집중강의 개설 신청서

1. 개설강의 정보 및 사유서

개설학과	기계공학과
학년도학기	2019 1학기
학정번호	MEU5050-01		종 별	전공		학 점	3
교과목명	2D Materials: Properties and Devices
기 간	2019년 6월 24일 ∼ 2019년 8월 2일 총 시간( 48 )
교원별 강의 기간	성 명	Tony Low		기 간	06. 28 ~ 08. 02 시간 (48)
	성 명			기 간
	성 명			기 간
개설사유	Students will learn about biasc theory on the electronic and optical properties of 2D materials, primarily graphene, transition metal dichalcogenides (TMD) and black phosphorus (BP). Key and state-of-the-art experiments in the field will be reviewed in class. Students will learn to connect theory to experiments through computer modeling with Matlab. Student will review and present state-of-the-art progress in 2D materials devices.

※ 국내·외 석학 및 전문가와 팀티칭으로 수업이 진행되는 경우 강의시간에 따라서 강의료 및 강의시수가 결정됩니다.

2. 참여한 강사 이력서

구분	☑해외대학 석학 □해외기관 CEO 및 전문가		□국내대학 석학 □국내기관 CEO 및 전문가
성 명	Tony Low	국 적		USA
소 속	Prof. Tony Low, University of Minnesota, Minneapolis, US
학력 및 경력사항	Education National University of Singapore, Singapore Ph.D., Electrical & Computer Engineering, July 2008 Thesis: Quantum transport and bandstructure eects in nanoscale transistors B.S., Electrical & Computer Engineering, July 2002 Professional University of Minnesota, Minneapolis, MN Experience Electrical & Computer Engineering 2014-present: Assistant Professor University of Minnesota, Minneapolis, MN Institute of Mathematics & Applications 2017: Visiting Professor Columbia University, New York, NY Physics, Electrical & Computer Engineering 2014: Research Scientist (Research Professor) Yale University, New Haven, CT School of Engineering & Applied Science 2014: Research Scientist (Research Professor) IBM TJ Watson Research, Yorktown Heights, NY Nanoscale Science & Technology 2011-2014: IBM assignee & NSF-NRI Industry Liaison 1 of 22 Kavli Institute of Theoretical Physics, Santa Barbara, CA The Physics of Graphene 2012: Invited Participant Purdue University, West Lafayette, IN Network for Computational Nanoelectronics 2008-2010: Postdoctoral Research Associate 2007-2008: Visiting Research Scholar Chartered Semiconductor Manufacturing, Singapore Advanced Model Developement Group
전공 및 분야	electronics and physics

3. 수업계획서

강의 교과목명	2D Materials: Properties and Devices (2차원소재이론)
수강 대상	대학원생
수업목표 및 개요	Students will learn about biasc theory on the electronic and optical properties of 2D materials, primarily graphene, transition metal dichalcogenides (TMD) and black phosphorus (BP). Key and state-of-the-art experiments in the field will be reviewed in class. Students will learn to connect theory to experiments through computer modeling with Matlab. Student will review and present state-of-the-art progress in 2D materials devices
선수과목(선수학습)
강좌운영방식	Course Structure: Lectures, Computer Lab, Term Paper and Student Presentation Grading: Lab session (40%), Term paper (30%), Term paper presentation (30%)
성적평가방법	grade
교재 및 참고문헌	Textbook: 2D Materials: Properties and Devices, Cambridge University Press, 2017 Ed: Phaedon Avouris, Tony Heinz, Tony Low

Days	Hours	Contents	비고
24th – 28th June	8	Chapter 1: Introduction to graphene Brief history of carbon materials (powerpoint based) Orbital hybridization in carbon materials (whiteboard based) Chapter 2: Graphene bandstructure Tight-binding method and polyacetylene (whiteboard based) Graphene bandstructure (whiteboard based) Dirac Hamiltonian and pseudospin (whiteboard based) Lab session (Matlab based) Chapter 3: Graphene electronic properties Graphene carrier statistics and quantum capacitance (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based)
1st – 5th July	8	Chapter 4: Graphene quantum transport Graphene ballistic transport (whiteboard based) Graphene pn junction (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based) Chapter 5: Graphene diffusive transport Graphene mobility and scattering mechanisms (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based) Chapter 6: Graphene thermoelectricity Graphene thermoelectric (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based)
8th – 12th July	8	Chapter 7: Graphene optical conductivity Graphene optical conductivity (whiteboard based) Graphene scattering coefficients (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based) Project Discussion Chapter 8: Graphene plasmonics Graphene plasmons (whiteboard based) Graphene dielectric response (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based)
15th- 19th July	8	Chapter 9: TMD electronic properties Introduction to TMD (powerpoint based) Electronic bandstructure (whiteboard based) Electronic transport and Berry curvature (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based) Chapter 10: TMD optical properties Optical conductivity (whiteboard based) Exciton (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based) based) Key experiments (powerpoint based) Lab session (Matlab based)
22nd – 26th July	8	Chapter 11: BP electronic properties Introduction to BP (powerpoint based) Electronic bandstructure (whiteboard based) Electronic properties (whiteboard Chapter 12: BP optical properties Optical conductivity (whiteboard based) Plasmons (whiteboard based) Key experiments (powerpoint based) Lab session (Matlab based)
27nd – 2th Aug	8	Chapter 13: 2D materials device applications, and persepctive My broad overview (powerpoint based) Project Presentation