2ASYV-K-MC424GHz monopulse radar transceiver

K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet Features 24 GHz short range monopulse transceiver Dual receiver +/- 15° angle coverage Beam aperture 30°/ 12° @ -3dB 180MHz sweep FM input High sensitivity, integrated RF/IF amplifier Buffered I/Q IF outputs for both channels Temperature compensated oscillator RSW Rapid Sleep Wakeup for power saving Extremely compact: 78x98x7mm 3 construction Applications Ranging, distance and direction finding measurements Traffic supervision and counting Object speed measurement systems Indμstrial sensors Description K-MC4 is a Doppler Transceiver with an asymmetrical beam and two receiver antennas. This configuration allows measuring the angle of moving objects. This technique is often simply called “Monopulse Radar”, but in fact it is a “Phase-Comparison Monopulse” technique. Target deviation of +/-15° from main axis results in a phase deviation of +/- 100° at the IF outputs I1/I2 or Q1/Q2 respectively. The unique "RSW" Rapid Sleep Wakeup func- tion with <5μs wakeup time makes this module ideal for battery operated equipment. Typical duty cycle in RWS mode may be < 1% with full movement detection capability by sampling the IF signals. An extremely slim construction with only 6mm depth gives you maximum flexibility in your equipment design. A powerful evaluation kit ST200 is available. Blockdiagram Fig. 1: K-MC4 Blockdiagram © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 1/14 Rx2 Rapid Sleep Wakeup 4x100R TxRx1 I,Q I,Q I1,Q1 2 2 24.00..24.25GHz 20dB I2,Q2 /Enable FM Input Temp. Compensation LNA K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet Characteristics ParameterConditions / NotesSymbolMinTypMaxUnit Operating conditions Supply voltageV cc 4.755.005.25V Supply currentModule enabled (Pin 1 = V IL )I cc 180mA Module RSW mode (Pin 1 = V IH )57mA VCO input voltageU vco 110V VCO pin resistanceInternal pullup to 5VR vco 10K  Operating temperatureT op -20+80°C Storage temperatureT st -20+80°C Power down/Enable Module power downInput tied high with pullup 100kV IH V cc -0.7V cc + 0.3V Module enableV IL -0.22V Minimum enable timeRF- and IF-part fully functionalt on 5 s Minimum duty cycleSignal amplitude degradation < 3dBt off 0.25% Transmitter Transmitter frequencyU VCO = 5V, T amb =-20°C .. +80°Cf TX 24.05024.15024.250GHz Frequency drift vs temp.V cc =5.0V, -20°C .. +80°C  f TX -0.1MHz/°C Frequency tuning range (VCO)  f vco 180MHz VCO sensitivityS vco 18MHz/V VCO Modulation Bandwidth f=10MHz B VCO 31MHz Output powerEIRPP TX +16+18+20dBm Output power deviationFull VCO tuning range  P TX +/- 2dB Spurious emissionAccording to ETSI 300 440P spur -30dBm Receiver Antenna gainF TX =24.125GHzG Ant 13.0dBi LNA gainF RX =24.125GHzG LNA 16dB Mixer Conversion lossf IF =500HzD mixer -12.5dB Receiver sensitivityf IF =500Hz, B=1kHz, S/N=6dBP RX -116dBm Overall sensitivityf IF =500Hz, B=1kHz, S/N=6dBD system -134dBc IF output IF output impedanceR IF_AC 100  IF Amplifier gainG IF_AC 20dB I/Q amplitude balancef IF =500Hz, U IF =100mV pp U IF1 3dB I/Q phase shiftf IF =500Hz, U IF =100mV pp  1 7090110° Amplitude balance Rx1 / Rx2f IF =500Hz, U IF =100mV pp , Object in front U IF2 3dB Phase balance Rx1 / Rx2f IF =500Hz, U IF =100mV pp , Object in front  2 +/- 5° Monopulse resolutionPhase Rx1 / Rx2 divided by object angle 1) k6.7- IF frequency range-3dB Bandwidthf IF_AC 15300kHz IF noise voltage f IF =500HzU IFnoise 1.0 μV/Hz f IF =500HzU IFnoise -120dBV/Hz IF output offset voltageV cc =5.0VU os 2.22.52.8V Supply rejectionRejection supply pins to IF outputs, 1kHzD supply 10dB Note 1) Refer to chapter Object Angle Phase Conditions © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 2/14 K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet ParameterConditions / NotesSymbolMinTypMaxUnit Antenna TX vertical -3dB beamwidthE-PlaneW φ 12° TX horizontal -3dB beamwidthH-PlaneW θ 30° RX vertical-3dB beamwidthE-PlaneW φ 12° RX horizontal -3dB beamwidthH-PlaneW θ 40° Horiz. sidelobe suppressionD φ -20dB Vert. sidelobe suppressionD θ -20dB Rx1, Rx2 mechanical distanced Rx 13.7mm Body Outline DimensionsConnector left unconnected98*78*7mm 3 Weight90g ConnectorModule side: AMP X-338069-88Pins Antenna System Diagram This diagram shows module sensitivity (output voltage) in both azimuth and elevation directions. It incorporates the transmitter and one receiver antenna characteristic. Azimuth 30° , Elevation 12° At IF output voltage -6dB (corresponds to -3dB Tx power) Fig. 2: Antenna system diagram © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 3/14 K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet Object Angle Phase Conditions A moving object generates Doppler Signals on both I and Q outputs. Phase relations between Ix an Qx indicate forward or backwards movements. Objects approaching the sensor generate 90° shift between Ix and Qx outputs. Objects moving away from the sensor generate -90° shift between Ix and Qx outputs. Phase relations between I1 an I2 or Q1 and Q2 indicate the object's deviation α from the 90° axis . Please note the position of the antennas Rx1 and Rx2 in Fig. 3. Fig. 3: IF Signal phase shift vs object angle © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 4/14 -120-90-60-300306090120 -20 -10 0 10 20 Phase Shift [°] O b j e c t D e v i a t i o n [ ° ] α α K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet FM Characteristics Frequency modulation allows FSK (Frequency Shift Keying) and FMCW (Frequency Modulation Continuous Wave) techniques for ranging applications. For optimal FMCW results, the VCO characteristic should be linearized by the driving software. Fig. 4: Typical frequency vs. VCO voltage Pin Configuration PinDescriptionTypical Value 1/EnableGND: module active 2VCC5V supply 3GND0V supply 4Q1: Rx1 IF outputQ Output from Rx1 5I1: Rx1 IF output I Output from Rx1 6VCO in5V = f 0 (Range 0 ..10V) 7Q2: Rx2 IF outputQ output from Rx2 8I2: Rx2 IF output I output from Rx2 © RFbeam Microwave GmbH, Schuppisstrasse …

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K-MC4 Block diagram Operational description K-MC4 is a Doppler Transceiver with an asymmetrical beam and two receiver antennas. This configuration allows measuring the angle of moving objects. This technique is often simply called “Monopulse Radar”, but in fact it is a “Phase-Comparison Monopulse” technique. Target deviation of +/-15° from main axis results in a phase deviation of +/- 100° at the IF outputs I1/I2 or Q1/Q2 respectively. The unique "RSW" Rapid Sleep Wakeup function with <5μs wakeup time makes this module ideal for battery operated equipment. Typical duty cycle in RWS mode may be < 1% with full movement detection capability by sampling the IF signals. An extremely slim construction with only 6mm depth gives you maximum flexibility in your equipment design. © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 1/1 Rx2 Rapid Sleep Wakeup 4x100R TxRx1 I,Q I,Q I1,Q1 2 2 24.00..24.25GHz 20dB I2,Q2 /Enable FM Input Temp. Compensation LNA

Test report no.: 1-6613_18-01-01_AnnexA © CTC advanced GmbH Page 1 of 4 Annex A This test report annex is electronically signed and valid without handwritten signature. For verification of the electronic signatures, the public keys can be requested at the testing laboratory. Test report annex authorized: Mihail Dorongovskij Lab Manager Radio Communications & EMC Test report no.: 1-6613_18-01-01_AnnexA © CTC advanced GmbH Page 2 of 4 Ext ernal phot os of t he EUT Photo 1: Photo 2: Test report no.: 1-6613_18-01-01_AnnexA © CTC advanced GmbH Page 3 of 4 Photo 3: Photo 4: Test report no.: 1-6613_18-01-01_AnnexA © CTC advanced GmbH Page 4 of 4 Docum ent hi story Version Applied changes Date of release Initial release 2020-04-01

RFbeam Microwave GmbH K-MC4 monopulse radar transceiver Label and Location © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. Gallen, www.rfbeam.ch Page 1/1 Label Design Label Location Permanently on the backside of the shield cover. RFbeam Microwave GmbH K-MC4 K-MC4-RFB-00H L2008n00001 IC: 24358-KMC4 FCC ID: 2ASYV-K-MC4 RFbeam Microwave GmbH K-MC4 K-MC4-RFB-00H L2008n00001 IC: 24358-KMC4 FCC ID: 2ASYV-K-MC4

Test report no.: 1-6613/18-01-01_AnnexB © CTC advanced GmbH Page 1 of 5 Annex B This test report annex is electronically signed and valid without handwritten signature. For verification of the electronic signatures, the public keys can be requested at the testing laboratory. Test report annex authorized: Mihail Dorongovskij Lab Manager Radio Communications Test report no.: 1-6613/18-01-01_AnnexB © CTC advanced GmbH Page 2 of 5 I nt er nal phot os of t he EUT Photo 1: Photo 2: Test report no.: 1-6613/18-01-01_AnnexB © CTC advanced GmbH Page 3 of 5 Photo 3: Photo 4: Test report no.: 1-6613/18-01-01_AnnexB © CTC advanced GmbH Page 4 of 5 Photo 5: Test report no.: 1-6613/18-01-01_AnnexB © CTC advanced GmbH Page 5 of 5 Docum ent hi story Version Applied changes Date of release Initial release 2020-04-01

K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet Features 24 GHz short range monopulse transceiver Dual receiver +/- 15° angle coverage Beam aperture 30°/ 12° @ -3dB 180MHz sweep FM input High sensitivity, integrated RF/IF amplifier Buffered I/Q IF outputs for both channels Temperature compensated oscillator RSW Rapid Sleep Wakeup for power saving Extremely compact: 78x98x7mm 3 construction Applications Ranging, distance and direction finding measurements Traffic supervision and counting Object speed measurement systems Indμstrial sensors Description K-MC4 is a Doppler Transceiver with an asymmetrical beam and two receiver antennas. This configuration allows measuring the angle of moving objects. This technique is often simply called “Monopulse Radar”, but in fact it is a “Phase-Comparison Monopulse” technique. Target deviation of +/-15° from main axis results in a phase deviation of +/- 100° at the IF outputs I1/I2 or Q1/Q2 respectively. The unique "RSW" Rapid Sleep Wakeup func- tion with <5μs wakeup time makes this module ideal for battery operated equipment. Typical duty cycle in RWS mode may be < 1% with full movement detection capability by sampling the IF signals. An extremely slim construction with only 6mm depth gives you maximum flexibility in your equipment design. A powerful evaluation kit ST200 is available. Blockdiagram Fig. 1: K-MC4 Blockdiagram © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 1/14 Rx2 Rapid Sleep Wakeup 4x100R TxRx1 I,Q I,Q I1,Q1 2 2 24.00..24.25GHz 20dB I2,Q2 /Enable FM Input Temp. Compensation LNA K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet Characteristics ParameterConditions / NotesSymbolMinTypMaxUnit Operating conditions Supply voltageV cc 4.755.005.25V Supply currentModule enabled (Pin 1 = V IL )I cc 180mA Module RSW mode (Pin 1 = V IH )57mA VCO input voltageU vco 110V VCO pin resistanceInternal pullup to 5VR vco 10K  Operating temperatureT op -20+80°C Storage temperatureT st -20+80°C Power down/Enable Module power downInput tied high with pullup 100kV IH V cc -0.7V cc + 0.3V Module enableV IL -0.22V Minimum enable timeRF- and IF-part fully functionalt on 5 s Minimum duty cycleSignal amplitude degradation < 3dBt off 0.25% Transmitter Transmitter frequencyU VCO = 5V, T amb =-20°C .. +80°Cf TX 24.05024.15024.250GHz Frequency drift vs temp.V cc =5.0V, -20°C .. +80°C  f TX -0.1MHz/°C Frequency tuning range (VCO)  f vco 180MHz VCO sensitivityS vco 18MHz/V VCO Modulation Bandwidth f=10MHz B VCO 31MHz Output powerEIRPP TX +16+18+20dBm Output power deviationFull VCO tuning range  P TX +/- 2dB Spurious emissionAccording to ETSI 300 440P spur -30dBm Receiver Antenna gainF TX =24.125GHzG Ant 13.0dBi LNA gainF RX =24.125GHzG LNA 16dB Mixer Conversion lossf IF =500HzD mixer -12.5dB Receiver sensitivityf IF =500Hz, B=1kHz, S/N=6dBP RX -116dBm Overall sensitivityf IF =500Hz, B=1kHz, S/N=6dBD system -134dBc IF output IF output impedanceR IF_AC 100  IF Amplifier gainG IF_AC 20dB I/Q amplitude balancef IF =500Hz, U IF =100mV pp U IF1 3dB I/Q phase shiftf IF =500Hz, U IF =100mV pp  1 7090110° Amplitude balance Rx1 / Rx2f IF =500Hz, U IF =100mV pp , Object in front U IF2 3dB Phase balance Rx1 / Rx2f IF =500Hz, U IF =100mV pp , Object in front  2 +/- 5° Monopulse resolutionPhase Rx1 / Rx2 divided by object angle 1) k6.7- IF frequency range-3dB Bandwidthf IF_AC 15300kHz IF noise voltage f IF =500HzU IFnoise 1.0 μV/Hz f IF =500HzU IFnoise -120dBV/Hz IF output offset voltageV cc =5.0VU os 2.22.52.8V Supply rejectionRejection supply pins to IF outputs, 1kHzD supply 10dB Note 1) Refer to chapter Object Angle Phase Conditions © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 2/14 K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet ParameterConditions / NotesSymbolMinTypMaxUnit Antenna TX vertical -3dB beamwidthE-PlaneW φ 12° TX horizontal -3dB beamwidthH-PlaneW θ 30° RX vertical-3dB beamwidthE-PlaneW φ 12° RX horizontal -3dB beamwidthH-PlaneW θ 40° Horiz. sidelobe suppressionD φ -20dB Vert. sidelobe suppressionD θ -20dB Rx1, Rx2 mechanical distanced Rx 13.7mm Body Outline DimensionsConnector left unconnected98*78*7mm 3 Weight90g ConnectorModule side: AMP X-338069-88Pins Antenna System Diagram This diagram shows module sensitivity (output voltage) in both azimuth and elevation directions. It incorporates the transmitter and one receiver antenna characteristic. Azimuth 30° , Elevation 12° At IF output voltage -6dB (corresponds to -3dB Tx power) Fig. 2: Antenna system diagram © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 3/14 K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet Object Angle Phase Conditions A moving object generates Doppler Signals on both I and Q outputs. Phase relations between Ix an Qx indicate forward or backwards movements. Objects approaching the sensor generate 90° shift between Ix and Qx outputs. Objects moving away from the sensor generate -90° shift between Ix and Qx outputs. Phase relations between I1 an I2 or Q1 and Q2 indicate the object's deviation α from the 90° axis . Please note the position of the antennas Rx1 and Rx2 in Fig. 3. Fig. 3: IF Signal phase shift vs object angle © RFbeam Microwave GmbH, Schuppisstrasse 7, CH-9016 St. GallenPage 4/14 -120-90-60-300306090120 -20 -10 0 10 20 Phase Shift [°] O b j e c t D e v i a t i o n [ ° ] α α K-MC4 MONOPULSE RADAR TRANSCEIVER Datasheet FM Characteristics Frequency modulation allows FSK (Frequency Shift Keying) and FMCW (Frequency Modulation Continuous Wave) techniques for ranging applications. For optimal FMCW results, the VCO characteristic should be linearized by the driving software. Fig. 4: Typical frequency vs. VCO voltage Pin Configuration PinDescriptionTypical Value 1/EnableGND: module active 2VCC5V supply 3GND0V supply 4Q1: Rx1 IF outputQ Output from Rx1 5I1: Rx1 IF output I Output from Rx1 6VCO in5V = f 0 (Range 0 ..10V) 7Q2: Rx2 IF outputQ output from Rx2 8I2: Rx2 IF output I output from Rx2 © RFbeam Microwave GmbH, Schuppisstrasse …

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© CTC advanced GmbH Page 1 of 3 BNetzA - CAB - 02/21 - 102 D - P L - 1 2 0 7 6 - 0 1 - 0 3 Maximum Permissible Exposure (MPE) & Exposure evaluation Report identification number: 1-6613/18-01-04 MPE (FCC_IC) Certification numbers and labeling requirements FCC ID 2ASYV-K-MC4 IC number 24358-KMC4 HVIN (Hardware Version Identification Number) K-MC4 PMN (Product Marketing Name) K-MC4 FVIN (Firmware Version Identification Number) -/- HMN (Host Marketing Name) -/- This report is electronically signed and valid without handwriting signature. For verification of the electronic signatures, the public keys can be requested at the testing laboratory. Document authorised: Alexander Hnatovskiy Marco Scigliano Lab Manager Testing Manager Radio Communications & EMC Radio Communications & EMC Report no.: 1-6613/18-01-04 © CTC advanced GmbH Page 2 of 3 EUT technologies: Technologies: Max. measured: (AVG) 24.00 to 24.25 GHz Automotive Radar 112.6 dBμV / 17.37 dBm )* Max measured EIRP 112.6dBμV/m @24.098 GHz (distance 3m) taken from CTC advanced test report 1-6613/18-01-03 Prediction of MPE limit at given distance - FCC Equation from page 18 of OET Bulletin 65, Edition 97-01 S = PG / 4π R 2 where: S = Power density P = Power input to the antenna G = Antenna gain R = Distance to the center of radiation of the antenna PG = Output Power including antenna gain The table below is excerpted from Table 1B of 47 CFR 1.1310 titled “Limits for Maximum Permissible Exposure (MPE), Limits for General Population/Uncontrolled Exposure” Frequency Range (MHz) Power Density (mW/cm 2 ) Averaging Time (minutes) 300 -1500 f/1500 30 1500 - 100000 1.0 30 where f = Frequency (MHz) Prediction: worst case TechnologyRadar Frequency24098MHz P∙Gmax permissible EIRP17.37dBm RDistance20cm SMPE limit for uncontrolled exposure1.0000 mW/cm 2 Calculated Power density:0.0109mW/cm² Calculated percentage of limit:1.09% This prediction demonstrates the following: The power density levels for FCC at a distance of 20 cm are below the maximum levels allowed by regulations. Report no.: 1-6613/18-01-04 © CTC advanced GmbH Page 3 of 3 Prediction of MPE limit at given distance - IC RSS-102, Issue 5, 2.5.2 RF exposure evaluation is required if the separation distance between the user and/or bystander and the device’s radiating element is greater than 20 cm, except when the device operates as follows: • below 20 MHz and the source-based, time-averaged maximum e.i.r.p. of the device is equal to or less than 1 W (adjusted for tune-up tolerance); • at or above 20 MHz and below 48 MHz and the source-based, time-averaged maximum e.i.r.p. of the device is equal to or less than 4.49/ƒ 0.5 W (adjusted for tune-up tolerance), where ƒ is in MHz; • at or above 48 MHz and below 300 MHz and the source-based, time-averaged maximum e.i.r.p. of the device is equal to or less than 0.6 W (adjusted for tune-up tolerance); • at or above 300 MHz and below 6 GHz and the source-based, time-averaged maximum e.i.r.p. of the device is equal to or less than 1.31 x 10 -2 ƒ 0.6834 W (adjusted for tune-up tolerance), where ƒ is in MHz; • at or above 6 GHz and the source-based, time-averaged maximum e.i.r.p. of the device is equal to or less than 5 W (adjusted for tune-up tolerance). Prediction: worst case Frequency 24.098 GHz Distance 20 cm Maximum EIRP 17.37 dBm Maximum EIRP 0.1 W Exclusion Limit from above: 5.0 W Calculated percentage of Limit: 1.09% Conclusion: RF exposure evaluation is not required. For applications where minimum distance to radiating element is 20cm Annex C of RSS-102 should be filled out.

BNetzA - CAB - 02/21 - 102 TEST REPORT Test report no.: 1-6613/18-01-03 Testing laboratory Applicant CTC advanced GmbH Untertuerkheimer Strasse 6 – 10 66117 Saarbruecken / Germany Phone: + 49 681 5 98 - 0 Fax: + 49 681 5 98 - 9075 Internet: http://www.ctcadvanced.com e-mail: [email protected] Accredited Testing Laboratory: The testing laboratory (area of testing) is accredited according to DIN EN ISO/IEC 17025 (2005) by the Deutsche Akkreditierungsstelle GmbH (DAkkS) The accreditation is valid for the scope of testing procedures as stated in the accreditation certificate with the registration number: D-PL-12076-01-03 RFbeam Microwave GmbH Schuppisstrasse 7 9016 St. Gallen / SWITZERLAND Phone: +41 7 12 45 33 80 Contact: Léon Audergon e-mail: [email protected] Phone: +41 7 12 45 33 80 Manufacturer RFbeam Microwave GmbH Schuppisstrasse 7 9016 St. Gallen / SWITZERLAND Test standard/s FCC - Title 47 CFR Part 15 FCC - Title 47 of the Code of Federal Regulations; Chapter I; Part 15 - Radio frequency devices RSS - 210 Issue 9 Spectrum Management and Telecommunications Radio Standards Specification - Licence-Exempt Radio Apparatus: Category I Equipment RSS - Gen Issue 5 Spectrum Management and Telecommunications Radio Standards Specification - General Requirements for Compliance of Radio Apparatus For further applied test standards please refer to section 3 of this test report. Test Item Kind of test item: 24 GHz Analog Radar Transceiver Model name: K-MC4 FCC ID: 2ASYV-K-MC4 IC: 24358-KMC4 Frequency: 24.075 GHz to 24.175 GHz Antenna: Integrated patch antenna Power supply: 4.75 V to 5.25 V DC by external power supply Temperature range: -20°C to +80°C This test report is electronically signed and valid without handwritten signature. For verification of the electronic signatures, the public keys can be requested at the testing laboratory. Test report authorized: Test performed: p.o. Karsten Geraldy Benedikt Gerber Lab Manager Lab Manager Radio Communications & EMC Radio Communications & EMC Test report no.: 1-6613/18-01-03 © CTC advanced GmbH Page 2 of 37 1 Table of contents 1 Table of contents ............................................................................................................................................ 2 2 General information ....................................................................................................................................... 3 2.1 Notes and disclaimer .......................................................................................................................... 3 2.2 Application details ............................................................................................................................... 3 2.3 Test laboratories sub-contracted ...................................................................................................... 3 3 Test standard/s and references .................................................................................................................... 4 4 Test environment ............................................................................................................................................ 5 5 Test item .......................................................................................................................................................... 5 5.1 General description ............................................................................................................................. 5 5.2 Additional information ........................................................................................................................ 5 6 Description of the test setup ......................................................................................................................... 6 6.1 Shielded semi anechoic chamber ...................................................................................................... 7 6.2 Shielded fully anechoic chamber ...................................................................................................... 9 6.3 Radiated measurements > 18 GHz ................................................................................................... 11 6.4 Radiated measurements > 50 GHz ................................................................................................... 11 6.5 AC conducted .................................................................................................................................... 13 7 Sequence of testing ..................................................................................................................................... 14 7.1 Sequence of testing radiated spurious 9 kHz to 30 MHz ............................................................... 14 7.2 Sequence of testing radiated spurious 30 MHz to 1 GHz .............................................................. 15 7.3 Sequence of testing radiated spurious 1 GHz to 18 GHz .............................................................. 16 7.4 Sequence of testing radiated spurious above 18 GHz .................................................................. 17 7.5 Sequence of testing radiated spurious above 50 GHz with external mixers .............................. 18 8 Summary of measurement results ............................................................................................................. 19 9 Detailed measurement results .................................................................................................................... 20 9.1 Field strength of fundamental emission ......................................................................................... 20 9.2 Occupied bandwidth (99% bandwidth) ........................................................................................... 22 9.3 Field strength of emissions (radiated spurious) ............................................................................ 24 9.4 Conduc…

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Test report no.: 1-6613/18-01-01_AnnexD © CTC advanced GmbH Page 1 of 7 Annex D This test report annex is electronically signed and valid without handwritten signature. For verification of the electronic signatures, the public keys can be requested at the testing laboratory. Test report annex authorized: Benedikt Gerber Lab Manager Radio Communications & EMC Test report no.: 1-6613/18-01-01_AnnexD © CTC advanced GmbH Page 2 of 7 EUT Test set up phot os Photo 1: Photo 2: Test report no.: 1-6613/18-01-01_AnnexD © CTC advanced GmbH Page 3 of 7 Photo 3: Photo 4: Test report no.: 1-6613/18-01-01_AnnexD © CTC advanced GmbH Page 4 of 7 Photo 5: Photo 6: Test report no.: 1-6613/18-01-01_AnnexD © CTC advanced GmbH Page 5 of 7 Photo 7: Photo 8: Test report no.: 1-6613/18-01-01_AnnexD © CTC advanced GmbH Page 6 of 7 Photo 9: Photo 10: Test report no.: 1-6613/18-01-01_AnnexD © CTC advanced GmbH Page 7 of 7 Docum ent hi story Version Applied changes Date of release Initial release 2018-10-12