An inductive eddy current sensor is a non-contact device that generates electromagnetic fields to detect changes in the properties of conductive materials, such as defects, thickness, or conductivity. This webinar will introduce the fundamentals of inductive sensors, present a detailed workflow for designing them for nondestructive testing, and much more.
Electromagnetic heating is a critical technology for reducing emissions and energy use in manufacturing, which is the source of more than 30% of our greenhouse gas emissions. In this webinar, we will review various modes of electromagnetic heating, their underlying physics, and key methods for developing accurate multiphysics models of these technologies, and will present three helpful case studies.
Electromagnetic heating is a critical technology for reducing emissions and energy use in manufacturing, which is the source of more than 30% of our greenhouse gas emissions. In this webinar, we will review various modes of electromagnetic heating, their underlying physics, and key methods for developing accurate multiphysics models of these technologies, and will present three helpful case studies.
Electromagnetic heating is a critical technology for reducing emissions and energy use in manufacturing, which is the source of more than 30% of our greenhouse gas emissions. In this webinar, we will review various modes of electromagnetic heating, their underlying physics, and key methods for developing accurate multiphysics models of these technologies, and will present three helpful case studies.
Axial permanent magnet couplings are electromagnetic devices that transmit torque from a primary driver to a load without mechanical contact. Veryst used a finite element analysis (FEA) model to analyze the complex coupling nature of these magnetic devices to maximize the torque transmission
Manufacturing variations are of critical importance in MEMS design. In this MEMS gyroscope case study, Veryst created an approach to look at the effect of a range of manufacturing variations on MEMS devices using the same mesh. We also use semi-analytic equations to enable scalable modeling of the gyroscope electrostatic actuation and pick-off (which senses the motion produced by rotation).
For several of the electromagnetics interfaces provided with COMSOL Multiphysics, a single layer shell feature, the “Transition Boundary Condition,” is available. Veryst created custom expressions to extend this feature for multiple layers. In this case study we discuss the implementation of this new functionality, and the advantages of using such shells for electromagnetic modeling.
MEMS mirrors raster the laser beam in many next-generation LiDAR system designs. Constructing a finite element model of a MEMS mirror is challenging, as it is difficult to represent the large number of comb fingers in the comb drives that actuate these devices. Veryst addressed this problem by using mixed analytic and finite element approaches to construct accurate finite element models.
The responses of a MEMS switch immersed in fluids differs from that in a vacuum. Veryst Engineering developed a coupled electrostatic-fluid-structure interaction model to investigate the switch response time, deformation, and energy dissipation.
Radio frequency tissue ablation is a commonly used and minimally invasive tissue treatment procedure. Accurately modeling this kind of coupled multiphysics problem is often challenging. Veryst developed a COMSOL Multiphysics model accounting for heat transfer, electric field, and fluid flow to study the RF tissue ablation problem where an electrode is targeting a tissue close to a blood vessel.
Veryst provides expert consulting services in modeling electromagnetic fields. Our expertise includes modeling electrostatics, magnetostatics, rotating machinery, and similar electromagnetic devices for power, energy, automotive, consumer electronics, biomedical, and many other industries. We use advanced numerical techniques to design, optimize, and validate our clients’ electromagnetic devices to function as digital twins.
Accurate simulation of many products now requires a multiphysics approach. Veryst Engineering specializes in multiphysics problems involving solids, fluids, heat transfer, mass transfer, acoustics, and electromagnetics. Our modeling and analysis expertise includes fluid-structure interaction, thermal-structure interaction, structural-acoustic vibrations, conjugate heat transfer, Joule heating, and microwave heating.
Dr. Nirmal Paudel was the keynote speaker at this free, online event where he discussed "Electromagnetic Modeling and Design of Magnetic Couplings." Dr. Paudel's presentation included demonstrating a workflow for designing a magnetic coupling using COMSOL Multiphysics and its parametric sweep functionality.
Dr. Nirmal Paudel delivered a keynote talk on “Electromagnetic Simulation of an Axial Flux Motor.” This presentation included working through an electric vehicle axial flux motor example in detail to illustrate how simulation, including static and transient simulations, can provide practical design and optimization insights.
Dr. Nirmal Paudel presented a free, one-hour webinar titled "Electromagnetic Modeling and Design of an Actuator." He demonstrated a workflow for designing an electromagnetic actuator using the COMSOL Multiphysics simulation software and its parametric sweep and optimization tools in both static and transient simulations.