2. E LECTRO M AGNETIC 3D S OLVER TOOL OF CHOICE FOR Teaching : recommended for Microwave, RF and mmWave (theory and circuit design), Electromagnetic Theory, Electromagnetic compatibility, MEMS design courses, MMIC and IC design course easy to learn (complete set of animated tutorials), create animations (AVI, GIF) demonstrating basic principles (standing waves and matching, interference, working principles of a component), competitive prices for equipping complete classrooms keep in touch with one of the most used tools in the Microwave and RF industry seamlessly interfaced with the most popular microwave & circuit design suite: AWR Microwave Office Excited port Isolated port Coupler 800-1200 MHzStanding waves

3. E LECTRO M AGNETIC 3D S OLVER TOOL OF CHOICE FOR Advanced research : Entirely developed by a research team, includes many unique features (controlled current sources, multimode calibration, ability to enter any frequency dependent parametric expression to describe new materials, interaction with acoustic waves: investigate the impact of material properties (electrical, mechanical), new electromagnetic phenomena and devices, develop your own calibration technique for measurements A Pascal Object-Oriented scripting let you handle directly internal parts of EM3DS! Create your own menu in EM3DS, link to events/parameters/results It is 3D: simulate at the same time dielectric resonators, planar circuits, active linear devices Acoustic modeling Scripting

4. E LECTRO M AGNETIC 3D S OLVER TOOL OF CHOICE FOR Design of RF, Microwave, mmWave and MEMS circuits : Flexible: Parametric definition of objects and materials; you can tune, modify, optimize parameters; extract a parametric macro-model (real-time estimation of response as a parameter is changed); create macro-commands by a pascal script; no grid to fit into... Very Fast: Asymptotic extraction technique (fast for many frequency calculation), Variational (coarse mesh gives good results as well), SmartFIT selects automatically and adaptively frequencies to catch and plot resonances; uses a Method of Moments: only conductors are meshed (insensitive dramatic cross-sectional aspect-ratio), and complex substrates, including tents of layers, are quick and easy to simulate Very Powerful: Allows a broad class of devices: microstrip, stripline, coplanar waveguide, coupled strip based components, filters, couplers, planar antennas and array of antennas, dielectric resonators, acoustic resonators, active linear devices (MESFETS, HEMTS), transitions, matching circuits Complete suite: includes many kind of charts (Smith’s, polar antenna, S/Z/Y/losses/VSWR/Phase difference/Q measurement, contour plot, surface plot of currents/field, far field plot, 3D views etc); a linear circuit simulator to attach sub-circuits, connect lumped elements, manually calibrate etc; a broadband spice model extractor: extract equivalent circuits automatically; import/export results in touchstone format; filters to import/export GDSII and DXF structures...

5. E LECTRO M AGNETIC 3D S OLVER Macro-modeling/tuning

6. E LECTRO M AGNETIC 3D S OLVER Circuit with Dielectric Resonator (comparison S parameters EM3DS [coarse mesh, very high speed] vs HFSS

7. E LECTRO M AGNETIC 3D S OLVER Lange coupler

8. E LECTRO M AGNETIC 3D S OLVER Power divider (Wilkinson)

9. E LECTRO M AGNETIC 3D S OLVER Optimizer (working on a filter)

10. E LECTRO M AGNETIC 3D S OLVER Automatic extraction of equivalent circuits

11. E LECTRO M AGNETIC 3D S OLVER Diplexer design

12. E LECTRO M AGNETIC 3D S OLVER Microstrip-Stripline LTCC transition

13. E LECTRO M AGNETIC 3D S OLVER MEMS microwave Switch

14. E LECTRO M AGNETIC 3D S OLVER Filter with Thin Film Bulk Acoustic Wave Resonators: comparison between experimental data and EM3DS simulation

15. E LECTRO M AGNETIC 3D S OLVER Antenna design (printed Yagi-Uda)

16. E LECTRO M AGNETIC 3D S OLVER AWR Microwave Office using EM3DS as electromagnetic engine

17. E LECTRO M AGNETIC 3D S OLVER EMI test case: coupling between a strip in the PCB and a wire travelling in the larger box. Range 10-50MHz Trace in the PCB FR4 Inner Box Larger Box External wire

18. Electromagnetic modeling Purpose: evaluate the electromagnetic field distribution across “planar” and “quasi-planar” structures when a sinusoidal electrical signal is applied somewhere -the point of excitation is a “port” What planar means: a structure which is entered layer-by-layer, as common in semi-conductor technology: e.g. microchips, printed circuit boards, microelectromechanical devices

19. Components Directional coupler: designed for application in the mobile phone market