The conference also addresses modeling and simulation strategies for complex electromagnetic problems and offers a variety of user-friendly virtual tools. Many of these tools have been featured in IEEE AP Magazine and are very useful in teaching and learning courses such as EM Wave Theory, Antennas and Radio Wave Propagation, EM Scattering and Diffraction, Guided Wave Theory, Microstrip Circuit Design, Radar Cross-Sectional Area Estimation, Transmission Lines, Metamaterials. is effective.
The role of electromagnetic (EM) fields in our lives is increasing. Fields such as communication, remote sensing, integrated command/control/surveillance systems, intelligent transportation systems, medicine, environment, education, marketing and defense are just a few of the areas where EM fields are of critical importance. Having been surrounded by EM waves everywhere, we have witnessed a transformation from Engineering Electromagnetics to Electromagnetic Engineering over the past few decades. Among many other topics, EM engineering covers a wide range of topics, from antenna design to EM scattering, from indoor-outdoor radio wave propagation to wireless communication, from radar systems to integrated surveillance, from underground imaging technologies to new generation materials, from EM compatibility to nano systems, from electroacoustic devices to electro-optical systems. deals with a range of problems. The operating range of the devices we use in our daily lives has expanded from DC to Terahertz frequencies. We have EM systems at both large scale (kilometers wide) and nanometer sizes. Most of these systems are broadband and digital and must operate in close proximity to each other, leading to serious EM interference problems. Engineers must consider EM problems from the early stages of design. This requires establishing a correct and intelligent balance between a strong mathematical background (theory), engineering experience (application) and modeling and numerical calculations (simulation).
