Ralf Wilke, RWTH Aachen Institute of High Frequency Technology

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Transcription:

GeReLEO SMART Speaker / Project Manager: Ralf Wilke, RWTH Aachen Institute of High Frequency Technology Contributions by: Korbinian Schraml, IHF Aachen Michael Gräßlin, Thomas Aust, Tobias Berheide IZR Stuttgart Ulrich Prechtel, Erika Meniconi, Volker Ziegler Airbus Group München Martin Brück, Norman Kranich, Daniel Stemmann SINTEC Böblingen Marco Haubold, Steffen Kurth, Johann-Peter Sommer Fraunhofer ENAS Layout Gräßlin Folie 1

Contents Project Overview Technical description of sub-components Test requirements, procedures and results Slide 2

Project Overview GeReLEO Concept: Relay Satellite in GEO to establish long term connections between ground station and LEOs GeReLEO-SMART: In-Orbit Verification of key technology on H2SAT Multi Layer Patch Antenna with integrated LNA RF MEMS switches to select different antenna groups FPGA to control MEMS switches Operating frequency Ka Band (~ 26 GHz) Redundant Test Equipment for FPGA and MEMS Slide 3

Key objectives of the mission In-Orbit qualification and degradation analysis of Multi Layer Antenna based on Teflon substrates with integrated pre-selector and LNA MEMS switches built by Fraunhofer ENAS FPGA for system control, house keeping data and tele command communication Experiments and testing will be conducted in periodic time steps in orbit Validating and analysis of durability in GEO Communication Experiment Transmitting from Ground Station simulating LEO Receiving signal via H2SAT transponder downlink Slide 4

Parts of GeReLEO-SMART Radiation Sensor MEMS Switch Multi Feed Antenna Wave Guide Filter Output Amp Coax Switch Power Supply Redundant MEMS Board Digital Processing Unit Slide 5

RF signal flow F+LNA F+LNA F+LNA F+LNA F+LNA Multi Feed Array 5 Beams MEMS Board Coax Switch SPDT Filter Wave Tube BW 36MHz LNA + Power Meter Transponder Input Slide 6

Micro Switch for GHz frequency range applications General: Electrostatic driving Series and shunt switch available 3 mm x 1,5 mm x 0,5 mm flip-chip-device 4 GHz version and 75 GHz version available Driving electrodes Benefits: Very low actuation voltage (<5 V) and short switch on time (<10 µs) Lossless actuation High contact force (>100 µn) and improved reliability of contact resistance Applications: Adaptive Antenna to improve communication quality in fast changing environment Reconfiguration of radio modules for different standards Multiplexing switch arrays for test equipment RF- und Contact area Slide 7

MEMS Switch Board Component Testing MEMS Switch board needs power divider, Bias-T and DC blocking Separate test board to check subcomponents Slide 8

RF building-blocks on Bread Board Line 10mm Line Loss measured 0,25 db/cm @ 26 GHz AWR-txline ideal RO6002 : 0,1 db/cm @ 26 GHz tan 0,0012 Calibration TRL: Open, through, Line 1 2 3 MTB Wilkinson 6 GHz 1 2 3 Loss -3,2 db Isolation - 30 db Performance: O.K. Small frequency shift needed Slide 9

RF building-blocks on Bread Board BIAS - T Performance @ 26 GHz O.K.: I. L. - 0,4 db R.L. - 22 db Isolation Bias: - 40 db I.L. < -0,6dB @ 25 28 GHz I.L. < -1,0dB @ 24 31 GHz improve manufacturing yield Coupler RF - Stop Self test Insertion loss: -0,4 db Insertion loss: - 0,1 db Insertion loss: < - 0,1 db Slide 10

Test of single Radant MEMS SPDT Radant-MEMS Port 2 Port 1 50 Ohm ON OFF AVT ENAS Nov/Dez 2013 I.L: 2 db @ 26 GHz 1 db @ 21 GHz IS: 15 db @ 26 GHz 13 db @ 21GHz Performance beyond 20 GHz will be further improved by optimisation of AVT Slide 11

MEMS switch board, Radant MEMS, AVT ENAS VNA Port 2 VNA Port 1 50 Ohm Load Testing MEMS with Vector Network Analyser Test wiring is causing 4 db insertion loss @ 26 GHz Slide 12

Analysis of losses in MEMS board Simulation without cable & connector AWR-Model, RO6002-lossy S-Parameter from measurement bond wire company Falkenstein S-Parameter from measurement improved bond wire ENAS Measurement with cable & connector Measurement MSMv0.0 old bond wire ENAS Simulated losses after optimisation of technique for joining parts Without cable and connector: 3 4 db, cable and connector : 7 8 db Slide 13

Redundant MEMS Test Board Preliminary Design Signal source 6 GHz MEMS EADS Couplers 1:10 MEMS ENAS Power Meter 1 Power Meter 2 Identical dimensions as MEMS switch board, detailed design still under construction Slide 14

Multi Feed Antenna Two principal substrate materials: Rogers 6002 and TMM3 4 layer stack with patch antenna, bonded LNA and pre-selector Final choice depending on radiation hardness Test fabrication to demonstrate of technique for joining parts Pre-Selector Filter and LNA die bonding Rogers 6002 Pre-Selector Filter and LNA die bonding Rogers TMM3 5 groups of 2x2 patch antenna Rogers 6002 Slide 15

Filter Vibration Test Rogers 6002 Slide 16

Filter Vibration Test Rogers TMM3 Slide 17

Antenne Vibration Test Rogers 6002 Slide 18

Antenne Vibration Test Rogers 6002 Slide 19

Radiation Test 6002 vs. TMM3 PTFE was known to be not radiation hard Antenna substrate is PTFE based radiation test necessary Antenna substrate has almost no shielding,100 MRad in 15 years Radiation tests with Cobalt 60 at Fraunhofer INT in Euskirchen Step by step radiation dozes augmentation with intermediate tests at RWTH Aachen of S-Parameter and far field radiation Preliminary results to be presented at DLR Bauteile-Konferenz in Freiburg Slide 20

Thank you for your attention Slide 21