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1 HSK2411202035 | Fixed Terminal Ku 8X8 V2 | Quick Start Installation Guide Fixed Terminal Ku 8X8 V2 Quick Start Installation Guide Document P/N: QSIG0004 Document Version: V2.0 Creation date: August 25, 2022 Last updated: December 8, 2022 Proprietary Notice This document is the proprietary property of hiSky Ltd. Copying or otherwise distributing the information contained herein is a breach of confidentiality agreement and is subject to legal action. 2 HSK2411202035 | Fixed Terminal Ku 8X8 V2 | Quick Start Installation Guide Introduction The Quick Start Guide provides basic information for installation, identification of connectors and visual indicators, as well as regulatory information for the hiSky IoT Fixed Ku V2 Terminal. Product Description hiSky Smartellite™ Fixed Ku V2 terminal is part of a unique line of satellite terminals that features innovative technology, enabling stationary operations for various applications in the IoT field. The Smartellite™ Fixed Ku V2 terminal is a low-cost, compact satellite device based on a state-of-the-art design. The terminal comprises Patch antennas and a built-in modem, providing a mountable all-in- one solution, which independently & seamlessly directs comms through GEO satellites. This exceptional LDR ground terminal is a part of hiSky’s agile IoT network, enabling IoT services according to our customer’s applicational needs. Related Documents For information about related documents please navigate to https://www.hiskysat.com. hiSky strives to produce documentation that is technically accurate and easy to use. hiSky welcomes feedback. Send comments to [email protected]. Getting Help For answers to questions or for more information, contact hiSky support at [email protected]. 3 HSK2411202035 | Fixed Terminal Ku 8X8 V2 | Quick Start Installation Guide Fixed Ku V2 Terminal Overview WARNING: Do not open the terminal or make any changes to the terminal construction. An opening may expose personnel to dangerous voltages or other hazards. There are no user-serviceable parts inside. Avoid placing the Terminal near open flames or any high heat. The terminal kit contains the following items: IoT Fixed Ku 8X8 V2 Terminal, plastic Gland and this Quick Start Guide. The kit does not include a power supply, bracket, screws, cables, or any other mechanical parts for the installation. Part Description Status LED Off: Powered off Slow Flashing green: Searching for satellite (terminal initialization or tracking lost ). Fast Flashing green: registration process Solid Green: Service available (terminal locked/track and registered). Flashing Blue (every burst): Terminal transmits (toggle every half- second for 250 mil). Flashing red: No service due to registration problem Red: Power up / Failure Solid Blue: Recovery Mode Connector RJ45 / PoE for external Power and Data interfaces Additional mechanical part for sealing the PoE interface thread Plastic Gland 4 HSK2411202035 | Fixed Terminal Ku 8X8 V2 | Quick Start Installation Guide Power Supply (not supplied with the kit) AC to DC power supply/Connector Type: POE injector. Input: 100-240VAC 50 -60Hz Output: 57VDC - 0.8A WARNING: The power supply must be certified for safety, electromagnetic compatibility, and all the regulations in the region where the terminal will operate. Follow all safety instructions according to the manufacturer of the power supply. A qualified technician should examine the risk of electrical shock and energy hazards of power supply failures according to manufacturer instructions. Overview of First Run Operation with the hiSky 360 App 1. Initial Login: a) Confirm Internet connectivity to your smartphone for the initial Login and software download steps. b) Download the hiSky App from iPhone App Store or Android Google Play Store. c) Click on the hiSky360 App icon. d) Click LOGIN on the main screen. e) Add the account credentials (username and password) related to your hiSky360 account. f) Choose the NMS connection and tap LOGIN. 2. Software coverage file update: a) On the main hiSky360 App screen, click on Software Update. b) Click Ok to continue with the software update process. c) Click on MANAGE UPDATES. d) Click on CHECK FOR UPDATES FROM NMS. e) Select the latest fixed Ku software version for your terminal. f) Download the software files to your mobile app. g) Download the polygons files to your mobile app (scroll the main page to the left). 5 HSK2411202035 | Fixed Terminal Ku 8X8 V2 | Quick Start Installation Guide h) Ensure the terminal’s mounting side is facing down and connect the terminal to a power source. i) Connect your smartphone to the terminal WI-FI access point. The default SSID is the terminal serial number + the characters WF (for example 2970000000001WF). The default password is admin123. j) Wait for the application to attach to the terminal software. The status will initially show “Attempting”. Wait until it shows “Connected” before proceeding with the upgrade. k) On the main hiSky App screen, click on SOFTWARE UPDATE. l) Click on INSTALL UPDATE. m) At the end of the update, the terminal will reboot. 3. Choose Satellite Parameters a) Connect your smartphone to the terminal WI-FI access point. b) Return to the main screen and click on TERMINAL CONFIG. c) Use the TERMINAL CONFIG button to integrate between the terminal and the User Device. 4. Active the service plan a) Connect your smartphone to the terminal’s WI-FI access point. b) Login to the hiSky App via a terminal connection. c) On the main hiSky 360 App screen, click on Plan Details. d) Click the ACTIVE PLAN button and wait for confirmation. 6 HSK2411202035 | Fixed Terminal Ku 8X8 V2 | Quick Start Installation Guide 5. Connect the Satellite and the Terminal To establish connectivity between the satellite and the terminal, do the following: a) Place the terminal on level ground or tripod mount. b) Place the terminal in a clear line of sight between the terminal and the satellite. Any buildings, trees, people, or o…
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Gal Diamant
Page 1 of 4 Company Information Date: 06.12.2022 Company Name: hiSky SCS LTD Company Address: 24 Amal st. Rosh Ha Ayin, Israel Company Telephone: +972-3-6588000 Contact Person: Yori Adi Job Title: NPI & Production Manager Telephone/Mobile: +972-545431111 E-mail: [email protected] Product Information Model Number(s): Fixed Ku 8X8 Product dimensions (mm): Length, width, height: 305 x 180 x 52mm Product weight (Kg): 2370g Pictures Front view: Page 2 of 4 Top view: Page 3 of 4 Bottom view: Digital board: Page 4 of 4 RF Boards:
Annex A No.1-3494/21-01-01_Annex_A External photos of the Device Under Test This document is electronically signed and valid without handwritten signature. For verification of the electronic signatures, the public keys can be requested at the testing laboratory. Document authorized: Thomas Vogler Lab Manager Radio Communications CTC advanced GmbHUntertuerkheimer Str. 6-10 66117 Saarbruecken / Germany Phone: +49 681 5 98 - 0 Fax: +49 681 5 98 - 9075 web: ctcadvanced.com e-mail: [email protected] Photos Annex A Photo 1 Photo 2 2022-11-16Document 1-3494/21-01-01_Annex_A2/4 Photo 3 Photo 4 2022-11-16Document 1-3494/21-01-01_Annex_A3/4 Photo 5 - END OF DOCUMENT - 2022-11-16Document 1-3494/21-01-01_Annex_A4/4
© Copyright hiSky SCS Ltd. All Rights Reserved. Label and label location: 1. Label contains: 2. Label location: On the bottom of the product: © Copyright hiSky SCS Ltd. All Rights Reserved. 3. Packing label:
Annex B No.1-3494/21-01-01_Annex_B Internal photos of the Device Under Test This document is electronically signed and valid without handwritten signature. For verification of the electronic signatures, the public keys can be requested at the testing laboratory. Document authorized: Thomas Vogler Lab Manager Radio Communications CTC advanced GmbHUntertuerkheimer Str. 6-10 66117 Saarbruecken / Germany Phone: +49 681 5 98 - 0 Fax: +49 681 5 98 - 9075 web: ctcadvanced.com e-mail: [email protected] Photos Annex B Photo 1 Photo 2 2022-11-16Document 1-3494/21-01-01_Annex_B2/16 Photo 3 Photo 4 2022-11-16Document 1-3494/21-01-01_Annex_B3/16 Photo 5: PCB133 Photo 6: PCB133 2022-11-16Document 1-3494/21-01-01_Annex_B4/16 Photo 7: PCB133 Photo 8: PCB133 2022-11-16Document 1-3494/21-01-01_Annex_B5/16 Photo 9: PCB132 Photo 10: PCB132 2022-11-16Document 1-3494/21-01-01_Annex_B6/16 Photo 11: PCB132 Photo 12: PCB132 2022-11-16Document 1-3494/21-01-01_Annex_B7/16 Photo 13: PCB132 Photo 14: PCB145 2022-11-16Document 1-3494/21-01-01_Annex_B8/16 Photo 15: PCB145 Photo 16: PCB000138 2022-11-16Document 1-3494/21-01-01_Annex_B9/16 Photo 17: PCB000138 Photo 18: PCB000138 2022-11-16Document 1-3494/21-01-01_Annex_B10/16 Photo 19: PCB000138 Photo 20: PCB000138 2022-11-16Document 1-3494/21-01-01_Annex_B11/16 Photo 21: PCB000138 Photo 22: PCB 000138 2022-11-16Document 1-3494/21-01-01_Annex_B12/16 Photo 23: PCB000138 Photo 24: PCB000138 2022-11-16Document 1-3494/21-01-01_Annex_B13/16 Photo 25 Photo 26 2022-11-16Document 1-3494/21-01-01_Annex_B14/16 Photo 27 Photo 28 2022-11-16Document 1-3494/21-01-01_Annex_B15/16 Photo 29 - END OF DOCUMENT - 2022-11-16Document 1-3494/21-01-01_Annex_B16/16
© CTC advanced GmbH Page 1 of 4 BNetzA - CAB - 02/21 - 102 Maximum Permissible Exposure (MPE) & Exposure evaluation Report identification number: 1-3494/21-01-09 MPE (FCC) Certification numbers and labeling requirements FCC ID 2A4L8-FKU8X8V2 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. Document authorised: Alexander Hnatovskiy Marco Scigliano Lab Manager Testing Manager Radio Communications & EMC Radio Communications & EMC Report no.: 1-3494/21-01-09 © CTC advanced GmbH Page 2 of 4 EUT technologies: Technologies: Max. power Antenna gain max.: [dBi] * Max average EIRP Declared by customer # conducted EIRP KU Band 13.75 to 14.50 GHz -- 13.755 GHz: 49.4 dBm 14.125 GHz: 49.9 dBm 14.495 GHz: 49.6 dBm (peak values) -- 35.17 dBm (=3.29 W) A WLAN 2450 MHz -- 10.9 dBm < 0 11.0 dBm (=12.59 mW) B BT EDR / LE -- 2.2 dBm (EDR) -1.9 dBm (LE) -- 3.0 dBm (= 2.00 mW) C )* worst case of all antenna types, channels and modulations (overrated) Details and origins of the measurements shown in the table above: # Results from: Additional information A 1-3494/21-01-02 CTC advanced GmbH Max PEAK-EIRP page 21 Duty Cycle correction of 3.37% (See Annex A of this document) B 1-2751/21-01-08-A CTC advanced GmbH Antenna gain page 15, Max. EIRP page 18 C 1-2751/21-01-09-A CTC advanced GmbH Max. EIRP page 11 (BT EDR) Max. EIRP page 12 (BT LE) Collocation overview: Active scenario: Technology 1 2 3 4 KU Band x x x WLAN 2450 MHz x x x BT EDR / LE 2450 MHz x x x Report no.: 1-3494/21-01-09 © CTC advanced GmbH Page 3 of 4 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 Technologies: Wlan BT EDR KU Band Frequency (MHz) 2450 2450 13755 PG Declared max power (EIRP) 11 3 35.17 dBm R Distance 20 20 20 cm S MPE limit for uncontrolled exposure 1 1 1 mW/cm 2 Calculated Power density: 0.0025 0.0004 0.6546 mW/cm² Calculated percentage of Limit: 0.25% 0.04% 65.46% Scenario 4: ALL ACTIVE Calculated percentage of Limit: 65.75% Collocation: 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.: 1-3494/21-01-09 © CTC advanced GmbH Page 4 of 4 Annex A: Duty cycle of the EUT (KU Band): Duty Cycle 3.37% Plot data: Transmission Period: 6s Pulse Duration: 202 ms Number of pulses in 360 Seconds = 60 Total Transmission time in 360 Seconds: 60 · 202ms = 12.12s
D - P L - 1 2 0 7 6 - 0 1 - 0 3 BNetzA-CAB-02/21-102 TEST REPORT Test report no.: 1-3494/21-01-02 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 hiSky SCS Ltd 24 Amal St. Park Afek, Rosh Hay’ayin P.O.B 11363 / Israel 4809268 Phone: +972-3-6588000 Contact: Yori Adi e-mail: [email protected] Phone: +972-3-9646144 Fax: +972-3-6587999 Manufacturer Jabil Circuits Italy Via per Casapuzzano, 1 81025 Marcianise CE, Italy Test standard/s 47 CFR Part 25 Title 47 of the Code of Federal Regulations; Chapter I; Part 25 - Satellite Communications Test Item Kind of test item: Fixed Smartellite Terminal Ku 8X8 V2 Model name: Fixed Terminal Ku 8X8 V2 FCC ID: 2A4L8-FKU8X8V2 Frequency: Tx: 13.75 – 14.50 GHz / Rx: 10.70 – 12.75 GHz Characteristics: Tx/Rx, BPSK Power supply: 100 – 240 V AC, 50/60 Hz by Power Supply, 54 V DC Temperature range: -20 °C to +60 °C This test 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. Test report authorized: Test performed: Meheza Walla Thomas Vogler Lab Manager Lab Manager Radio Communications & EMC Radio Communications & EMC Test report no.: 1-3494/21-01-02 Page 2 of 29 1 Table of contents 1 Table of contents ..................................................................................................................................... 2 2 General information ................................................................................................................................. 3 2.1 Notes and disclaimer ..................................................................................................................... 3 2.2 Application details ......................................................................................................................... 3 3 Test standards and references ................................................................................................................ 4 3.1 Test standards ............................................................................................................................... 4 3.2 Measurement guidance ................................................................................................................. 4 3.3 Reporting statements of conformity – decision rule ................................................................... 5 4 Test environment ..................................................................................................................................... 5 5 Test laboratories sub-contracted ............................................................................................................ 5 6 Test item ................................................................................................................................................... 6 6.1 General Description....................................................................................................................... 6 6.2 List of components........................................................................................................................ 7 6.3 Antenna system(s) ........................................................................................................................ 7 6.4 Operating conditions ..................................................................................................................... 7 6.5 Additional information................................................................................................................... 7 7 Description of the test setup ................................................................................................................... 8 7.1 Shielded semi anechoic chamber ................................................................................................. 9 7.2 Shielded fully anechoic chamber................................................................................................ 11 7.3 Radiated measurements > 1 GHz (on axis) / > 18 GHz (off axis) ............................................... 13 7.4 Radiated measurements > 50 GHz .............................................................................................. 13 8 Sequence of testing ............................................................................................................................... 15 8.1 Sequence of testing radiated spurious 9 kHz to 30 MHz ........................................................... 15 8.2 Sequence of testing radiated spurious 30 MHz to 1 GHz........................................................... 16 8.3 Sequence of testing radiated spurious 1 GHz to 18 GHz ........................................................... 17 8.4 Sequence of testing radiated spurious above 18 GHz ............................................................... 18 8.5 Sequence of testing radiated spurious above 50 GHz with external mixers ............................ 19 9 Measurement results ............................................................................................................................. 20 9.1 Summary ...................................................................................................................................... 20 9.2 RF power output / Power limits ................................................................................................... 21 9.3 EIRP Spectral Density ......…
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Test report no.: 1-3494/21-01-01_AnnexG © CTC advanced GmbH Page 1 of 50 Annex G 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: Thomas Vogler Lab Manager Radio Communications & EMC Test report no.: 1-3494/21-01-01_AnnexG © CTC advanced GmbH Page 2 of 50 1 Table of contents 1 T a bl e o f c on t e n t s................................................................................................ 2 2 M e a s u r e m e n t r e s u l t s , F C C P a r t 2 5 ....................................................................... 3 3 M e a s u r e m e n t r e s u l t s , S p u r i o u s e m i s s i o n s 3 0 M H z - 1 8 G H z ................................. 45 4 M e a s u r e m e n t r e s u l t s , F C C P a r t 1 5 B ................................................................... 49 5 D o c u m e n t h i s t o r y ............................................................................................. 50 Test report no.: 1-3494/21-01-01_AnnexG © CTC advanced GmbH Page 3 of 50 2 Measu re ment result s, F C C Pa rt 25 This chapter consists of 44 pages including this page. Test report no.: 1-3494/21-01-01_AnnexG © CTC advanced GmbH Page 4 of 50 Plot No. 1 Subclause: -/- Function test Modulated rf-carrier at the lower edge of the band (fl) Measurement within the band Limit: no limits defined This test serves to verify the general function of the EUT and for orientation regarding to the spurious emissions which are expected within the band, furthermore for comparison of the actual power with the rated value at modulated carrier adjusted as close to the lower edge of the operating frequency band. Test results: see plot (an explicit table was not generated) Operating condition of DUT: operating condition 1, see test report chapter 5.4 Test setup: see test report chapter 7.2: Test equipment: see test report chapter 7.2: A037, C220, R001 Remark: measurement for orientation Test result: Test passed Environment condition: Date & Time: Tue 25/Oct/2022 17:07:09 Location: CTC advanced GmbH, Laboratory RC-SYS Temperature: 22 °C Humidity: 55 % Voltage: 54 Vdc Setup of measurement equipment: Start frequency: 13.75 GHz Stop frequency: 14.5 GHz Center frequency: 14.125 GHz Frequency span: 750 MHz Resolution-BW: 100 kHz Video-BW: 300 kHz Input attenuation: 10 dB Trace-Mode: Max-Hold Detector-Mode: Pos Peak Correction: Directional coupler + 0.0 dB Coaxial cable (C220) + 2.7 dB DUT-Antenna (on-axis) + 0.0 dBi Test antenna (A037) - 11.4 dB BW correction factor + 0.0 dB Atten. between HPA and feedhorn + 0.0 dB Freefield attenuation (14.13GHz, 4.2m) + 67.9 dB TOTAL CORRECTION: + 59.2 dB Remarks: Test of general function of the EUT and measurement for orientation Test report no.: 1-3494/21-01-01_AnnexG © CTC advanced GmbH Page 5 of 50 Plot No. 2 Subclause: -/- Function test Modulated rf-carrier at the lower edge of the band (fl) Determination of the occupied bandwidth Limit: no limits defined The frequency range in the plot is about 3 times the expected occupied bandwidth. Test results: see plot (an explicit table was not generated) Operating condition of DUT: operating condition 1, see test report chapter 6.4 Test setup: see test report chapter 7.2: Test equipment: see test report chapter 7.2: A037, C220, R001 Remark: measurement for orientation Test result: Test passed Environment condition: Date & Time: Tue 25/Oct/2022 17:05:12 Location: CTC advanced GmbH, Laboratory RC-SYS Temperature: 22 °C Humidity: 55 % Voltage: 54 Vdc Setup of measurement equipment: Start frequency: 13.7525 GHz Stop frequency: 13.7575 GHz Center frequency: 13.755 GHz Frequency span: 5 MHz Resolution-BW: 100 kHz Video-BW: 300 kHz Input attenuation: 10 dB Trace-Mode: Max-Hold Detector-Mode: Pos Peak Correction: Directional coupler + 0.0 dB Coaxial cable (C220) + 2.7 dB DUT-Antenna (on-axis) + 0.0 dBi Test antenna (A037) - 11.8 dB BW correction factor (100k -> 4k) - 14.0 dB Atten. between HPA and feedhorn + 0.0 dB Freefield attenuation (14.13GHz, 4.2m) + 67.9 dB TOTAL CORRECTION: + 44.8 dB Remarks: Determination of the occupied bandwidth. The measured value is about 1.94 MHz (delta marker) (according to the definition: 99% of the total mean power) The internal function of the analyzer was used for determination. Subclause: -/- Function test Modulated rf-carrier at the lower edge of the band (fl) Determination of the occupied bandwidth Limit: no limits defined The frequency range in the plot is about 3 times the expected occupied bandwidth. Test results: see plot (an explicit table was not generated) Operating condition of DUT: operating condition 1, see test report chapter 5.4 Test setup: see test report chapter 7.2: Test equipment: see test report chapter 7.2: A037, C220, R001 Remark: measurement for orientation Test result: Test passed Environment condition: Date & Time: Tue 25/Oct/2022 17:05:12 Location: CTC advanced GmbH, Laboratory RC-SYS Temperature: 22 °C Humidity: 55 % Voltage: 54 Vdc Setup of measurement equipment: Start frequency: 13.7525 GHz Stop frequency: 13.7575 GHz Center frequency: 13.755 GHz Frequency span: 5 MHz Resolution-BW: 100 kHz Video-BW: 300 kHz Input attenuation: 10 dB Trace-Mode: Max-Hold Detector-Mode: Pos Peak Correction: Directional coupler + 0.0 dB Coaxial cable (C220) + 2.7 dB DUT-Antenna (on-axis) + 0.0 dBi Test antenna (A037) - 11.8 dB BW correction factor (100k -> 4k) - 14.0 dB Atten. between HPA and feedhorn + 0.0 dB Freefield attenuation (14.13GHz, 4.2m) + 67.9 dB TOTAL CORRECTION: + 44.8 dB Remarks: Determination of the occupied bandwidth. The measured value is about 1.94 MHz (delta marker) (according to the definition: 99% of the total mean power) The internal function of the analyzer was used for determination. Test report no.: 1-3494/21-01-01_AnnexG © CTC advanced GmbH Page 6 of 50 Plot No. 3 Subclause: -/- Function …
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Fixed Ku-band terminal performance Revision: 0.1 Reference Number: HSK2411202021 Creation Data: December 4, 2022 Last Update: January 15, 2023 This document is the proprietary property of hiSky Ltd. Copying or otherwise distributing the information contained herein is a breach of confidentiality agreement 1 Control and Monitoring Functions Control and Monitoring Functions a mechanism designed to facilitate spectrum sharing with other devices in the Wireless network. This mechanism makes sure our devices won’t interfere with other users by waiting for the RX link to start before transmitting These measurements were performed under normal test conditions. 1.1 CMF state diagram 1.2 Setup diagram: Setup components: • “Ku fixed terminal” – EUT • “Spectrum Analyzer” - used to measure the time between the Rx link opened to the EUT transmit • “Satellite simulator” - hiSky lab equipment to simulate a Satellite for measurements • “RX” – RX antenna for the EUT and “Satellite simulator” to the “Spectrum analyzer” • “TX” – TX antenna for the “Satellite simulator” 1.3 Testing results: • Processor monitoring - in this test we ensure the transition stops whenever the processor senses a sub-system failure. We also ensure that the Tx disabling is taking less than 50ms after the subsystem failure. • Transmit subsystem monitoring – in this test we ensure that our EUT inhibits transmission in case of: o Loss of frequency lock o absence of Local Oscillator (LO) output signal No later than 50ms seconds after any of these fault conditions of the transmit frequency generation sub-system occurs, the EUT enterED the "non-valid" state until the transmit sub- system monitoring function has determined that all fault conditions have been cleared. • Power-on/Reset – we checked that the EUT stops transmitting in less than 50ms from the moment we reset it. We also checked that there is no transmitting during power-on (until every sub-process is done and the RX link is acquired) • Control Channel (CC) and Response Channel (RC) – we ensure that the EUT cannot transmit unless it correctly receives the CC messages from the ACF. We also ensure that in case the EUT didn’t receive the correct command after a period of less than 1 sec, the EUT entered a “non–valid” state and stops transmitting. • Network control commands – in this test we ensure that the EUT can retain a unique identification in the network and receive commands from the ACF through its CC(s) and execute those commands. We ensure that the EUT stops transmitting in less than 50ms after getting “Transmission Disable commands”. • Initial burst transmission – in this test we make sure that: o The EUT won’t start the transmission of initial bursts before having confirmation by the local means of determination of the cessation of emissions or from the ACF via an external control channel. o The duty cycle of the burst retransmission does not exceed 0.2 % o Each burst is not carrying more than the minimum number of data bytes excluding the burst preambles and the FEC coding bits necessary to establish synchronization o The initial burst is transmitted at an EIRP no greater than the maximum allowed. o The duration between two successive bursts is not less than the required ACF response time as declared by the applicant • Inhibition of transmissions – the EUT stops transmitting in case of loss of receive carriers. The EUT enters to “transmission disable” mode in less the 50mS Test Time Status Processor monitoring <50mS pass Transmit subsystem monitoring <50mS pass Power-on/Reset <50mS Pass Control Channel (CC) and Response Channel (RC) - Pass Network control commands <50mS Pass Initial burst transmission - Pass Inhibition of transmissions <50mS pass 2 Blocking performance The Blocking performance is a measure of how well the receiver blocks high power signals outside the “receive frequency” that can prevent the reception of signals inside the receive frequency band. 2.1 Setup diagram Setup components: • “Ku fixed terminal” – EUT • “Signal generator – first signal” - the in-band signal generator • “Signal generator – out of band signal” – the out of band signal generator • Combiner – used to combine “Satellite simulator” and “Signal generator” signal • “ANT” – Horn 14dBi Ku antenna, used to transmit the signal to the EUT • PC – for controlling • “Spectrum analyzer” – for measuring the receiver compression point 2.2 Results Frequency Gain compression (dB) Below 9GHz 0.23 9 to 10GHz 0.2 12 to 16GHz 0.4 Above 16GHz 0.3 3 Receiver Adjacent Channel Rejection The receiver adjacent channel rejection is a measure of the receiver's ability to receive a wanted signal at its assigned channel frequency in the presence of an unwanted signal at a given frequency offset from the center frequency of the assigned channel, without this unwanted signal causing degradation of the performance of the receiver beyond minimum performance criteria. 3.1 Setup diagram Setup components: • “Ku fixed terminal” – EUT • “Satellite simulator” – hiSky lab equipment to simulate a Satellite for measurements • “Signal generator” – used for transmitting an interfering signal in the adjusted channel • Combiner – used to combine “Satellite simulator” and “Signal generator” signal • “ANT” – Horn 14dBi Ku antenna, used to transmit the signal to the EUT • PC – for analyzing the BER of the EUT 3.2 Results Signal Test result Limit Adjacent Carrier 0.3dB 0.5dB 4 Sensitivity Sensitivity is the measure of the smallest signal the receiver can receive and demodulate properly (BER of 1e-6). Setup diagram: • Modulation – BPSK • Symbol rate - 40 SPS • Spread factor – 16 Setup components: • PC - used to send foretold burst of modulated bits to the “Vector signal generator” o Also, use to compare the foretold bits …
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| # | Rule Parts | Frequency Range | Power Output | Emission | Tolerance |
|---|---|---|---|---|---|
| 1 | 25 | 13.75 GHz - 14.50 GHz | 97.7 W | 870KD7W | 0.1800000000 ppm |

Dynamic Smartellite Terminal Ka 8X8 V3
Equipment Class
TNB - Licensed Non-Broadcast Station Transmitter