NASA CR-2357 Feasilibility Study of an SSPS

49 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Attitude Error 69 50 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Response Time 70 51 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Response Time 70 52 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Control Force 71 53 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Control System Gain 71 54 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Rate Feedback Gain 7 2 55 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Rate Feedback Gain 7 2 56 Variation of the 1st Anti-Symmetric Yaw Mode Frequency with Structural Weight and Attitude Error 73 57 SSPS Amplitron 80 58 Vane Temperature Rise Versus Frequency in SSPS Amplitron 81 59 Vane Temperature Versus Frequency of SSPS Amplitron 82 60 Anode Dissipation Versus Frequency 82 61 Magnetic Field Versus Frequency 83 62 Size Comparison Between the Radially Gaussed Sm-Co Magnet and the Alnico V Magnet for 8129 Type CFA 84 63 Magnetic Circuit Amplitron at 2.0 GHz 85 64 Magnetic Circuit of Amplitron at 2.45 GHz 87 65 Magnetic Circuit of Amplitron at 3.3 GHz 88 66 Magnetic Circuit of Amplitron at 3.3 GHz 89 67 Schematic of ITT Gilfillan-Built Radar System 91 68 Fixed Frequency Harmonic Output — Normal Waveguide System 92 69 QKS1646 No. 2 impedance Match 92 70 Spectrum Analyzer Presentation of Tum-On/Shut-Off Type Energy 93 71 RF Spectrum Assumptions for SSPS Investigations Close to Main Beam 95 72 Antenna-Earth Surface Geometry 97 73 Rectifying Antenna Reference Plane Normal to Beam C 97 74 Transmitting Antenna Exponent = % Power Distribution 98 75 Rectifying Antenna Power Distribution for Exponent = % Distribution at Transmitting Antenna 98 76 Noise Temperature Profile 101 77 Gain of SSPS Antenna Associated with Each Amplitron 103 78 SSPS Noise Associated with Basic Device and Filter 103

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