SHANGHAI INFOCROPS SCIENCE & TECHNOLOGY CO., LIMITED
Catalog
NEWS
PRODUCTS
SERVICES
Latest

Webinars about the Metalenses

LightTrans upcoming events

AS ACCURATE AS NEEDED, AS FAST AS PO

EastWave Intro V2 Case Comparison an

LITESTAR 4D£ºBIM and the data exchan

LITESTAR 4D£ºXML or Plug-in

Webinar on Optiwave's OptiInstrument

Register Now!Webinar Series on the N

VirtualLab Fusion£ºINNOVATION IN OPT

Invitation to the Photoview Web 8 Pr

Position : Home > NEWS > WEBINAR >
EastWave Intro V2 Case Comparison and Verification
Time: 2023-04-18 17:11Source: infocrops.comWriter: infocrops


RCS characteristics of a sphere-conical object
Radiation characteristics of antenna array
Radiation characteristics of a radome embedded with antenna array
Transmissivity and Boresight Error (BSE) of a radome covered array
Transmissivity of a radome covered array
S parameters of a rectangular filter
Return losses of an antenna complex

Case Comparison and Verification

EastWave is a full-wave Computational Electromagnetics (CEM) software for both electromagnetic and photonic applications, whose solvers are based on the Finite-Difference 
Time-Domain algorithm. Particularly for electrically large engineering problems, EastWave has an outstanding superiority in saving computational time without losing accuracies. 
Moreover, EastWave offers a Physical Optics (PO) solver and an FDTD/PO hybrid solver for extremely large engineering problems. The superiority of saving computational resources makes automatic optimization workable in many cases which might be considered impossible with traditional methods.
EastWave features a variety of predefined workflows which greatly simplifies the workflows for engineers and researchers. These workflows include Standard,Transmission/Reflection, RCS, Antenna, Phased Array, Radome, Radar Target Imaging, Microwave Network and Field Difference Comparison.
EastWave has been widely applied in the analysis of microwave/RF systems (antenna array, radome, RCS, FSS, EMC/EMI, anechoic chamber, RF signal coverage, etc.) and photonic systems (laser, LED, metamaterial, photonic crystal, optoelectronic devices, etc.).
This document presents seven real-world application cases, in order to demonstrate the accuracy and efficiency of EastWave in comparison with other CEM solutions (such as MoM, FEM) or experimental data.

RCS characteristics of a sphere-conical object

Object 1 is featured with a solid sphere-conical model of 324 mm×133 mm×133 mm dimensions, illuminated by a VV-polarized incident plane wave (θ=90 °, φ=0 °) normal to its 
apex, under work frequency 0.5 - 12.5 GHz (Figure 1). Figure 2 depicts the comparison of RCS characteristics between EastWave and MoM (Figure 2). Table 1 lists the computational efficiencies and memory consumptions from EastWave and MoM.

 


Radiation characteristics of antenna array

Object 2 is a large phased antenna array with 268 units, each of them with 5.8 mm×5.8 mm×2.55 mm dimensions (Figure 3). The work frequency is high up to 35GHz. The simulated far-field patterns from EastWave are compared to those from FEM. Figure 4 and Figure 5 depict the far-field pattern comparisons along elevation angle 0° and 30°. Table 2 lists the comparisons of computational efficiencies and memory consumption between EastWave and FEM.



Radiation characteristics of a radome embedded with antenna array

Object 2 is a large phased antenna array with 268 units, each of them with 5.8 mm×5.8 mm×2.55 mm dimensions (Figure 3). The work frequency is high up to 35GHz. The simulated far-field patterns from EastWave are compared to those from FEM. Figure 4 and Figure 5 depict the far-field pattern comparisons along elevation angle 0° and 30°. Table 2 lists the comparisons of computational efficiencies and memory consumption between EastWave and FEM.





Transmissivity and Boresight Error (BSE) of a radome covered array

Object 4 is a tangent oval radome with 240 mm×240 mm×600 mm dimensions made of a material of εr =3.0 and tanδ=0.005 (see Figure 8). The simulation is implemented at frequency of 10 GHz. Figure 9 depicts the computed transmissivity curve from EastWave compared to one from MoM, and Figure 10 for BSE. Table 4 lists the comparisons of computational efficiencies between EastWave and MoM, in terms of CPU cores, memory usage and duration.





Transmissivity of a radome covered array

Object 5 is a 9×7-element phased array covered by a tangent oval radome (Figures 11 & 12), operated at a frequency of 10 GHz. This object has 212 mm×212 mm×315 mm dimensions. Figure 13 depicts the far-field pattern along E-plane from EastWave compared to one from MoM, and Figure 14 for H-plane. Table 6 lists the comparisons of computational efficiencies between EastWave and MoM, in terms of CPU cores, memory usage and duration.





Parameters of a rectangular filter

Object 6 is a filter with 88 mm×66 mm×15 mm dimensions (Table 7), operating within frequencies 1.0~3.0 GHz. The computed S parameters from EastWave are compared with that from FEM, as Figure 15 depicts the pattern of S11 while Figure 16 for S21.




ABOUT US NEWS PRODUCT SERVICES CONTACTS   INFOCROPS
Address£ºRoom 1805, Zhongji Building, No.819, Yinxiang Road, Nanxiang Town, Jiading District, Shanghai, China. Zip code: 201802
TEL£º+86-21-6486 0708/6486 0576/6486 0572
FAX£º86 21-64860709
MAIL£ºinfo@infocrops.com
Introduction Case Studies VirtualLab Fusion Training Contacts Us
LinkedIn Webinars JCMSuite Professional Books Cooperation
Youtube Courses LITESTAR 4D Technology Consulting Join Us
Copyright © 2018~2024 SHANGHAI INFOCROPS SCIENCE & TECHNOLOGY CO., LIMITED,All Rights Reserved.