Conseil en Applications Électroniques et EM

Use accurate and reliable simulation throughout your medical device design process, including physics-based post-processing results to predict product performance, and comply with safety standards.

Various parameters of the EM base design can be studied to find their effect on the overall performance including sensitivity analysis, tuning augmentation, radiation gain, impedance matching losses, etc.

The ability to simulate proposed geometries and methods of operation on solenoids and linear actuators encourage new ideas, and speeds up progress in reaching optimal design types.

Wireless Integration Testing is a crucial component in determining the performance readiness of antennas in the presence of interference from each platform and neighboring antennas.

Predict and mitigate EMI issues of electronic systems, or run validation analysis against EMC standards.

From layout of PCBs supporting high-speed lanes, cable assemblies, high-density connectors, and other interfaces, we capture existing design performance and identify core areas for improvement.

By leveraging advanced EM-field simulators dynamically linked to powerful harmonic-balance and transient circuit simulation, our engineers can break the cycle of repeated design iterations.

Investigate the maximum temperature locations of EM systems, ensure incorporation of sufficient cooling schemes, and prevent over-heating of electronic parts and components.

Be it non-linear material properties, transient excitation, eddy current effect, proximity effect, or hysteresis, our engineers can determine the estimated core loss and thermal winding loss.

Explore the intricacies, applications, and examples of induction heating: a process that heats electrically conductive bodies as a result of changing magnetic fields.