The new NI AWR Design Environment™ V12.02 is an all-inclusive simulator system composed of Microwave Office, Visual System Simulator™ (VSS), Analog Office, AXIEM, and Analyst™. The new system is an advanced version of the V12, offering new load-pull features as well as improvements to the Analyst 3D element method electromagnetic simulator and layout, and to NI AWR Design Environment modeling, scripting, and stability analysis.
The Re-Entry Vehicle Toolbox from the IDS Computational Electromagnetic Laboratory has been integrated into the ADF-EMS v5.1 system. The software aims to provide a set of capabilities for the analysis and optimization of RF links between a re-entry vehicle and ground or satellite relay stations.
FEKO software is a comprehensive EM simulation tool, based on state of the art computational electromagnetics techniques. The software enables engineers to solve a wide range of electromagnetic problems.
For more than 20 years, one of the fields in which IDS Ingegneria Dei Sistemi has been involved is the design, prototyping and analysis of a large variety of specialized high technology and high performance antennas, from VHF to millimeter wave antennas.
Optenni Lab speeds up the antenna design process, increasing the productivity of antenna designers. The software has tools for fully automatic matching circuit optimization, estimation of the obtainable bandwidth of the antennas and calculation of the worst-case isolation in multi-antenna systems. These innovative analysis features, along with an intuitive graphical interface, allow the quick evaluation of optimal total performance for antenna designs and concepts. Optenni Lab and CST STUDIO SUITE® are tightly integrated, making the complete antenna design workflow more efficient.
The Q-Net Satellite Bandwidth Manager is an open, scalable, fully-featured satellite resource management system utilizing new technology that combines unparalleled bandwidth-efficiency with flexible carrier management, and eliminates the choice between TDMA and SCPC solutions.
The challenges involved with measuring an antenna’s radiation characteristics when it’s mounted on a large platform stem from the fact that it’s very difficult to accurately simulate an antenna’s interaction with an electrically large environment.
HUBER+SUHNER develops and produces an extensive portfolio of directional and omni-directional antennas for a wide range of indoor and outdoor wireless connections. Among these antennas include Distributed Antenna Systems (DAS) for indoor coverage of mobile communication voice and data traffic, antennas with low visual impact and high data-traffic, and many other antennas optimized for wireless transportation communications, WLAN, and WiFi applications.
Antenna engineers favor advanced antenna systems capable of beam steering and multiple data stream transmission in order to meet 5G throughput requirements. Designing such a device is a difficult task because many factors are involved a device’s performance:
XFdtd and Wireless InSite ensure a comprehensive device design process, from simulating the initial antenna pattern to computing throughput performance in a multipath channel model. Together the products ensure a device will work well in its intended environment.
HUBER+SUHNER offers an array of antenna solutions customized to meet specific application needs. Various modifications can be made including an individual bracket for faster installation, tailored lengths for saving space, and standard labels for simplifying logistics.
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