#How to reference cst microwave studio software#

R.: Study of microwave components for an electron cyclotron resonance source: simulations and performance (2014) ioport

Bottauscio, Oriano Chiampi, Mario Zilberti, Luca: A hybrid FE-BE method for SAR estimate in voxel based human models undergoing MRI (2014).

Rebollar, JesГєs M.: Electromagnetic scattering at the waveguide step between equilateral triangular waveguides (2016)

MorГЎn-LГіpez, Ana CГіrcoles, Juan Ruiz-Cruz, Jorge A.

Reddaf, Abdelmalek Djerfaf, Fatima Ferroudji, Karim Boudjerda, Mounir Hamdi-ChГ©rif, Khaled Bouchachi, Islem: Modeling of electromagnetic behavior of composite thin layers using genetic algorithm (2020).

Ghaderi Aram, Morteza Beilina, Larisa Dobsicek Trefna, Hana: Microwave thermometry with potential application in non-invasive monitoring of hyperthermia (2020).

Beltayib, Abduladeem Afifi, Islam Sebak, Abdel Razik: Excitation of the first high-order mode in ridge gap waveguide (2020).

CST MICROWAVE STUDIOВ® is seen by an increasing number of engineers as an industry standard development tool. In addition, CST MWS can be embedded in various industry standard workflows through the CST STUDIO SUITEВ® user interface. Filters for the import of specific CAD files and the extraction of SPICE parameters enhance design possibilities and save time. Beside the flagship module, the broadly applicable Time Domain solver and the Frequency Domain solver, CST MWS offers further solver modules for specific applications.

#How to reference cst microwave studio software#

Users of our software are given great flexibility in tackling a wide application range through the variety of available solver technologies. CST promotes Complete Technology for 3D EM. Exceptionally user friendly, CST MWS quickly gives you an insight into the EM behavior of your high frequency designs. CST MWS enables the fast and accurate analysis of high frequency (HF) devices such as antennas, filters, couplers, planar and multi-layer structures and SI and EMC effects. CST MWSвЂ™ unparalleled performance is making it first choice in technology leading R&D departments. 6 refs., 4 figs.CST MICROWAVE STUDIOВ®(CSTВ® MWSВ®) is a specialist tool for the 3D EM simulation of high frequency components. In this note those characteristics of beam-cavity interactions which are of particular importance for superconducting RF cavities are highlighted. Finally, energy deposition by the beam into the cavity can occur in a cryogenic environment. Gradients are significantly higher than those attainable with copper in CW operation but remain significantly lower than those obtainable with pulsed copper cavities. High gradient CW operation, which is a principal advantage of SRF, allows for better control of beam quality, which for its preservation requires added care which respect to collective phenomena. Typically the unloaded Qs of the lower higher order modes (HOM) are at the 10/sup moreВ В» 9/ level and require significant damping through couplers. The superconducting radio frequency (SRF) environment has a number of features which distinguish it from room temperature configuration with regard to these beam-cavity interactions.

These collective effects include cumulative and regenerative transverse beam breakup (BBU) in linacs, transverse multipass beam breakup in recirculating linacs and microtrons, longitudinal and transverse coupled-bunch instabilities in storage rings, and a variety of transverse and longitudinal single-bunch phenomena (instabilities, beam breakup, and energy deposition). В«В lessД«eam-cavity interactions can limit the beam quality and current handling capability of linear and circular accelerators. = 65000 as required for the design of the NSLS-II storage ring design.