COMSOL Day: Microwave & Optics

December 9, 2020 10:00 AM - 4:00 PM CET

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Join us for a full-day event with a special focus on microwave and optics simulations. You will have the opportunity to meet with COMSOL technical staff and customers, engage in product demonstrations, and gain insight into upcoming projects and focuses within high-frequency electromagnetics research and industry. Topics include the analysis of microwave, photonics, and optical components, including waveguides, antennas, lenses, and high-power laser systems. We will also address multiscale modeling and the coupling of electromagnetics simulations to other physics, such as heat transfer and structural mechanics, including RF heating and STOP analysis.

Feel free to invite your colleagues. View the schedule below and register for free today!

Schedule

09:45 am
Registration
10:00 am
Welcoming Remarks
10:15 am

Before high-frequency and 5G-based high-speed communication systems can be developed and deployed, the performance of the devices used in these systems needs to be predicted. At the same time, analyzing and evaluating the performance of optical components for lasers, telescopes, and similar equipment and systems is necessary to model as part of the design process. In many cases, more than just the high-frequency electromagnetic behavior of these components needs to be considered, as they are invariably influenced by other physical phenomena, such as heat transfer and structural stresses.

During this session, the latest trend in modeling the behavior of microwave and optical components and applications will be investigated: You will learn how simulation specialists make their complex and high-fidelity multiphysics models available for other departments and for their customers.

11:00 am

Divide & Conquer: 3D Plasma Modeling for a CO2 Laser Using a Multilevel Approach

Modeling and numerical simulations are considered an indispensable part of product and process development at Coherent, as pushing the limits requires a thorough understanding of the underlying processes and their interplay.

High-power CO2 lasers are complex devices, and the challenges in current R&D work usually involve nonlinearities of different kinds. Furthermore, product development often requires dealing with multiple time and length scales as well as several strongly coupled physical phenomena at once, rendering straightforward numerical simulations infeasible in many cases. These multiscale and multiphysics problems can be handled with a reasonable amount of computational resources by partitioning the full problem into a hierarchy of manageable tasks similar to the “divide & conquer” paradigm in computer science.

For example, this approach enables a 3D model of a planar gas discharge in a CO2 laser involving RF and plasma physics, allowing to optimize homogeneity and stability. As a result, it is possible to identify further development potentials to optimize our current and future products.

11:30 am
Simulating Microwave and mmWave Applications

In this session, we will discuss how to efficiently set up and simulate RF, microwave, and millimeter-wave circuit and antenna models. Learn how to include just enough detail in a simulation model to accurately represent your design, while excluding parts that unnecessarily increase the computational cost.

Introduction to High-Frequency Electromagnetics Modeling

Get an introduction to the capabilities and fundamental modeling workflow of COMSOL Multiphysics®. You will see a live demonstration of the entire analysis process via a practical high-frequency electromagnetics example, and see how quick and easy it is to turn your sophisticated model into a specialized app that any engineer can use.

12:15 pm
Break for Lunch
01:15 pm
Modeling Optic Waves for Photonics Applications

We will present an overview of the Wave Optics Module, an add-on to COMSOL Multiphysics®. This module solves the Maxwell equations to simulate an optical wave’s propagations, reflections, refractions, absorptions, scatterings, diffractions, and all other optical phenomena in spaces that are comparable to the wavelength. Potential applications for this software are general optical components, including lenses, polarizers, prisms, gratings, beam splitters, fibers, waveguides, and photonic crystals. Other uses include devices such as lasers, laser diodes, LEDs, and superluminescent LEDs; as well as some special materials, including metamaterials, nonlinear materials, and anisotropic materials.

Tech Café: Addressing Challenges in Modeling Antennas

5G and SatCom application networks will soon be taking telecommunications to a higher level. They will require new devices to achieve this, all of which must be designed and optimized to meet this market’s needs. This Tech Café will discuss the challenges facing this new technology and how COMSOL Multiphysics® can best be used to achieve this.

02:00 pm

Interfacing 3D Near Fields with Optical System Design

As an expert in the classical design of imaging systems, Zeiss is more and more advancing to feature sizes where optical near-field and interference effects significantly impact the accuracy of a measurement process. As such, the need for accounting for these effects within the design process of more precise measurement systems is immense. I will present how interfacing classical optical systems with COMSOL Multiphysics® simulations can look like with three exemplary use cases.

02:30 pm
How to Perform STOP Analysis in COMSOL

In this session, you will learn how to perform structural-thermal-optical performance (STOP) analyses using COMSOL Multiphysics®. Just as COMSOL Multiphysics® is able to seamlessly combine different physical phenomena, it can also combine different numerical methods. A typical STOP model involves heat transfer and structural mechanics modeling with the finite element method (FEM) and ray optics simulation.

Tech Café: Techniques for Modeling Microwave Heating

Being able to model multiphysics phenomena, where multiple types of physics influence each other, is prevalent in applications subject to microwave heating. This Tech Café will bring together COMSOL engineers and your colleagues in the industry to discuss how such phenomena can be best simulated and within which applications it is necessary and applicable.

03:15 pm
The Optimization of Product Design in Microwave Applications and Optics

Optimization makes it possible to find the best possible parameter settings, geometry dimensions, and material properties for antennas, waveguides, and optical systems. In this presentation, you will learn which optimization techniques are available in COMSOL Multiphysics® and how to use them to optimize your high-frequency electromagnetics devices.

Tech Café: Setting up Models to Simulate Ray Optics

Join this Tech Café to discuss your applications based on ray optics as well as the modeling of the phenomena in general. Engineers from COMSOL will be able to answer your questions about simulating such phenomena and best practices when modeling them. Fellow attendees are also free to contribute their solutions, advice, and observations about simulating ray optics.

04:00 pm
Concluding Remarks

COMSOL Speakers

Thorsten Koch
COMSOL
Thorsten Koch is the managing director of Comsol Multiphysics GmbH. There, he worked as an applications engineer and was a member of the development team. He holds degrees in physics and applied mathematics, completing his PhD studies on 3D contractility measurements of living cells at the University of Erlangen-Nuremberg.
Phillip Oberdorfer
COMSOL
Phillip Oberdorfer is a technical marketing manager at Comsol Multiphysics GmbH. He helps produce webinar and technical content. Previously, he worked as an applications manager in technical support. Phillip received his PhD from the University of Göttingen, where he used COMSOL Multiphysics for a geothermal energy research project.
Andreas Bick
COMSOL
Andreas Bick is an applications engineer at Comsol Multiphysics GmbH. He holds a PhD in physics from the University of Hamburg, where he studied ultracold quantum gases in noncubic optical lattices, hybrid quantum systems, optical resonators, and micromechanical systems.
Christoph Gordalla
COMSOL
Christoph Gordalla is an applications engineer at Comsol Multiphysics GmbH. Prior, he received a master’s degree in solid-state physics at RWTH Aachen University with his research focusing on the simulation of superparamagnetic iron-oxide nanoparticles in capillary vessel systems.
Lars Dammann
COMSOL
Lars Dammann has been an applications engineer at Comsol Multiphysics GmbH since 2016. He obtained his MSc in experimental solid-state physics at the University of Göttingen, where he studied the interaction of electrons and optical near fields using an ultrafast, low-energy electron diffraction experiment.
Erik Bornhöft
COMSOL
Erik Bornhöft is regional sales manager and joined Comsol Multiphysics GmbH in 2010. He studied physics with a focus on fluid dynamics at the University of Göttingen. His thesis work at the DLR Göttingen involved experimental and numerical research into active control of supersonic flow.
Thomas Englisch
COMSOL
Thomas Englisch works as an account manager at Comsol Multiphysics GmbH. As a research assistant at the Bielefeld University of Applied Sciences, he dealt with numerical simulation in research and teaching. During his physics studies, he specialized in computer-oriented theoretical physics.
Jonas Inhestern
COMSOL
Jonas Inhestern works as a technical sales engineer at Comsol Multiphysics GmbH. Before he started working for COMSOL in 2014, he completed a degree in physics at the TU Berlin with a focus on applied physics.

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COMSOL Day Details

Location

This event will take place online.

Invited Speakers

Dr. Jens Schüttler
Coherent

Dr. Jens Schüttler, senior scientist modeling & simulation, has been responsible for modeling and simulation at Coherent in Hamburg since 2013. He studied physics at the University of Münster and received his doctorate in 2007. His research areas were the dynamics of coupled lasers and spontaneous pattern formation in nonlinear optical systems. Prior to his current position, he worked at the Fraunhofer Institute for Laser Technology (ILT), where he mainly focused on the simulation of the nonlinear dynamics of laser manufacturing processes.

Dr. Manuel Decker
Carl Zeiss AG

Dr. Manuel Decker is a research scientist in computational imaging and virtual prototyping at the Corporate Research Facility at Zeiss in Jena since 2016. His current research topics span a large range from 3D imaging for microscopy applications over computational EUV-metrology to medical imaging. Dr. Decker studied physics at the Karlsruhe Institute of Technology (KIT) and received his doctorate on 3D-chiral metamaterials in 2010. Before his current position at Zeiss, Dr. Decker was a DECRA Research Fellow at the Australian National University in Canberra working on shaping emission processes of metasurfaces.