• Elaborate Course: Micro/Nano-Photonics

Elaborate Course:Micro/Nano-Photonics

精品课程:微纳光子学

Course Information

Course name: Mciro/Nano-Photonics

Course number: B006101

Course start time: Autumn

Number of classes: 36

Teaching mode: Lecture

Teacher in charge: Guanghao Rui

Contact Number: 83792470-8110

Course Introduction:

The new theory, new technique and new application of the photonics development since the ends of twenty century will be introduced in “micro/nano photonics” course. By learning from this course, the students should know the up-to-date technology, application and fundamental theory of photonics. It is very important for their future study of science and technology.

Micor/Nano-Photonics will introduce two parts: the frontier of photonics and charactering techniques for nanophotonics. In the first part, the main contents include the spatially variant polarization, nanoplasmonics, subwavelength metal structures, and metasurface. In the second part, we will introduce a variety of techniques for photonics nanocharacterization, such as near-field optical microscope, far-field optical characterization techniques, high numerical aperture imaging, scanning probe microscope, and electron microscope.

Agenda details:

Chapter 1 Spatially variant polarization

1.1 Manipulation of states of polarization of light field

1.2 Generation methods of vectorial light field

1.3 Propagation and focusing properties

1.4 Applications

Chapter 2 Plasmonics

   2.1 Introduction to surface Plasmon resonance

   2.2 Surface Plasmon polaritons on thin film

   2.3 Nanoplasmonics

   2.4 Engineering surface Plasmon response with metamaterials

   2.5 Plasmonic with gain: plasmonic lasers

Chapter 3 Subwavelength metal structure

3.1 Introduction

3.2 Rich optical phenomena

3.3 Polarization effects due to material dispersion and spatial dispersion

3.4 Potential applications

Chapter 4 High numerical aperture imaging

4.1 Imaging formation with Fourier optics

4.2 Low NA imaging v.s. high NA imaging

4.3 Debye scalar diffraction theory

4.4 Richards-wolf vectorial diffraction theory

4.5 Applications

Chapter 5 Near-field optical microscope

5.1 Classical imaging: Abbe theory

5.2 Near-field imaging

5.3 Near-field optical microscope: Principles and applications

Chapter 6 Far-field optical characterization techniques

6.1 Classical imaging formation

6.2 Confocal and multi-photon microscopy

6.3 White light interferometer

6.4 Scatterometer

6.5 Curvature sensing

6.6 Ellipsometer and microellipsometer

Chapter 7 Electron microscope

7.1 Introduction to electron microscopy

7.2 Various types of electron microscopy and applications

7.3 Sample preparations for electron microscopy


Brief Introduction of Chief lecturer:

Dr. Guanghao Rui is an associate professor in School of Electronic Science and Engineering at Southeast University. His research interests are mainly in the general area of physical optics. Specifically, he is interested in achieving subwavelength spatial engineering of light properties (such as phase, intensity and polarization, etc.) utilizing modern fabrication tools and nanostructure, and subsequently manipulates the light-matter interactions on the nanometer scale. The tailored light-matter interactions can provide unique functionality for photonic devices, and render unique information about their structural and dynamical properties, enabling the development of optical tweezers, integrated photonic circuits, and optical imaging tools.