When a screw is inserted in the top of a waveguide system operating in the TE10 mode, it is noticed that this will introduce a VSWR varying from unity to 3.0 for the full range of depth of insertion. That is, with the screw out, the VSWR is one; when the screw protrudes the maximum amount, the VSWR is 3.0. (a) If one thinks of the screw as giving rise to the equivalent of shunt capacitive loading, what is the corresponding range of adjustment in the equivalent per-unit reactance X/Zo? (b) Assuming the screw can be placed any arbitrary distance from the load, note on a Smith chart the range of load impedance which may be matched with this device.

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REL COFFF Fort. le el SWR KTN LOSS f RFL. CORFF.P das 0.46 0.04 B 1 1 0,0 7:0 ORIGIN 045 2204 pompoffent 0.04 -150 -10040 20 - 40 30 0 150 0.05 0.9 08 01.9 0.06 er 0.44 S 78 0.33 jajajaj††††ffffff+++|HH|4fff jajajjİİİİİpt 091- OFE 10 20 0.7 044 0.06 200 0.43 4-5 0.2 130 LLBIT TALL ACTANCE COMPONENT (+X/201 OR CAPACITIVE SUSCEPTANCE (B/YO). 0.43 0.08 OCT- 15 3 5 0.42 99 4 0.3 0.3 8.4 Tis CAPACITIVE REACTANCE COMPONENT (1X/Zo), OR ENDUCTIVE SUSCI 0.42 F 120 10 JAAMAANI EÐA A 1.6 meznižane višegmaišiagy miło z ............ 0.09 RESISTANCE COMPONENT (R/ZO), OR CONDUCTANCE COMPONENT (G/YOX 102 5 0.42 -120 0.3 130 aku ngecharge de gandingart 60 600 0.41 10.3 3. 2.5 к 6 7 0.5 0,3 я к 02 0.6 -110 10 t 2 + G 5 01 6 0.11 ||▬▬▬▬tar 0.1 +-+ 0.39 12 0.3 ly 18 1.6 100 19 0.11 4 600 -100 0.05 55 0.2 0.8 0.12 0.38 F₂ 3.4 3 1+4 for fr 90 Z10 ++++ ptát phigel. 0.38 31 2 20 44444 0.DI D.I 0.9 102 02 36 +++++++15 0.14 0.36 +++*+ 32,1,3,1, 15 1 11 30 = 0 00 07 ☺▬▬▬▬▬▬▬▬▬▬▬▬ELVIRICILLA L 013 13.4 1:0 0.37 10.4 CENTER 106 0.6 10.6 ECO RADIALLY SCALED PARAMETERS 200 108 furg los 80 08 0.99 1.0 (G houghingtongbom? 1.00 0.14 0.36 TOWARD LOAD> 10 7 1.1 0.1 0.2 12 sio 0.95 12. ا 9.35 1.3 70 -70 0.15 ▸ 978 0.34 getorszakoszykanythi 1.4 0.16 18 1 B 60 wastegaturys $ aprotagande 40 2 1.2 1.3 1.4 0,4 0.6 0.8 1 13 1.4 15 16 17 18 19 2 1.5 2 0.7 1.5 017 0.17 3 1.6 18 2 0.33 L 16 2 50 27 no ++++ģļjjjjśį þýtį į ZEO 03++ 0.18 0.18 r qulay by day ++++++ 3 3 25 0.5 1.7 0.35 dporadgonadaptad 20 3.0 /01 3 0.19 traportat 09 0.4 40 0.19 TOWARD GENERATOR 45 4 3 0.31 0.3 p 5 6 0.3 02 51 0.2 portant 0.29 02 03 10 20 1.9 0.29 - 10 15 4 5 10 >> 0.2 0.1 0 ATTEN [48] S.W. LOSS COEFF REL COFFF Fort. le el SWR KTN LOSS f RFL. CORFF.P das 0.46 0.04 B 1 1 0,0 7:0 ORIGIN 045 2204 pompoffent 0.04 -150 -10040 20 - 40 30 0 150 0.05 0.9 08 01.9 0.06 er 0.44 S 78 0.33 jajajaj††††ffffff+++|HH|4fff jajajjİİİİİpt 091- OFE 10 20 0.7 044 0.06 200 0.43 4-5 0.2 130 LLBIT TALL ACTANCE COMPONENT (+X/201 OR CAPACITIVE SUSCEPTANCE (B/YO). 0.43 0.08 OCT- 15 3 5 0.42 99 4 0.3 0.3 8.4 Tis CAPACITIVE REACTANCE COMPONENT (1X/Zo), OR ENDUCTIVE SUSCI 0.42 F 120 10 JAAMAANI EÐA A 1.6 meznižane višegmaišiagy miło z ............ 0.09 RESISTANCE COMPONENT (R/ZO), OR CONDUCTANCE COMPONENT (G/YOX 102 5 0.42 -120 0.3 130 aku ngecharge de gandingart 60 600 0.41 10.3 3. 2.5 к 6 7 0.5 0,3 я к 02 0.6 -110 10 t 2 + G 5 01 6 0.11 ||▬▬▬▬tar 0.1 +-+ 0.39 12 0.3 ly 18 1.6 100 19 0.11 4 600 -100 0.05 55 0.2 0.8 0.12 0.38 F₂ 3.4 3 1+4 for fr 90 Z10 ++++ ptát phigel. 0.38 31 2 20 44444 0.DI D.I 0.9 102 02 36 +++++++15 0.14 0.36 +++*+ 32,1,3,1, 15 1 11 30 = 0 00 07 ☺▬▬▬▬▬▬▬▬▬▬▬▬ELVIRICILLA L 013 13.4 1:0 0.37 10.4 CENTER 106 0.6 10.6 ECO RADIALLY SCALED PARAMETERS 200 108 furg los 80 08 0.99 1.0 (G houghingtongbom? 1.00 0.14 0.36 TOWARD LOAD> 10 7 1.1 0.1 0.2 12 sio 0.95 12. ا 9.35 1.3 70 -70 0.15 ▸ 978 0.34 getorszakoszykanythi 1.4 0.16 18 1 B 60 wastegaturys $ aprotagande 40 2 1.2 1.3 1.4 0,4 0.6 0.8 1 13 1.4 15 16 17 18 19 2 1.5 2 0.7 1.5 017 0.17 3 1.6 18 2 0.33 L 16 2 50 27 no ++++ģļjjjjśį þýtį į ZEO 03++ 0.18 0.18 r qulay by day ++++++ 3 3 25 0.5 1.7 0.35 dporadgonadaptad 20 3.0 /01 3 0.19 traportat 09 0.4 40 0.19 TOWARD GENERATOR 45 4 3 0.31 0.3 p 5 6 0.3 02 51 0.2 portant 0.29 02 03 10 20 1.9 0.29 - 10 15 4 5 10 >> 0.2 0.1 0 ATTEN [48] S.W. LOSS COEFF