Veryst is pleased to offer this specialized, in-person workshop focused on exploring the power of multiphysics modeling and simulation in applications specific to the oil and gas energy sector.
The event begins with an introduction to COMSOL Multiphysics, laying the groundwork for sessions that delve into the vital role of electromagnetic modeling in optimizing devices such as inductive sensors and magnetic actuators.
We'll also explore how multiphysics simulations are driving advancements in low-carbon energy technologies. The workshop concludes with a discussion on the importance of accurate material testing and modeling to enhance simulations of polymers and adhesives.
The workshop will take place in Houston, TX on September 25, 2024.
This event is free, but registration is required.
Note: course attendee's identifying information will be disclosed to COMSOL and subject to COMSOL's Privacy Policy www.comsol.com/privacy
Register
Program details:
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8:30 – 9:00
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Arrival / Coffee
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9:00 – 9:15
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Introduction to Veryst Engineering
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9:15 – 10:00
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COMSOL Multiphysics for the Energy Industry, Yeswanth Rao, Ph.D., COMSOL
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A comprehensive overview of COMSOL Multiphysics, highlighting its capabilities and applications across various industries. This session will set the stage for the subsequent talks by showcasing how COMSOL's simulation platform is integral to advanced engineering and scientific research for the energy sector.
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10:00 – 11:00
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Electromagnetic Simulation for the Oil and Gas Industry, Nirmal Paudel, Ph.D., Veryst
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Electromagnetic modeling and simulations play a crucial role in the efficient design and optimization of devices used in the oil and gas industry, such as electromagnetic flowmeters, magnetic actuators, induction sensors, and eddy current sensors. We will discuss how Veryst Engineering is effectively modeling these devices using COMSOL Multiphysics.
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11:00 – 12:00
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Multiphysics Simulation for Low Carbon Energy Systems, Michael Kuron, Ph.D., Veryst
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Multiphysics simulation can help accelerate the development of safe, reliable, and efficient low-carbon energy technologies. In this talk, we’ll present case studies where COMSOL Multiphysics has been used to help develop electrolyzers, electromagnetic heating of catalytic reactors, carbon capture, and long duration energy storage systems.
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12:00 – 12:30
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Polymer and Adhesive Testing and Modeling for FE Simulation, Sean Teller, Ph.D., Veryst
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Accurate solid mechanics simulations require accurate material models and test data. Veryst has extensive expertise testing polymer materials and calibrating material models to measure the time- and temperature-dependent response of thermoplastics, elastomers, composites, and adhesives. We’ll discuss advanced polymer test methods, how to convert the test data to a material model, and how your simulations can be improved with accurate, advanced material models.
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12:30 – 1:00
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Lunch / Networking
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The magnetic flux lines around the coil and the eddy current induced in the conductive plate of an eddy current sensor.
Our speakers:
Yeswanth Rao, Ph.D. is an Applications Director at COMSOL and has been with COMSOL since 2008. His finite element background is in MEMS, particularly piezoelectric modeling.
Nirmal Paudel, Ph.D. is a Lead Engineer at Veryst. Dr. Paudel has an extensive background in computational electromagnetics and product development in the R&D environment, particularly in the power and energy sector. Learn more.
Mike Kuron, Ph.D. is a Principal at Veryst. Dr. Kuron’s primary area of expertise is multiphysics modeling of fluid flows coupled with heat transfer, chemical reactions, and electromagnetics. He works with clients in the aerospace and defense, power and energy, nuclear, turbomachinery, electronics, and healthcare industries to provide simulation-driven product engineering solutions. Learn more.
Sean Teller, Ph.D. is a Principal at Veryst. Dr. Teller has extensive experience in testing and modeling the mechanical behavior of materials. His expertise includes measuring the response of materials at impact rates and capturing the nonlinear behavior of advanced, engineering materials. Learn more.