Highlight Publications

1. S. R. Tamalampudi,J.-Y. Lu*, N. Rajput, C. Y. Lai, B. Alfakes, R. Sankar, ... & M. Chiesa*, "Superposition of Semiconductor and Semi-metal Properties of Self-assembled 2D SnTiS3 Heterostructures," npj 2D Materials and Applications, vol. 4, no. 23, July. 2020 (IF ~ 9.324)
2. J.-Y. Lu, Q. Ge, A. Raza, and T. J. Zhang*, "Quantum Mechanical Prediction of Wettability of Multiphase Fluids–Solid Systems at Elevated Temperature," Journal of Physical Chemistry C, vol. 123, no. 20, pp. 12753-12761, May. 2019 (IF ~ 4.309)(highlighted in Emirates News)
3. J.-Y. Lu, T. A. Olukan, S. R. Tamalampudi, A. Al-Hagri, C.-Y. Lai, M. A. Almahri, H. Apostoleris, I. Almansouri, and M. Chiesa*, "Insights into Graphene Wettability Transparency by Locally Probing its Surface Free Energy," Nanoscale, 11, pp. 7944-7951, Mar. 2019 (IF ~ 6.98)
4. X. Q. Li, J. L. Li, J.-Y. Lu, N. Xu, C. L. Chen, X. Z. Min, B. Zhu, H. X. Li, L. Zhou, S. N. Zhu, T. J. Zhang, and J. Zhu*, "Enhancement of Interfacial Solar Vapor Generation by Environmental Energy," Joule, vol. 2, no. 7, pp. 1331-1338, Jul. 2018 (IF ~ 15.04)
5. J.-Y. Lu, Q. Ge, H. Li, A. Raza, and T. J. Zhang*, "Direct Prediction of Calcite Surface Wettability with First-Principles Quantum Simulation," Journal of Physical Chemistry Letters, vol. 8, no. 21, pp. 5309-5316, Oct. 2017 (IF ~ 7.33)(highlighted in Emirates News)
6. J.-Y. Lu, A. Raza, S. Noorulla, Afra S. Alketbi, N. X. Fang, G. Chen, and T. J. Zhang*, "Near-Perfect Ultrathin Nanocomposite Absorber with Self-Formed Topping Plasmonic Nanoparticles," Advanced Optical Materials, 5, 1700222, Jul. 2017 (IF ~ 7.12)(highted in UAE News)
7. J.-Y. Lu, S. H. Nam, K. Wilke, A. Raza, Y. K. Lee, A. A. Ghaferi, N. X. Fang, and T. J. Zhang*, "Localized Surface Plasmon Enhanced Ultrathin Film Broad-Band Nanoporous Absorbers," Advanced Optical Materials, vol. 4, no. 8, pp. 1255-1264, May 2016 (IF ~ 7.12)(highlighted in MIT News)

---

The following are the full list of publications

Click to expand

Journal Papers

1. B. Alfakes, J. E. Villegas, H. Apostoleris, R. S. Devarapalli, S. R. Tamalampudi, J.-Y. Lu, J. Viegas, I. Almansouri, and M. Chiesa, "Optoelectronic Tunability of Hf Doped ZnO for Photovoltaic Applications," Journal of Physical Chemistry C, vol. 123, no. 24, pp. 15258-15266, May 2019
2. A. Al-Hagri, R. Li, N. S. Rajput, J.-Y. Lu, S. C., K. Sloyan, M. A. Almahri, S. R. Tamalampudi, M. Chiesa, and A. A. Ghaferi, "Direct growth of single-layer terminated vertical graphene array on germanium by plasma-enhanced chemical vapor deposition," Carbon, vol. 155, pp. 320-325, Dec. 2019
3. J.-Y. Lu, Q. Ge, A. Raza, and T. J. Zhang, "Quantum Mechanical Prediction of Wettability of Multiphase Fluids-Solid Systems at Elevated Temperature," Journal of Physical Chemistry C, vol. 123, no. 20, pp. 12753-12761, May 2019 (highlighted in KU Times)
4. S. R. Tamalampudi, R. Sankar, H. Apostoleris, M. A. AlMahri, B. Alfakes, A. Al-Hagri, R. Li, A. Gougam, I. Almansouri, M. Chiesa, and J.-Y. Lu*, "Thickness-Dependent Resonant Raman and E Photoluminescence Spectra of Indium Selenide and Indium Selenide\Graphene Heterostructures," Journal of Physical Chemistry C, vol. 123, no. 24, pp. 15345-15353, May 2019.
5. Md. M. Rahman, A. Raza, H. Younes, A. AlGhaferi, M. Chiesa, and J.-Y. Lu*, "Hybrid graphene metasurface for near-infrared absorbers," Optics Express, vol. 27, no. 18, pp. 24866-24876, 2019
6. S. R. Tamalampudi, S. Patole, B. Alfakes, R. Sankar, I. Almansouri, M. Chiesa, and J.-Y. Lu*, "High Temperature Defect-Induced Hopping Conduction in Multi-Layered Germanium Sulfide for Optoelectronics Applications in Harsh Environments," ACS Applied Nano Materials, vol. 2, no. 4, pp. 2169-2175, Mar. 2019.
7. J.-Y. Lu, T. A. Olukan, S. R. Tamalampudi, A. Al-Hagri, C.-Y. Lai, M. A. Almahri, H. Apostoleris, I. Almansouri, and M. Chiesa, "Insights into Graphene Wettability Transparency by Locally Probing its Surface Free Energy," Nanoscale, 11, pp. 7944-7951, Mar. 2019
8. Afra S. Alketbi, B. Yang, A. Raza, M. Zhang, J.-Y. Lu, Z. Wang, and T. J. Zhang, "Sputtered SiC coatings for radiative cooling and light absorption," Journal of Photonics for Energy, 9(3), 032703, Dec. 2018
9. K. Sloyan, C.-Y. Lai, J.-Y. Lu, B. Alfakes, S. A. Hassan, I. Almansouri, M. S. Dahlem, and M. Chiesa, "Discerning the Contribution of Morphology and Chemistry in Wettability Studies," The Journal of Physical Chemistry A, vol. 122, no. 38, pp. 7768-7773, Jul. 2018
10. Y.-C. Chiou, T. A. Olukan, M. A. Almahri, H. Apostoleris, C.-H. Chiu, C.-Y. Lai, J.-Y. Lu, S. Santos, I. Almansouri, and M. Chiesa, "Direct Measurement of the Magnitude of van der Waals interaction of Single and Multilayer Graphene," Langmuir, vol. 34, no. 41, pp. 12335-12343, Sep. 2018
11. J.-Y. Lu, C.-Y. Lai, I. Almansour, and M. Chiesa, "The evolution in graphitic surface wettability with first-principles quantum simulations: the counterintuitive role of water," Physical Chemistry Chemical Physics, 20, pp. 22636-22644, 2018
12. X. Q. Li, J. L. Li, J.-Y. Lu, N. Xu, C. L. Chen, X. Z. Min, B. Zhu, H. X. Li, L. Zhou, S. N. Zhu, T. J. Zhang, and J. Zhu, "Enhancement of Interfacial Solar Vapor Generation by Environmental Energy," Joule, vol. 2, no. 7, pp. 1331-1338, Jul. 2018
13. A. Raza, J.-Y. Lu, S. Alzaim, H. Li, and T. J. Zhang, "Novel Receiver-Enhanced Solar Vapor Generation: Review and Perspectives," Energies, vol. 11, no. 1, pp. 253, Jan. 2018 (Invited review)
14. J.-Y. Lu, Q. Ge, H. Li, A. Raza, and T. J. Zhang, "Direct Prediction of Calcite Surface Wettability with First-Principles Quantum Simulation," Journal of Physical Chemistry Letters, vol. 8, no. 21, pp. 5309-5316, Oct. 2017
15. J.-Y. Lu, A. Raza, S. Noorulla, Afra S. Alketbi, N. X. Fang, G. Chen, and T. J. Zhang, "Near-Perfect Ultrathin Nanocomposite Absorber with Self-Formed Topping Plasmonic Nanoparticles," Advanced Optical Materials, 5, 1700222, Jul. 2017
16. J.-Y. Lu, A. Raza, N. X. Fang, G. Chen, and T. J. Zhang, "Effective dielectric constants and spectral density analysis of plasmonic nanocomposites," Journal of Applied Physics, vol. 120, no. 16, 163103, Oct. 2016
17. Md. M. Rahman, H. Younes, J.-Y. Lu, G. W. Ni, S. J. Yuan, N. X. Fang, T. J. Zhang, and A. AlGhaferi, "Broadband Light Absorption by Silver Nanoparticles Decorated Silica Nanospheres," RSC Advance, 6, pp. 107951-107959, Nov. 2016
18. J.-Y. Lu, S. H. Nam, K. Wilke, A. Raza, Y. K. Lee, A. A. Ghaferi, N. X. Fang, and T. J. Zhang, "Localized Surface Plasmon Enhanced Ultrathin Film Broad-Band Nanoporous Absorbers," Advanced Optical Materials, vol. 4, no. 8, pp. 1255-1264, May 2016
19. H. R. Liu, A. Raza, A. Aili, J.-Y. Lu, A. AlGhaferi, and T. J. Zhang, "Sunlight-Sensitive Anti-Fouling Nanostructured TiO2 coated Cu Meshes for Ultrafast Oily Water Treatment," Scientific Reports, 6, 25414, May 2016
20. Y. W. Lin, W. J. Chen, J.-Y. Lu, Y. H. Chang, C. T. Liang, Y. F. Chen, and J. Y. Lu, "Growth and characterization of ZnO/ZnTe core/shell nanowire arrays on transparent conducting oxide glass substrates," Nanoscale Research Letters, 7:401, Jul. 2012
21. J.-Y. Lu, H. Y. Chao, J. C. Wu, S. Y. Wei, and Y. H. Chang, "Metallic-shell nanocylinder arrays for surface-enhanced spectroscopies," Nanoscale Research Letters, 6:173, Feb. 2011
22. H. Y. Chao, S. H. You, J. Y. Lu, J. H. Cheng, Y. H. Chang, and C. T. Wu, "The growth and characterization of ZnO/ZnTe core-shell nanowires and the electrical properties of ZnO/ZnTe core-shell nanowires field-effect transistor," Journal of Nanoscience and Nanotechnology, vol. 11, no. 3, pp. 2042-2046, Mar. 2011
23. J.-Y. Lu and Y. H. Chang, "The lightening-rod mode in a core-shell nanocylinder dimer," Optics Communications, vol. 283, no. 12, pp. 2627-2630, Jun. 2010
24. J.-Y. Lu, H. Y. Chao, J. C. Wu, S. Y. Wei, Y. H. Chang, and S. C. Chen, "Retardation-induced plasmon modes in silica-core gold-shell nanocylinder pair," Physica E, 42, pp. 2583-2587, Sep. 2010
25. J.-Y. Lu and Y. H. Chang, "Implementation of an efficient dielectric function into the finite difference time domain method for simulating the coupling between localized surface plasmons of nanostructures," Superlattices and Microstructures, vol. 47, no. 1, pp. 60-65, Jan. 2010
26. H. Y. Chao, J. H. Cheng, J.-Y. Lu, Y. H. Chang, C. L. Cheng, Y. F. Chen, and C. T. Wu, "Growth and characterization of type-II ZnO/ZnTe core-shell nanowire arrays for solar cell applications," Superlattices and Microstructures, vol. 47, no. 1, pp. 160-164, Jan. 2010
27. J.-Y. Lu and Y. H. Chang, "Optical singularities associated with the energy flow of two closely spaced core-shell nanocylinders, Optics Communications," Optics Express, vol. 17, no. 22, pp. 19451-19458, 2009

Conference Presentations

1. J.-Y. Lu, Md. M. Rahman, and M. Chiesa, "Amorphous Graphene-Based Plasmonic Metasurface for Near-Infrared Absorbers," American Physical Society, Apr. 16-19, 2019, Denver, USA
2. J.-Y. Lu, C.-Y. Lai, M. A. Almahri, T. Olukan, H. Apostoleris, I. Almansouri, and M. Chiesa, "Prediction of Surface Wettability of Fresh and Aged Graphite Surfaces from First-Principles Density Functional Theory Simulations," Material Research Society Fall, Nov. 25-30, 2018, USA
3. J.-Y. Lu, S. Noorulla, N. X. Fang, and T. J. Zhang, "Design of Broadband Ultrathin Film Nanoporous Solar Absorbers," Micro/Nanoscale Heat & Mass Transfer International Conference, Jan. 1-4, 2016, Biopolis, Singapore
4. J.-Y. Lu, A. Raza, N. X. Fang, G. Chen, and T. J. Zhang, "Optical Characterizations of Plasmonic Nanocomposites," The 8th Annual International Workshop on Advanced Materials, Feb. 21-23, 2016, Ras Al Khamiah, UAE
5. S. Noorulla, J.-Y. Lu, S. H. Nam, N. X. Fang, and T. J. Zhang, "Plasmon-Enhanced Solar Absorbers," The 8th Annual International Workshop on Advanced Materials, Feb. 21-23, 2016, Ras Al Khamiah, UAE
6. A. Alketbi, J.-Y. Lu, and T. J. Zhang, "Design and Performance of Passive Radiative Cooler under Direct Sunlight," The Graduate Students Research Conference, Mar. 20-22, 2016, Al Ain, UAE
7. S. Noorulla, J.-Y. Lu, A. Raza, and T. J. Zhang, "Near Perfect Broadband Absorber Based on Random Metal Nanoparticles with Varied Spacer layers," The Graduate Students Research Conference, Mar. 20-22, 2016, Al Ain, UAE
8. J.-Y. Lu, D. Liu, K. Wilke, S. Noorulla, N. X. Fang, and T. J. Zhang, "Plasmon-Enhanced Ultrathin Film Broad-Band Nanoporous Absorber," American Physics meeting (ASP), Mar. 2-6, 2015, San Antonio, USA
9. J.-Y. Lu, and Y. H. Chang, "," The 14th International Conference on Modulated Semiconductor structures (MSS-14), 2011, Florida, USA
10. J.-Y. Lu, H. Y. Chou, J. C. Wu, S. Y. Wei, and Y. H. Chang, "," The 16th International Conference on Superlattices, Nanostructures and Nanodevices, 2010, Beijing, China
11. J.-Y. Lu and Y. H. Chang, "," The 9th International Conference on Physics of Light-Matter Coupling in Nanostructures, 2009, Leece, Italy

2D Materials Studies

An ultra-clean interface between graphene and the III-V substrate is required to maintain lattice match for the growth of the single-crystalline of MOCVD deposition, which enables the substrate to be still “observable” from the top thin film deposition. Here, we propose combining bimodal AFM, micro-Raman spectroscopy, and DFT AFM to locally probe surface energy properties on the graphene-coated substrate. In addition to providing quantitative insight into the surface interactions of complicated graphene coatings, this work demonstrates a new route to nondestructively monitor the interface between graphene and coated substrates. The related work has been published in "Nanoscale," which could be accessed here.

The following figure shows that the surface energy of graphene coated substrate produced through exfoliation of natural graphite flakes and chemical vapor deposition are different.

---

Surface Wettability Studies

A general quantum mechanical approach to predict the macroscopic wettability of any solid crystal surfaces for different liquids directly through atomic-level density functional simulation. As a benchmark, the wetting characteristics of calcite crystal (10.4) under different types of fluids (water, hexane, and mercury), including either contact angle or spreading coefficient, are predicted and further validated with experimental measurements. This approach has been extended to liquid/liquid/solid multiphase systems, several physics quantities, such as the macroscopic contact angles, the work of adhesion at the solid-liquid interface, and the interfacial tension at the liquid-liquid interfaces, can be simultaneously predicted through density functional theory simulation. This opens a new avenue to probe the mechanism of sophisticated wetting phenomena in multiphase systems with direct quantum mechanical simulation. to provides insightful and quantitative predictions of complicated surface wettability alteration problems and wetting behaviors of liquid/liquid/solid triphase systems. The related work has been published in "Journal of Physical Chemistry Letter," which could be accessed here.

The following figure shows that an atomic methodology to directly predict macroscopic contact angle of liquid droplet on crystal substrates.

---

Interfacial Solar Vapor Generators

For solar steam generation application, the solar absorber coating needs to be integrated into devices for maximizing their efficiency, the structure design can be utilized with Multiphysics solar/thermal simulations. In this work, we analyze the structural designs and evaluate how much environmental energy can be exploited to enhance the performance of an interfacial solar vapor generation device, under various light intensities. This realization has direct implications in various important processes, particularly for wastewater treatment. The related work has been published in "Joule," which could be accessed here.

The following figure shows that Measured and simulated temperature distributions of the vapor generator under three different light intensities.

---

Plasmonic Nanocomposite Solar Absorbers

Finite difference time domain optical simulation method can provide a guide to design the nanohole and nanocomposite structures, which is potentially an absorptive coating for the high-performance solar absorber. In combination with optical simulation results, a class of scalable ultrathin silver/SiO2 nanocomposite films with self-formed topping plasmonic nanoparticles is designed and fabricated. We experimentally and theoretically demonstrate that just by controlling the high throughput co-sputtering process, the nanocomposite absorbers can achieve near 100% light absorption in the wavelength ranges from 300 to 800 nm. The related work has been published in "Advanced Optical Materials," which could be accessed here.

The following figure shows that Nanocomposites, consisting of metallic nanoparticles embedding in a dielectric host, can significantly enhance light-matter interactions in solar energy conversion and optical applications.

---

Plasmon Enhanced Nanoporous Absorbers

Ultrathin semiconductor films have attracted much attention due to their strong interference persisting inside the lossy dielectric film on a reflective substrate. We proposed a plasmon-enhanced ultrathin film broadband absorber by combining the ultrathin film absorber with localized surface plasmon resonances. This concept can be realized by patterning nanoholes on an absorber comprised of an absorptive ultrathin Ge film and a reflective Au layer, where the localized surface plasmon mode is activated by metallic pore-shaped holes. The related work has been published in "Advanced Optical Materials," which could be accessed here. The proposed plasmonic broadband ultrathin film absorber can be applied in many applications, such as solar vapor generation,photovoltaics, and solar water splitting.

The following figure shows that a plasmon-enhanced ultrathin film broadband absorber is proposed by combining the ultrathin lossy film absorber with localized surface plasmon resonances, which are activated by pore-shape plasmon resonances.

Computational Electromagnetics

Finite-Difference Time-Domain (FDTD) Method

The finite-difference time-domain (FDTD) method was introduced by Kane Yee in 1966 [1]. In its core form, FDTD directly solves Maxwell’s curl equations in the time domain by discretizing both space and time using central finite differences on the well-known Yee grid. Because it is time-domain based, a single simulation can naturally capture broadband responses, transient field evolution, and near-to-far interactions once the electromagnetic fields are properly recorded and post-processed.

FDTD became widely adopted in the 1990s with the practical development of the perfectly matched layer (PML), which provides an effective way to truncate an open computational region while minimizing artificial reflections at the boundaries. With modern computational resources (multi-core CPUs, GPUs, and cluster environments), FDTD has matured into a robust and widely used tool for electromagnetic and optical device analysis and design across both academic and industrial workflows. A comprehensive reference is the textbook by Taflove and Hagness [2].

What this example demonstrates

Below I provide a two-dimensional TE FDTD implementation that includes:

• Yee-grid time stepping for TE polarization in 2D
• Total-field / scattered-field (TF/SF) formulation to inject an incident wave while separating scattered fields
• PML absorbing boundaries to approximate an open domain

The demonstration problem is electromagnetic scattering from a core–shell nanocylinder. The relative permittivities of the shell and core are set to 4 and 1, respectively. The simulation domain is divided into a total-field region, a scattered-field region, and surrounding PML layers (as illustrated in the figure/video). The animation visualizes the time evolution of the field (Ey) and provides an intuitive view of how the incident wave interacts with the core–shell structure and generates scattered waves.

The MATLAB implementation can be accessed here.

Notes on interpretation

• Why time-domain? In frequency-domain solvers you typically solve one frequency per run; in FDTD, a broadband pulse can reveal a wide spectral response from a single transient simulation.
• Why TF/SF? TF/SF allows clean separation between incident and scattered fields, which is particularly useful for scattering and extinction calculations.
• Why PML matters? Boundary reflections can contaminate scattering signatures; a properly configured PML reduces this artifact and improves the reliability of near- and far-field observables.

1. Kane Yee (1966). “Numerical solution of initial boundary value problems involving Maxwell's equations in isotropic media”. IEEE Transactions on Antennas and Propagation, 14(3), 302–307.
2. Allen Taflove and Susan C. Hagness (2005). Computational Electrodynamics: The Finite-Difference Time-Domain Method, 3rd ed. Artech House Publishers. ISBN 978-1-58053-832-9.

---

Plasmonic Metal Nanoparticles

Over the last two decades, plasmon resonances in metallic nanoparticles have been studied extensively because metallic nanostructures can strongly absorb and scatter light through localized surface plasmon resonances. This behavior underpins a broad range of applications, including optical sensing, photothermal heating and solar vapor generation, and bio-imaging.

Here I provide a 2D-TE FDTD code to compute extinction, scattering, and absorption efficiencies for a gold-shell dielectric-core nanocylinder (schematically shown in the figure). The Fortran implementation can be accessed here.

Analytical benchmark for verification

For 2D scattering problems with cylindrical symmetry, it is valuable to have an analytical solution as a reference for verifying numerical results. For this reason, I also provide an analytical code to calculate the extinction spectrum of a core–shell nanocylinder. As an example, results for a gold-shell dielectric-core nanocylinder with outer radius 50 nm and inner radius 40 nm are compared against the corresponding FDTD simulations in the figure below. The analytical implementation can be accessed here.

• Why this comparison is useful: matching peak positions and spectral trends provides a practical sanity check on discretization, TF/SF injection, and boundary absorption settings.
• What can differ: small deviations may arise from finite grid resolution, numerical dispersion, PML configuration, and the time-window / Fourier-transform settings used to extract spectra from transient fields.

---

Application of the Spectral Density Function to Composite Materials

According to Bergman’s spectral representation, the effective response of a two-component composite can be expressed through an integral representation involving a spectral density function g(x). The key idea is that g(x) encodes geometric and topological information of the composite microstructure (e.g., connectivity, percolation features) and is, in principle, independent of the optical constants of the constituent materials. Connecting g(x) to effective optical constants therefore provides a route to interpret how isolated inclusions and percolated networks contribute to the macroscopic electromagnetic response of nanocomposites.

In practical terms, this framework can help bridge microstructural morphology (particle distribution and connectivity) to measurable effective properties, and can complement numerical simulations (e.g., FDTD/TMM) by offering a compact representation of geometry-driven contributions.

• Update: 12/04/2022

THANK YOU ALL!

• My beloved family

Thank you for all the supports during my postdoc career:

• Prof. TieJun Zhang, Khalifa University
• Prof. Daniel Choi, Khalifa University
• Prof. Matteo Chiesa, Khalifa University
• Prof. Ibraheem Almansouri, Abu Dhabi Future Energy Company
• Prof. Nicholas Xuanlai Fang, MIT
• Prof. Gang Chen, MIT
• Prof. Thomas C.-K, Yang, National Taipei University of Technology
• Prof. Weilin Yang, Jiangnan University
• Dr. Aikifa Raza, Khalifa University
• Dr. Hongxia Li, Khalifa University
• Dr. Srinivasa Reddy Tamalampudi, Khalifa University
• Dr. Nitul S Rajput, Khalifa University
• Dr. Shih-Wen Chen, National Taipei University of Technology
• Mr. Boulos Fakes, Khalifa University
• Mr. Abdulrahman Al-Hagri, Khalifa University
• Ms Chia-Yun Lai, Khalifa University
• Ms Mariam Ali Almahri, Khalifa University
• Mr. Harry Apostoleris, Khalifa University
• Mr. Yu-Cheng Chiou, UiT
• Mr. Cheng-Hsiang Chiu, UiT
• Ms Shabnam Ranny, Aspen Heights School

Thank you for the supports during my PhD:

• Prof. Yuan-Huei Chang, my PhD advisor
• Prof. Chi-Te Liang, Nationa Taiwan University
• Prof. Yang-Fang Chen, National Taiwan University
• Prof. Kuo-PIn Chiu, CYCU
• Prof. Chih-Ming Wang, NCU
• Prof. Din-Pin Tsai, Academia Sinica
• Prof. Wei Chih Liu, NTNU
• Dr. Husan-Yi Chao, SCIENTEK
• Dr. Hung-Ji Huang, Instrument Technology Research Center
• Dr. Ryan Cheng, senior member at my lab

Thank you for the supports during my career at TSMC:

• Dr. Lu-Hsing Tsai, TSMC
• Dr. Chung-Liang Cheng, TSMC
• Mr. Wilson Liu, ASML
• Ms. Ya-Ling Huang, TSMC
• Mr. Che-Chih Hsu, TSMC
• Dr. San-Yi Huang, TSMC
• Dr. Ju-Ying Chen, TSMC

Khalifa University

As a tutor in the following areas:

---

TSMC

As a teaching group leader in:

---

National Taiwan University

As a teaching assistant in the following two courses: