Analytical Design Method for Corrugated Rectangular Waveguide SWS THz Vacuum Tubes

References

• Federici , J. F. , Schulkin , B. , Huang , F. , Gary , D. , Barat , R. , Oliveira , F. and Zimdars , D. 2005 . THz imaging and sensing for security applications — Explosives, weapons and drugs . Semiconductor Science and Technology , 20 ( No. 7 ) : S266 – S280 .
   Web of Science ®Google Scholar
• Kumar , S. and Lee , A. 2008 . Resonant-phonon terahertz quantumcascade lasers and video-rate terahertz imaging . IEEE Journal of Selected Topics in Quantum Electronics , 14 ( No. 2 ) Mar. : 333 – 344 .
   Web of Science ®Google Scholar
• Tredicucci , A. and Di Carlo , A. 2009 . Terahertz technology: An ultrafast amplifier . Nature Photonics , 3 : 681 – 682 .
   Web of Science ®Google Scholar
• Shin , Y.-M. , Barnett , L. R. , Gamzina , D. , Neville , J. , Luhmann , C. , Field , M. and Borwick , R. 2009 . Terahertz vacuum electronic circuits fabricated by uv lithographic molding and deep reactive ion etching . Applied Physics Letters , 95 ( No. 18 ) : 181505
   Web of Science ®Google Scholar
• Shin , Y.-M. , So , J.-K. , Jang , K.-H. , Park , G.-S. , Kim , J.-H. and Chang , S.-S. 2006 . Microfabrication of millimeter wave vacuum electron devices by two-step deep-etch x-ray lithography . Applied Physics Letters , 88 ( No. 9 ) : 091916
   Web of Science ®Google Scholar
• Tucek , J. , Gallagher , D. , Kreischer , K. and Mihailovich , R. Apr. 2008 . “ A compact, high power, 0.65 THz source ” . In IEEE International Vacuum Electronics Conference Proceedings, (IVEC) Apr. , 16 – 17 .
   Google Scholar
• Barker , R. J. , Booske , J. H. , Luhmann , N. C. and Nusinovich , G. S. 2005 . Modern Microwave and Millimeter-wave Power Electronics, Microfabricated MVEDs , 343 – 393 . Wiley Interscience .
   Google Scholar
• Earley , L. , Carlsten , B. , Krawczyk , F. , Potter , J. , Sigler , F. , Smirnova , E. , Wheat , R. , Heath , C. and Bailey , A. 2006 . Wideband RF structure for millimeter wave twts . 7th Workshop on High Energy Density and High Power RF , 807 ( No. 1 ) : 335 – 341 .
   Google Scholar
• Shin , Y.-M. , Barnett , L. R. and Luhmann , N. C. 2008 . Strongly confined plasmonic wave propagation through an ultrawideband staggered double grating waveguide . Applied Physics Letters , 93 ( No. 22 ) : 221504
   Web of Science ®Google Scholar
• Shin , Y.-M. , Barnett , L. and Luhmann , N. 2009 . Phase-shifted traveling-wave-tube circuit for ultrawideband high-power submillimeter-wave generation . IEEE Transactions on Electron Devices , 56 ( No. 5 ) May : 706 – 712 .
   Web of Science ®Google Scholar
• Carlsten , B. E. 2001 . Pierce gain analysis for a sheet beam in a rippled waveguide traveling-wave tube . Physics of Plasmas , 8 ( No. 10 ) : 4585 – 4591 .
   Web of Science ®Google Scholar
• Carlsten , B. E. 2002 . Modal analysis and gain calculations for a sheet electron beam in a ridged waveguide slow-wave structure . Physics of Plasmas , 9 ( No. 12 ) : 5088 – 5096 .
   Web of Science ®Google Scholar
• Dayton , J. , Mearini , G. and Kory , C. Apr. 2004 . “ Diamond-based sub millimeter backward wave oscillator ” . In Fifth IEEE International Vacuum Electronics Conference, IVEC Apr. , 71 – 72 .
   Google Scholar
• Mineo , M. , Paoloni , C. , Di Carlo , A. , Fiorello , A. and Dispenza , M. 2009 . Corrugated waveguide slow-wave structure for THz travelling wave tube . European Microwave Conference, EuMC , Sep. : 842 – 845 .
   Google Scholar
• Lu , Z.-G. , Gong , Y.-B. , Wei , Y.-Y. and Wang , W.-X. 2006 . Study of the double rectangular waveguide grating slow-wave structure . Chinese Physics , 5 ( No. 11 ) Nov. : 2661 – 2668 .
   Google Scholar
• Joe , J. , Scharer , J. , Booske , J. and McVey , B. 1994 . Wave dispersion and growth analysis of low-voltage grating ?Cerenkov amplifiers . Physics of Plasmas , 1 ( No. 1 ) : 176 – 188 .
   Web of Science ®Google Scholar
• Freund , H. and Abu-Elfadl , T. 2004 . Linearized field theory of a Smith-Purcell traveling wave tube . IEEE Transactions on Plasma Science , 32 ( No. 3 ) Jun. : 1015 – 1027 .
   Web of Science ®Google Scholar
• Zaginaylov , G. , Hirata , A. , Ueda , T. and Shiozawa , T. 2000 . Fullwave modal analysis of the rectangular waveguide grating . IEEE Transactions on Plasma Science , 28 ( No. 3 ) Jun. : 614 – 620 .
   Web of Science ®Google Scholar
• Pierce , J. 1965 . Travelling Wave Tubes , New York : Van Norstrand .
   Google Scholar
• Joe , J. , Louis , L. J. , Scharer , J. E. , Booske , J. H. and Basten , M. A. 1997 . Experimental and theoretical investigations of a rectangular grating structure for low-voltage traveling wave tube amplifiers . Physics of Plasmas , 4 ( No. 7 ) Jul. : 2707 – 2715 .
   Web of Science ®Google Scholar
• McVey , B. , Basten , M. , Booske , J. , Joe , J. and Scharer , J. 1994 . Analysis of rectangular waveguide-gratings for amplifier applications . IEEE Transactions on Microwave Theory and Techniques , 42 ( No. 6 ) Jun. : 995 – 1003 .
   Web of Science ®Google Scholar
• CST User Manual [Online], Available http://www.cst.com.
   Google Scholar
• Goplen , B. , Ludeking , L. , Smith , D. and Warren , G. 1995 . Userconfigurable magic for electromagnetic PIC calculations . Computer Physics Communications , 87 ( No. 1–2 ) : 54 – 86 . Particle Simulation Methods
   Web of Science ®Google Scholar
• Lawes , R. A. 2005 . Manufacturing tolerances for UV LIGA using SU-8 resist . Journal of Micromechanics and Microengineering , 15 Nov. : 2198 – 2203 .
   Web of Science ®Google Scholar