Offering you the performance and time-saving features of
software costing many times more, this new software package serves as
fast and accurate design & simulation tool for your projects involving
microwave circuits, components, and antennas. It includes an easy-to-use
circuit solver and schematic capture, component library, and an optimizer that
automates the design of microwave devices and antennas. As a product from the
well-know WIPL-D family, it inherits a full-wave 3D EM (electromagnetic)
solver.
WIPL-D Microwave
enables you to accurately de-embed circuit parameters from 3D EM analyzed
structures. You can use of-the-shelf predefined library components, or you can
interactively build your own composite metallic and dielectric structures.
Whenever you perform circuit level simulations, the circuit parameters of included
3D EM components are computed on-the-fly.
This cutting-edge software helps you develop such complex
structures as RF and microwave filters, matching structures, resonators,
directional couplers, power dividers and connectors. The product allows you to
choose arbitrary implementation technology, such as microstrip, coplanar,
waveguide, and coaxial. Moreover, you can simulate and optimize various
antennas, such as microstrip antennas embedded in finite lossy
dielectric/magnetic materials, horn-type feeds for reflector antennas, phased
arrays along with their matching circuitry, and handset antenna in the vicinity
of human head.
WIPL-D microwave offers you intuitive visualization
of circuits, 3D components and simulation results based on OpenGL graphics. You
can easily create frequency response plots for s-parameters, impedance and
admittance parameters, and voltages and currents. For 3D EM components, you can
plot both 2D and 3D graphs of radiation pattern, near field distribution and
distribution of surface currents.
System Requirements: IBM-PC running Windows XP, 2000, NT, ME,
or 98. 256 MB RAM. 50 MB hard disk space.
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Author Bio
Branko Kolundzija is a professor in the department of electrical
engineering at the University of Belgrade, Serbia, where he received his Ph.D.
He is the coauthor of
Electromagnetic Modeling of Composite Metallic and
Dielectric Structures (Artech House, 2002). He is a fellow of the IEEE. He
is the principal arhitect of the WIPL-D software packages.
Jovan Ognjanovic is vice president of WIPL-D Ltd. He received
his M.Sc. in computer science from the University of Belgrade, Serbia. He was a
senior researcher in the computer system design laboratory at the Institut
Vinca. He is the principal developer of the GUI for the WIPL-D software
packages.
Tapan K. Sarkar is a professor in the department of electrical
engineering and computer science at Syracuse University, where he received his
Ph.D. A fellow of the IEEE, he is coauthor of Wavelet Applications in
Engineering Electromagnetics and Iterative
and Self-Adaptive Finite-Elements in Electromagnetic Modeling (Artech
House, 2002, 1998), as well as the co-creator of several software packages.
Supplementary Materials
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