Empower Your Designs with Electro-Thermal Multiphysics Simulations

Enhancing Innovation in Electro-Thermal Multiphysics Through EMWorks Solutions

Discover how MPW enhances the welding of dissimilar materials, offering precise, efficient bonding with minimal thermal distortion.

Understanding how coil thickness and input current influence heat generation and temperature distribution in DC linear actuators, is crucial for performance and lifespan optimization.

Learn about the thermal behavior of XLPE power cables and how FEM simulations provide insights for optimizing cable designs. Discover the impact of conductor Joule losses and external thermal conditions.

Understanding how Multiphysics FEM analysis enhances induction heating efficiency in brazing processes. Learn about temperature distribution, magnetic field intensity, and current density insights.

Learn how different voltages affect the force output and thermal efficiency of voice coil actuators in precision applications, based on EMWorks simulations.

Discover why voice coil actuators are the top choice for applications requiring precise positioning, offering high speed, acceleration, and compact design.

Review the precision of Eddy Current NDT Pulsed Thermography Simulation for detecting defects in materials. Unveil advanced simulation techniques for accurate NDT analysis.

Look into the impact of pot thickness on induction cooking efficiency using EMWorks simulation. Discover how optimizing thickness affects eddy loss distribution and thermal performance.

Examine how Multiphysics simulation provides accurate assessments and improvements for the design and efficiency of three-phase busbar systems in electrical installations.

Learn how high-frequency heating improves mold temperature control and reduces cooling times in injection molding processes.

Learn how magnetizers optimize induction heating processes, improve efficiency, and achieve precise temperature control. Comprehensive analysis and insights were provided.

Understand how different coil designs, including 3D and 2D configurations, influence the induction heating process of mold plates, offering insights into temperature distribution and heating efficiency.

Assess the effectiveness of Magnetic Pulse Welding (MPW) in achieving high-quality welds in the aerospace and automotive industries without thermal distortion.

Learn how varying frequencies impact the efficiency and performance of graphite crucible induction heating systems. Discover optimization strategies for enhanced results.

Discover how to simulate sphere hardening using induction heating with detailed insights into multi-physics simulations. Explore electromagnetic-thermal coupling for precise results.

Learn how EMS simulates electromagnetic and thermal behaviors in parallel wires, including transient magnetic analysis and ohmic heating effects, in a detailed study.

Uncover the role of electrothermal simulation in enhancing electric fuse safety, providing key insights into protection against overcurrent scenarios.

Study the crucial role of electrothermal analysis in optimizing busbar design for enhanced performance and safety in electrical systems.

Uncover the breakthroughs in induction cooker design and safety through advanced electro-thermal simulation, ensuring eco-friendly and precise cooking experiences.

Learn how to conduct a comprehensive electro-thermal simulation of transformers, covering magnetic fields, losses, and temperature distribution for optimal design.

Explore the virtual prototyping process of a 3-phase cylindrical transformer to enhance electrical distribution efficiency through CAD modeling, open circuit simulations, and thermal analysis.

Discover advanced techniques and insights for electro-thermal modeling of 3-phase transformers. Learn how to optimize performance and minimize losses using electromagnetic simulation.

Probe into the advanced electro-thermal modeling of BLDC motors to understand how it drives performance improvements and efficiency gains.