Field development laboratory

Lab Name	Lab Room	Speaker	Introduction
Photoelectronic Measuring and Biomedical Photoelectronic Research Laboratory	B3-405	Han,Chien-Yuan	The research focuses on biomedical optoelectronics and polarization optical measurements. It is dedicated to the development, improvement, and application of ellipsometry and Mueller matrix measurement techniques, as well as the optimization of measurement systems to achieve automated and high-speed measurements. For biological samples, polarization-sensitive optical imaging is employed to analyze how samples affect the polarization states of light, thereby investigating their biological characteristics and physiological responses. Alongside research activities, students are guided through various research-related training programs to strengthen their knowledge and expertise in optoelectronics. Emphasis is placed on developing fundamental research skills, enabling students to identify and describe problems and independently develop solutions. Students are also encouraged to acquire proficiency in industry-standard software, including SolidWorks for 3D modeling, MATLAB for computational analysis, and LabVIEW for system integration. Furthermore, students are encouraged to make effective use of laboratory resources and engage in independent learning beyond their research activities. Through these experiences, they can broaden their professional knowledge, enhance their practical skills, and build a solid foundation for their future careers in industry.
Computational Materials and Photophysics	B3-406	Chen,Peng-Jen	Our research focuses on computational materials science and optical physics. By employing first-principles calculations and electronic structure theory, we investigate the electronic structures, opect properties, and exorsal .com luminescent materials, and related photophysical phenomena. Particular emphasis is placed on understanding the relationships between material structures and their optonect the relationships？ emission, energy transfer, and relaxation processes. By integrating theoretical simulations with materials design, we aim to equip students with comprehensive research capabilities, ranging from fundavestmental physics and comprehenive search to adundaance.
Photonic Device Sensor Laboratory	B3-408	Lee,Cheng-Ling	This laboratory mainly manufactures various micro interferometers and light sensors with fiber-optics and other optic materials, using component structure and the properties of the materials used to develop microsens structure and the properties of the。 angle, and refractivity—and changes in value. Notable research achievements by this laboratory are as follows: CL Lee* et al., “Novel Airflow Sensor Using Laser Heated Sn-Microsphere Airgap Fiber Fabry–Perot Interferometer,” IEEE Photon Tech Lett, 31, 1775–1778, 2019. CL Lee* et al., “Hygroscopic Polymer Microcavity Fiber Fizeau Interferometer Incorporating a Fiber Bragg Grating for Simultaneously Sensing Humidity and Temperature,” Sensors and Actuators B: Chem., . 222, 339–346, 2016. CL Lee* et al., “Dual hollow core fiber-based Fabry–Perot interferometer for measuring the thermo-optic coefficients of liquids,” Opt. Lett, 40, 2015. CL Lee* et al., “Asymmetrical dual tapered fiber Mach-Zehnder interferometer for fiber-optic directional tilt sensor,” Opt. Exp., 22, 24646–24654, 2014. CL Lee* et al., “Adiabatic fiber microtaper with incorporated an air-gap microcavity fiber Fabry-Pérot interferometer,” Appl Phys Lett, 103,033515.
Statistical Optics and Quantum Coherence Lab.	B3-410	Chuang, You-Lin	The first area focuses on fundamental research in statistical optics, with an emphasis on exploring how the spatial coherence of light affects its propagation, scattering, diffraction, and related optical phenomena in go ious. by modulating spatial coherence of light. Special attention is given to the physical behavior of light in turbulent systems, such as the propagation of light through the atmosphere. We aim to establishsystem theoretical modelable that specbes this can be experimentally validated through optical measurement techniques, with potential applications in free-space optical communication. The second research focus is on the theoretical study of the interaction between light and atomic systems. By investigating the quantum coherence established between light-atom interacting systems, the fundamental opticald fields are essential changed. Through this study of quantum systems, quantum light sources conducive to quantum communication can be generated, which can be applied to the development of quantum information science.
Photoelectric Sensor and Precision Metrology Laboratory	B3-518	Hsu,Fan-Hsi	By integrating polymeric materials, optical interference principles, and holography, our research focuses on the design and fabrication of volume holographic optical elements (VHOEs). Spectroscopic analysis techniques are also employed to investigate the optical properties and practical applications of various holographic optical elements. Furthermore, by integrating holographic optical elements, optical interference techniques, ray-tracing algorithms, and automated equipment, we develop a tracking laser interferometric measurement system to provide intelligent, high-precision dimensional inspection technologies.
Light Wave and Photon Technology Laboratory	B3-519	Chen,Hao-Hsuan	Our laboratory focuses on the interdisciplinary integration of spintronics and neuroscience. Our research encompasses theoretical modeling and numerical simulations of spin-torque nano-oscillators (STNOs) and nonlinear dynamics. We also employ the traveling wave model (TVM) to investigate magnetic systems and variations in neuronal membrane potentials. In our future teaching activities, we aim to establish a strong foundation in optoelectronic physics, electromagnetics, and microwave devices. Students will be guided to apply Python and MATLAB for numerical simulations and dynamic analyses of standing-wave patterns in electroencephalography (EEG) fields. Through this integrated approach, we seek to cultivate optoelectronics professionals equipped with interdisciplinary knowledge and advanced research capabilities in emerging areas of physics.
Laser physics and nonlinear conversion technology Laboratory	B3-520	Cho, Chun-Yu	Our laboratory focuses on the characterization of laser properties and the development of nonlinear conversion technologies, providing fundamental technologies for the diverse development of laser sources. Research areas include laser source characterization, pulsed output characteristics, ultrafast mode-locking techniques, wavelength control, spatial mode analysis, laser crystal properties, and semiconductor materials. Building on these foundations, we further investigate how laser characteristics influence nonlinear conversion technologies, with particular emphasis on structured light control, longitudinal mode modulation, and material property analysis.
Advanced Metrology and Scientific Computing Laboratory	B3-521	Hsieh, Hung-Chih	1. Integrating "Diffraction optics", "Fourier optics", "Interference optics" and "Optical modulation techniques" to provide automated, fast and accurate measurement metrology for advanced semiconductor technology . 2. Using Maxwell equation, the overlay measurement error is derived. Then use "Rigorous Coupled Wave Theory (RCWA)" and "Finite Difference Time Domain Method (FDTD)" as the simulation framework to simulate the error caused by the asymmetry of the measurement pattern. It also simulates the asymmetric structures that may be encountered in the current advanced semiconductor manufacturing processes (5nm, 3nm and 2nm), and the self-developed simulation software points out which asymmetry factors the measurement error is most sensitive to, and then proposes the improvement of the measurement pattern direction. 3. Combining automated measurement, spectroscopy technology, image recognition and deep learning to develop intelligent monitoring systems for applications in smart home appliances, agriculture and aquaculture.
Laser Technologies and Applications Research Laboratory	B3-522	Chang,Ruey-Shyan	This laboratory explores radiofrequency (RF) drives and modulating circuits, semiconductor laser drive circuits, thermal electric cooler (TEC) circuits, CO2 laser tube designs, the generation of radial polarized lasers, HE-Ne frequency stabilizing techniques, and phase-shift interferometry, for the purpose of training talent in the fields of laser technologies.
Organic Photoelectronic Device Research Laboratory	B3-602	Lin,Chi-Feng	This laboratory is dedicated to research on analyzing growth and developing devices for opto-electric materials. In recent years, research has focused on three major themes: solar cells (organic and dye sensitized solar cells); organic LEDs and quantum dot organic light-emitting devices; and nanomaterial growth and sensor applications. This laboratory also develops and tests novel materials, designs and manufactures components, and physically analyzes them. The purpose of this laboratory is to integrate novel materials with component design to develop high-efficiency opto-electric components and widely apply them in energy, display, lighting, and biomedical sensing fields.
Solid-State Components Research Laboratory	B3-602A	Kung,jerry-ho	1.Measuring the photoelectronic characteristics of composite crystal and silicon thin-film transistors. 2. Flexible composite crystal silicon thin-film transistor displays. 3.Other applications of composite crystal silicon thin-film transistors.
Optoelectronic Devices Laboratory.	B3-603	Hwang,Shug-june	1.Developing measuring technologies for liquid crystal photoelectronic devices and exploring the properties and applications of liquid crystal photoelectronic devices to cultivate talent in the application of liquid crystals of photoelectricity and biomedical sensing devices. 2.Using semiconductor manufacturing and microprinting technologies to develop and build manufacturing and microprinting technologies to develop and build manufacturing and microprinting technologies to develop and build manufacturing techniques for liquid crystals in photoelectronic devices, as well as establishing and exploring the pro>d talent in the application of liquid crystals of photoelectricity and biomedical sensing devices.
Apex Sensing Technology Laboratory	B3-604	Hsu,Cheng-Chih	1.Integrating optical interference technologies, spectral analysis technologies, and photochemical reaction mechanisms to develop new photoelectronic biochemical sensor modules, which can provide sensor components and testing . 2.Integrating optical interference technologies, light modulation technologies, holography, and positioning control technologies to develop new linear and rotating optical scales and provide monitoring technologies with Picosat place optical scales and provide monitoring technologies with Picosatplace. 3.Applying optical design and holography to imaging and nonimaging 2D and 3D displays and projection systems. Integrating spectral and image recognition technologies to develop facial recognition technologies using face temperature distribution.