and electronics. In particular, his research aims to solve problems related to magnetism and electronics and to provide technological solutions.
His research interests can be divided into the the following sub-categories:
• Magnetic Nanostructures (for memory, energy and biological applications)
• Neuromorphic Computing
• Spintronics Materials
Students who wish to work in his group can contact him at prem@ntu.edu.sg |
| Prof Shen Zexiang | Raman spectroscopy and microscopy
Graphene and graphene composite materials for electric energy storage - Li & Na ion batteries, supercapacitors
flexible battery for bendable electronics
Nano Science and Nano Technology
Plasmonics
Optical and electronic properties of 2D materials
Optical study of perovskite materials
Ultra low wavenember Raman spectroscopy
High pressure study
Theoretical simulation of graphene, 2D materials, and perovskites
Industrial collaborators:
Johnson Matthey, UK
Elbit Systems, Israel
Thales, France
Akzo Nobel, Netherlands
Globalfoundries
Wintech Nano |
| Assoc Prof Shu Jian Jun | Associate Professor Jian-Jun SHU's areas of expertise are Applied Mathematics, Thermo-Fluid Mechanics and Biophysics. His current research works focus on Biomolecular Mediated Computer, Mathematical Strategame Theory and Nano/Micro Fluids.
My published works have inspired articles, interviews, editorials worldwide. See some selected links below:
The next step in DNA computing: GPS mapping? http://www.acs.org/content/acs/en/pressroom/presspacs/2015/acs-presspac-may-6-2015/the-next-step-in-dna-computing-gps-mapping.html
The next computer: Your genes http://www.physorg.com/news/2011-05-genes.html
Efficient DNA-based computing could replace silicon http://www.popsci.com/science/article/2011-05/faster-more-efficient-dna-based-computing-could-replace-silicon
Is DNA computing going to terminate Internet banking? http://arstechnica.com/science/news/2011/05/is-dna-computing-going-to-terminate-internet-banking.ars
Computing with DNA http://kemo-d7.livejournal.com/1190416.html
DNA计算机： 计算的未来 http://sztqb.sznews.com/html/2011-05/30/content_1593552.htm (in Chinese-中文)
DNA是计算的未来 http://www.mittrchinese.com/single.php?p=61864 (in Chinese-中文)
科学家拟造DNA环保电脑 http://newspaper.jfdaily.com/xwcb/html/2011-08/31/content_646298.htm (in Chinese-中文)
Computadoras del futuro estarán basadas en ADN http://www.tecnopc.org/noticias/computadoras-del-futuro-estaran-basadas-en-adn/ (in Spanish-Español)
Futuros computadores pueden ser a base de ADN http://buscandoladolaverdad.blogspot.com/2011/05/futuros-computadores-pueden-ser-base-en.html (in Spanish-Español)
La siguiente computadora - Tus genes http://www.neotroid.com/index.php/tecnologia/la-siguiente-computadora-tus-genes.html (in Spanish-Español)
Computadoras con base en ADN http://www.zonafranca.mx/computadoras-con-base-en-adn/ (in Galician-Galego)
Calculatoarele viitorului ar putea fi pe bază de ADN http://totb.ro/?p=12767 (in Romanian-Română)
ДНК — Будущее вычислительной области http://compblog.ilc.edu.ru/blog/science/2108.html (in Russian-Русский)
ДНК-Компьютер идет на смену своему кремниевому собрату? http://globalscience.ru/article/read/19396/ (in Russian-Русский)
Der nächste computer- Unsere gene! http://www.denkmaschinen.ch/2011/05/17/der-nachste-computer-unsere-gene/ (in German-Deutsch) |
| Prof Sum Tze Chien | My research focuses on investigating light matter interactions; energy and charge transfer mechanisms; and probing carrier and quasi-particle dynamics in a broad range of emergent nanoscale light emitting and light harvesting systems using Femtosecond time-resolved spectroscopy. These can be categorized under two main research themes: (1) light emitters/lasing and (2) photovoltaics. I have also established a 3rd category: (3) Aspirational Areas to explore new ideas and concepts away from my two core research themes. Specifically, I seek to address the following three questions in these systems:
(a) Where did the energy go? That is the interplay of carrier/quasi-particle dynamics between the host energy levels, defect energy levels and the dopant energy levels.
(b) What are the underlying photo-physics and light-matter interactions that give this system its unique characteristics? That is the various processes such as carrier-carrier scattering, carrier-phonon scattering, radiative recombination and auger recombination etc.
(c) How can these properties/technologies be improved for practical applications? That is how the knowledge gained be used for the development of novel optoelectronic devices; nanolasers; and photovoltaic devices.
Today, my group tackles a broad spectrum of research problems in emergent materials (such as halide perovskites, 2D materials etc) ranging from novel photophysics, solar cells, LEDs, lasing, spin phenomena, hot-carrier phenomena and nonlinear properties.
(1) Light Emitters/Lasing: We seek to understand the interplay of carrier/quasi-particle dynamics between the host energy levels, defect energy levels and the dopant energy levels and the factors affecting amplified spontaneous emission or lasing in these II-VI nanostructures such as ZnO nanowires, CdS nanowires and even the mixed dimension CdSe dot/ CdS nanorod heterostructures and organic-inorganic halide perovskites.
(2) Photovoltaics: Ultrafast optical spectroscopy allows us to trace the fate of the carriers and quasi-particles in photovoltaic devices from genesis to the end with timescales spanning over ten orders of magnitude. Correlated with electrical characterization techniques, new insights into the mechanisms of charge generation, transfer, trapping, recombination and transport in novel PV materials can be gained through these studies.
(3) Aspirational Areas: Presently, we live in a highly competitive era of rapid technological changes and shortened innovation cycles, where a keen sense and nimbleness to seek out opportunities is key to sustaining economic growth and our quality of life. These aspirational areas on 2-D Materials, novel nonlinear optical properties and spin phenomena allow us to explore new ideas and concepts apart from our core research. |
| Assoc Prof Sun Changqing | Coordination bonding and electronic Engineering
1) Chemisorption
2) Average-bond Multifield Solid Mechanics
3) Nanostructure Size Matter
4) Ice, Water and Solutions
5) Electron-Phonon Spectrometrics |
| Assoc Prof Sun Handong | Prof Sun's areas of expertise are Optics & Materials physics. His research theme exists at the interface between optical physics and material science, i.e. light-matter interaction. His current research works focus on Optical spectroscopic characterization, Physics behind Optoelectronic Devices, Plasmonics Optics and Applications, Inorganic Perovskite Quantum Dots for Lasers, LEDS and solar cells. |
| Assoc Prof Tan Eng Leong | Computational electromagnetics/optics/acoustics - FDTD, ADI/LOD/SS, fundamental implicit schemes, hybrid matrix, scattering matrix; Multilayered biisotropic media, bianisotropic media, photonic crystals, phononic crystals, periodic structures; RF/microwave circuit design |
| Assoc Prof Tan Howe Siang | Development of new techniques in multi-dimensional optical spectroscopy
Ultrafast optical pulse shaping and its applications in spectroscopy
Ultrafast Energy Transfer Pathways in Photosynthetic Light Harvesting Complexes |
| Prof Tang Dingyuan | Laser physics and engineering, laser technology, nonlinear optics, nonlinear fiber optics, ultrafast optics, nonlinear dynamics of optical systsms, nano optics, optical materials |
| Prof Tay Beng Kang | Presently, Prof Tay is maintaining research activities in the following areas through final year project students, postgraduate students, research staff and collaborative research interactions:
Fabrication of carbon nanotubes for high frequency applications (such as EM shielding, Slow wave devices, etc)
Preparation and characterization of wafer-scaled 2D materials and their heterostructures
Application of 2D materials for photodetectors (using graphene / 2D thermoelectric materials, etc)
Development of Filtered Cathodic Vacuum Arc technologies
Applications of diamond-like carbon / nanocomposites for wear resistive coatings |
| Assoc Prof Teo Hang Tong Edwin | 1. Nano-composites and hybrid materials
2. BN nanostructured materials including 1D nanodots, 2D h-BN, 3D BN foams and thin films
3. Re-ordering of chaotic materials
4. Phase-Change Materials
5.Thermal Interface Materials
6.Thermal management through both top-down and bottom-out approach
7. Space Materials
8. Bio-Materials |
| 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. |
| Assoc Prof Tran Anh Tuan | * Drop-surface interactions
* Thermal management using surface modification
* Boiling at microscales
* Microfluidics |
| Prof Wang Qijie | My current research interests are to explore theoretically and experimentally nano-structured semiconductor and fiber-based materials, and nanophotonic devices (nanoplasmonics, photonic crystals and metamaterials) with an emphasis on all aspects of the problem: from design, fabrication, characterization, to integration at system level.
In particular, I am going to investigate the fundamental properties (optical and electrical) of semiconductor (quantum cascade lasers) and nanophotonic devices (such as graphene optoelectronic devices) in the infrared frequency regimes (inclulding near-IR (~1.5um), mid-IR (~3-30 um) and Terahertz (~60-300 um)) to improve their performance. Exploration of their broad potential applications is also one of the key focuses.
We are always looking for strongly motivated both postdoc and Ph.D researchers dedicated to the cutting edge research in semiconductor lasers, 2D material optoelectronics, nanotechnology, and nano-optics/photonics. Interested candidates please send your CV to qjwang@ntu.edu.sg. Shortlisted candidates will be contacted.
Currently we have several postdoc positions available on the development of high performance mid-infrared and Terahertz lasers and photodetectors, and 2D material optoelectronics.
Group Website: http://www.ntu.edu.sg/home/qjwang/home.html |
| Asst Prof Wang Xiao | 1. Material fabrication of strongly correlated electronic system and 2D materials;
2. Electronic property characterization on materials and electronics devices;
3. Magnetism. Searching new magnetic materials and explore novel spintronics device.
Find more from our group website http://www.ntu.edu.sg/home/renshaw/ |
| Asst Prof Wong Liang Jie | - Nanophotonics
- Quantum materials
- Free electron waveshaping
- Ultrafast optics
- Nonlinear optics |
| Prof Xiong Qihua | Dr. Qihua Xiong?s research is driven by the paradigm of ?bottom-up? nanoscience and nanotechnology. His research covers rational synthesis of functional semiconductor nanomaterials, systematic investigations on their physical properties at quantum size regime and practical applications in nanoelectronics, nanophotonics and nanobiotechnology. His expertise includes Raman scattering spectroscopy, optical absorption spectroscopy, electron microscopy and spectroscopy, scanning probe microscopy, electrical transport, photoconductivity and nanopore biosensing. His group at NTU recently focuses on the following subjects:
? Develop novel approaches to synthesize and tune 1D nanomaterials and heterostructures
? Investigate their fundamental properties as an outcome of confined geometry and anisotropy
? Explore the applications of nanomaterials in nanoelectronics, nanophotonics, energy harvesting
? Build nanoelectronic-bio interfaces, e.g., nanopore field effect transistor for biosensing |
| Asst Prof Yang Bo | Yang Bo's main research interests include fractional quantum Hall effect and strongly correlated topological systems, classical complex systems and traffic theory. |
| Assoc Prof Yap Fook Fah | MAJOR RESEARCH INTERESTS
1. Mechanics of micro-systems, in particular the dynamic analysis of multi-component
systems for high capacity, high speed data storage. Currently manager of Centre
for Mechanics of Micro-Systems.
2. Virtual prototyping and simulation of complex mechanical systems
3. Dynamics of damped structures and vibration control using magneto-rheological fluid
damping technology. |
| Asst Prof Yong Ee Hou | My general research interests lies in statistical physics and biophysics. Topics include:
1) Statistical characterization of an energy or attractor landscape.
2) Multi-dimensional Brownian dynamics simulations in exotic energy landscape.
3) Developing mathematical framework for nonequilibrium phenomena.
4) Biomechanics of membrane biogenesis. |
| Prof Yu Ting | My research focuses on synthesis of nanostructures, assembly and manipulation of 1D nanostructure, and development of nanodevices:
1. Graphene: preparation, optical characterization, chemical/biological sensor, electrical devices
2. Substrate-friendly synthesizes of metal oxide nanostructures with controlled morphologies and patterns.
3. Wet-chemical method for fabrication of metal hydroxides and metal oxides nanostructures.
4. Field induced electron emission of individual nanowires or nanowire arrays
5. Electronic transport and mechanical properties of individual nanostructures
6. Nanowire FETs for nanoelectronics, nano-chemical sensors and nano-biological sensors |
| Asst Prof Yu-Cheng, Chen | 1. Optofluidics, Bio-lasers, Micro-resonators;
2. Biophotonics, Biomedical imaging and biosensing;
3. Medical devices, Cellular and tissue diasgnosis;
4. Nanophotonics, Plasmonics, Nanolasers;
5. Neurophotonics, Neural-engineering, Novel on-chip laser devices
6. Bio-intelligent, Bio-integrated optical devices/robotics |
| Assoc Prof Zhang Baile | Dr. Baile ZHANG’s current research interests include electromagnetic wave theory, invisibility cloaking, metamaterials, phononics and acoustics. His research theme is the physics of waves. |
| Prof Zhang Dao Hua | Semiconductor materials, devices and physics
Quantum well, wire and dot structures and devices
New nano-scaled materials and devices for low and high temperature infrared photodetection
Metamaterials and Naophotonics |
| Prof Zhang Qing | Prof Qing Zhang's research interests cover the physical properties and electronic and optoelectronic applications of carbon nanotubes, diamond-like carbon films, CVD diamond, graphene and several other nanostructures. |
| Assoc Prof Zhao Yang | Miniaturization of electronic and mechanical devices over the past century has brought immeasurable impact onto human lives. Commercial microelectromechanical systems have reached micron scales, and bona fide molecular apparatuses began to emerge setting the stage for upcoming integrated nanoelectromechanics. Dr. Zhao and coworkers systematically investigate carbon-nanotube-based oscillators, bearings and rotators via molecular dynamics simulation in order to establish their optimal operating conditions and to facilitate function-oriented designs. In addition, particular attention is paid to utilization of nanomachinery devices as nanolabs to study energy exchanges among various degrees of freedom, ergodicity on energy surfaces, and equipartition as systems relax, and to test fundamental hypotheses of thermodynamics and statistical mechanics.
The advent of ultrafast femtosecond laser spectroscopy brings about intense research interest in relaxation dynamics of photo-excited states in liquids and solids. Newly-arrived technological capabilities to control femtosecond pulse durations and down-to-one-hertz bandwidth resolutions provide novel probes on vibrational dynamics and excitation relaxation. Dr. Zhao and coworkers formulate time-dependent polaronic wave functions that facilitate microscopic modelling of photo-generated excitation relaxation and realistic computation of various third-order optical response functions, and help to achieve a satisfactory comparison between theory and experiment.
Carbon nanotubes are attractive candidates for a variety of applications thanks to their remarkable physical, chemical, and mechanical properties. Optical absorption and fluorescence spectroscopy measurements have become an important tool for structure-based characterization and DNA-assisted manipulation of carbon nanotubes. Dr. Zhao and coworkers establish visual, intuitive connections between optical absorption line shapes and their underlying nanotube structures, which are scrutinized by more sophisticated semi-empirical and DFT calculations. |
| Assoc Prof Zheng Yuanjin | • GHz RFIC and SoC design, SAW, MEMS, Acoustics
• Bio-IC System and Circuits, Biomedical Imaging
• Radar and UWB Communication System and Circuits
• Adaptive Signal and Image Processing Algorithm and ASIC |
| Assoc Prof Zhou Xing | Prof Zhou Xing's areas of expertise are semiconductor device physics, modeling, simulation, technology CAD, mixed-signal CAD, Monte Carlo, ultrafast phenomena. His current research works focus on nanoscale compact model development for bulk/SOI/multigate/nanowire CMOS and III-V HEMTs. |
