Cavity Quantum Optomechanics: Principles and Applications
Explore the interaction between light and mechanical systems in this advanced physics course on optomechanics.
Explore the interaction between light and mechanical systems in this advanced physics course on optomechanics.
Delve into the fascinating world of cavity quantum optomechanics in this comprehensive course. Learn about the interaction between light and mechanical systems, and how this interaction can be used to manipulate both light and mechanics. Explore the theoretical foundations of mechanical and optical resonators, discover the emerging physics from their interaction, and master the tools and techniques for designing optomechanical experiments. This course covers key topics such as radiation pressure force, classical and quantum mechanical optomechanical phenomena, and applications in both fundamental physics and technological advancements. Taught by a network of international experts, this course provides a solid foundation for conducting research in the cutting-edge field of cavity optomechanics.
Instructors:
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What you'll learn
Understand the fundamental principles and applications of optomechanics
Analyze the physics of mechanical and optical resonators
Explore radiation pressure force and optomechanical interactions
Examine classical and quantum mechanical optomechanical phenomena
Master tools for designing optomechanical experiments
Investigate quantum correlations in cavity optomechanical systems
Skills you'll gain
This course includes:
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Graded assignments, exams
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Limited Access access
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There are 6 modules in this course
This course provides a comprehensive introduction to cavity quantum optomechanics, covering both theoretical foundations and practical applications. It begins with an overview of optomechanics, its history, and recent developments. The curriculum then delves into the physics of mechanical and optical resonators, exploring concepts such as elasticity, mechanical dissipation, and Brownian motion. Students will study classical and quantum dynamics in optomechanical systems, including topics like dynamical backaction, quantum cooling, and strong coupling regimes. The course also covers quantum correlations, displacement sensing, and applications in gravitational wave detection. Finally, it explores experimental methods, including various experimental platforms, fabrication techniques, and simulation methods.
Introduction
Module 1
Optical and mechanical resonators
Module 2
Classical dynamics
Module 3
Quantum dynamics
Module 4
Quantum correlations
Module 5
Experimental methods
Module 6
Fee Structure
Instructors
2 Courses
Pioneer in Photonics and Quantum Measurement
Tobias J. Kippenberg is a Full Professor of Physics at EPFL where he leads the Laboratory of Photonics and Quantum Measurement. After completing his education at RWTH Aachen and Caltech, he led an Independent Research Group at the Max Planck Institute of Quantum Optics from 2005-2009 before joining EPFL. His groundbreaking research includes the discovery of chip-scale Kerr frequency comb generation and significant contributions to cavity optomechanics. His achievements have earned him numerous prestigious awards, including the Helmholtz Prize for Metrology (2009), the EPS Fresnel Prize (2009), the EFTF Young Investigator Award (2010), the ICO Prize (2013), the Swiss Latsis Prize (2014), and the ZEISS Research Award (2018)
1 Course
Pioneer in Quantum Physics and Optomechanics
Markus Aspelmeyer is a Professor of Physics at the University of Vienna and Scientific Director of the Institute for Quantum Optics and Quantum Information (IQOQI) Vienna. After completing his Ph.D. in Physics and Bachelor's in Philosophy from Ludwig-Maximilians-Universität Munich, he established himself as a leading figure in quantum optomechanics. His research focuses on quantum optical control of mechanical systems, particularly exploring the quantum properties of solid-state nano- and micro-mechanical devices. He leads groundbreaking experiments investigating fundamental quantum physics and developing novel quantum technology platforms. His work includes pioneering research in micromechanical measurements of weak gravitational forces and quantum control of macroscopic objects. His contributions to physics have earned him numerous prestigious awards, including the Fresnel Prize from the European Physical Society and the Ignaz Lieben Prize from the Austrian Academy of Sciences. As Scientific Director of IQOQI Vienna, he continues to advance our understanding of quantum systems and their applications.
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