RTCA MOPS for Unmanned Aircraft Systems (UAS) Control and Non-Payload Communications (CNPC) C2 LINK ICAO Don Nellis 8/29/2016.

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Presentation transcript:

RTCA MOPS for Unmanned Aircraft Systems (UAS) Control and Non-Payload Communications (CNPC) C2 LINK ICAO Don Nellis 8/29/2016

RTCA UAS and Frequency Spectrum CNPC/C2 Link MOPS Phase 1 (Final approval pending) CNPC/C2 Link MOPS Phase 2 due 2018 Satcom due 2020 Terrestrial update/network DAA MOPS Phase 1 (Due Winter 2016) DAA MOPS Phase 2 (Future)

RTCA C2 MOPS Phase 1 Minimum Operating Performance Standards (MOPS) For Unmanned Aircraft Systems (UAS) Control and Non-Payload Communications (CNPC) (Terrestrial Only)

UAS Concept of Operations Phase 1 TOR focus Phase 1 MOPS also supports terrestrial networks (based on proprietary handover functionality) but does not address any industry standard handover capability, which will be addressed in Phase 2.

Intended Function of CNPC Link Systems The CNPC Link Systems addressed in the RTCA’s MOPS shall provide CNPC Link capabilities supporting the UAS information exchanges that allow the pilot to safely control, monitor, and manage the UA (often called the control and communication, C2, function of the UAS). Depending on the intended operations, the systems and equipment shall also provide CNPC Link System capabilities supporting one or more of the following functions: Air Traffic Control voice and data relay Detect and avoid data exchange Weather radar data exchange Video data exchange The CNPC Link System shall not cause a hazard to other users of the National Airspace System.

CNPC Information Flows between Pilot and UA

Basic Internal and External Non-Payload Information Flows of a UAS

Security Considerations Higher layer security considerations, can either be implemented inside the CNPC Link System or within the remaining UAS System. CNPC Link System user plane and control plane security controls shall provide: Mutual peer entity authentication between the Airborne Radio System and the Ground Radio System Access control to authorize the Airborne Radio System access to the Ground Radio System Data origin authentication of user and control plane traffic between the Airborne Radio System and the Ground Radio System Data integrity for user and control plane traffic between the Airborne Radio System and the Ground Radio System Confidentiality when sensitive user and control plane traffic is exchanged between the Airborne Radio System and Ground Radio System The security controls shall additionally be implemented with the following characteristics: Using cryptographic algorithms with algorithm strength and key length sufficient to protect data in transit Using formally validated cryptographic modules

Terrestrial Link Radio Systems CNPC is an internal interface within the applicant’s system. It is not an external interface to ATS (Air Traffic Services) operational infrastructure (e.g. XPDR, ADS-B, CPDLC, Voice Comm) Interoperability between radios or systems is not a requirement, only electromagnetic compatibility. Under the current TOR (Terms of Reference) RCTA SC-228 covers the MOPS Validation Baseline as well as Manufacturer Specific radio specifications. Since the market is still maturing and different UAS will require different performance both MOPS Validation Baseline CNPC Link System and Manufacturer-Specific CNPC Link Systems are addressed in the MOPS MOPS Validation Baseline does not provide low level details to allow manufacturers to replicate an interoperable system but was primarily intended to validate the MOPS. Manufacturer-Specific designs are allowed and can use the flight test data from MOPS validation flight tests with deterministic scaling of performance (within prescribed limits) Initial implementation is expected to be stand- alone LOS (Line-of-Sight) systems to support limited geographic area. CNPC Link System Components

Specifications Frequency bands: C-Band: 5030-5091 MHz L-Band: 1040-1080 MHz 1104-1150 MHz Power (max): C-Band:10W (Pavg: 18.6 dBm/kHz) L-Band: 32mW (Pavg: -3.4 dBm/kHz) limited to protect incumbent services Transmitter Bandwidth: Maximum Bandwidth is 250kHz Also: In-Flight Emergency Video Channel of 500kHz Two Takeoff and Landing Video Channel of 250kHz The needed spectrum bandwidth will vary over time and location.

Specifications (cont.) MOPS Validation Baseline Transmitter Data Class Bandwidth: Data Class 1 62.5 kHz(C2 only) Data Class 2 125 kHz (C2 + 1 enhancement) Data Class 3 187.5 kHz (C2 + 2 enhancements) Data Class 4 250 kHz (C2+ 3 enhancements) Manufacture-Specific Transmitter Data Class Bandwidths are flexible within in the maximum 250kHz allowed* Inefficient use of spectrum will be discouraged through various mechanisms The bandwidth is determined by the needed data for a specific flight phase/scenario (e.g. C2 only, C2 with A/G comm, C2 with radar data, etc.). *Note: the occupied bandwidth can vary, from one user to another and at one time to another (in 5kHz increments).

Specifications (cont.) CNPC TDD Frame Structure For the CNPC terrestrial MOPS we are using TDD instead of FDD to separate transmission from reception due to inefficient use of spectrum (diplexer cross over band) and the size and weight of the filters required in the aircraft. TDD FRAME 50ma DOWNLINK SUBFRAME TDD structure is based on TDD frames lasting 50 milliseconds each Uplink TDD subframe is lasting 24.3 milliseconds and the subsequent Downlink TDD subframe is lasting 25.7 milliseconds Uplink TDD subframe includes 1.3 milliseconds of guard time to account for propagation delays and timing errors Downlink TDD subframe includes 2.7 milliseconds of guard time to account for propagation delays and timing errors

Emission Limits for CNPC Transmitters in Specific Bands Band (MHz) Systems in Band Maximum CNPC Link System Power Spectral Density Allowed in Band a, b, c Remarks CNPC Link System Ground Radios CNPC Link System Airborne Radios 0.009–0.15 LORAN –36 dBm/kHz Same as VDL Mode 2/3 MOPS 0.15–30 ADF, AM Broadcast & HF COM –36 dBm/10 kHz 30–108 Military VHF, FM & TV Broadcast –36 dBm/100 kHz 108–118 VHF NAV Same as VDL Mode 2/3 MOPS if no on board VHF NAV   –64 dBm/100 kHz Protects on board VHF NAV with same level of protection VHF NAV is given by VDL Mode 2/3 MOPS 118–137 VHF COM Same protection as adjacent VHF NAV band if no on-board VHF COM Relay Protects on board VHF COM Relay with same level of protection VHF COM is given by other MOPS 137–960 Military UHF, Land Mobile & Marine UHF Radio, Cellular/ Wireless

Emission Limits for CNPC Transmitters in Specific Bands (Cont.) 960–976 CNPC, TACAN, JTIDS +20 dBm/kHz, averaged over CNPC Link System transmitter channel Includes fundamental emissions in CNPC Link System tuning range. CNPC Link System mask envelope applies. Frequency/distance/altitude management needed to coexist with TACAN. 976–980 UAT, ramp testers, JTIDS –62.2 dBm/MHz –43.2 dBm/MHz Protects UAT. See Appendix G for rationale. –81 dBm/MHz Protects co-located UAT. See Appendix G. 980–1020 CNPC, DME, TACAN, JTIDS Includes fundamental emissions in this optional CNPC Link System tuning range. CNPC Link System mask envelope applies. Frequency/distance/altitude management needed to coexist with DME and TACAN. 1020–1027 DME, TACAN –62.2 dBm/MHz –37.2 dBm/MHz Protects Y-Mode DME interrogators. See Appendix G.   –61.2 dBm/MHz Protects DME beacons. See Appendix G. Protects co-located DME and TACAN interrogators. See Appendix G. 1027–1033 SSR, TCAS –46.2 dBm/MHz –21.2 dBm/MHz Protects transponders and TCAS. See Appendix G. –65 dBm in any 1 MHz Protects co-located transponders and TCAS. See Appendix G. 1033–1087 DME, TACAN, JTIDS Same as for 1020–1027 MHz Same as for 1020–1027 MHz.

Emission Limits for CNPC Transmitters in Specific Bands (Cont.) 1087–1093 TCAS, –56.2 dBm/MHz   Protects TCAS and Mode S ES on aircraft. Mode S ES –47.2 dBm/MHz Protects offboard SSR interrogators and Mode S ES. –65 dBm/MHz Protects co-located TCAS. –75 dBm in any 1 MHz Protects co-located Mode S ES. 1093–1164 DME, TACAN, JTIDS Same as for 1020–1027 MHz Same as for 1020–1027 MHz. 1164–1197.6 GNSS, JTIDS –84.8 dBm in any 1 MHz –86.5 dBm in any 1 MHz CNPC Link System Ground Radio maximum is ITU-R Res. 417 AM(R)S EIRP density limit, minus assumed maximum CNPC Link System antenna gain. CNPC Link System Airborne Radio maximum is RTCA DO-235B limit of –146.5 dBW/MHz at GNSS receiver input, minus assumed 30 dB isolation. 1197.6–1215 –86.4 dBm in any 1 MHz ITU-R Res. 417 AM(R)S EIRP density limits, minus assumed maximum L-band CNPC Link System antenna gain. 1215–1300 GNSS, radars Same limits as those for 1197.6–1215 MHz band are assumed necessary here as well, to protect GPS L2 and other GNSS signals in this band. 1559–1605 GNSS (GPS L1, Galileo E1, GLONASS, Beidou) RTCA DO-235B limit of –146.5 dBW/MHz at GNSS receiver input, minus assumed 30 dB isolation.

Emission Limits for CNPC Transmitters in Specific Bands (Cont.) 5010–5030 GNSS, AeroMACS –113 dBW/MHz –90 dBW/MHz International Radio Regulations Footnote 5.443C AM(R)S EIRP density limit, minus assumed maximum C-band CNPC antenna gain. 5030–5091 CNPC +20 dBm/kHz, averaged over CNPC transmitter channel Includes fundamental emissions in CNPC Link System tuning range. CNPC Link System mask envelope applies. 5091–5150 AeroMACS –68 dBm/MHz –44 dBm/MHz Protects AeroMACS.   –79 dBm/MHz Protects co-located AeroMACS.

Operational Limitations for C Band For a CNPC Link System radio C Band, when at or less than 10NM from any takeoff and landing operation the Ground Stations: Must only be used for takeoff and landing operations. Must not be located closer than 500 ft to the takeoff and landing or taxiway location. For a CNPC Link System radio C Band, the installed CNPC link system airborne power control must be used. For a CNPC Link System radio C Band, when at or less than 10NM from any takeoff and landing operation the Airplanes: Must use high transmit power mode above 500 ft AGL. Must use low transmit power mode at or below 500 ft AGL. Must be operated above 3,000 ft AGL if not taking off or landing. For a CNPC Link System radio C Band, when more than 10NM from any takeoff and landing operation the Ground Stations must only be used for enroute operations. For a CNPC Link System radio C Band, when more than 10NM from any takeoff and landing operation the Airplanes: Must use high transmit power mode above 3,000 ft AGL. Must use low transmit power mode at or below 3,000 ft AGL. Must not be operated below 500 ft AGL. Operational limitations are required to protect Airborne and Ground receivers under adverse near-far conditions

Operational Limitations for L Band For a CNPC Link System radio L Band the Ground Stations: Must not be operated within a certain standoff distance of a navigation receiver (distance measuring equipment (DME), tactical air navigation (TACAN), automatic dependent surveillance –broadcast (ADS-B), Mode S, traffic collision avoidance system (TCAS), etc.). For operation at any geographic location, demonstrate that the CNPC link system can adequately protect the currently operational ground and airborne equipment from interference. For a CNPC Link System radio L Band the Airplanes: Must not be operated above 3,000 ft above ground level (AGL). Must not be operated within a certain standoff distance of a navigation receiver (DME, TACAN, ADS-B, Mode S, TCAS, etc.). Operational limitations are required to protect Airborne and Ground receivers under adverse near-far conditions and Incumbent Services

Future CNPC MOPS (Phase 2) SATCOM Ka 10.95-11.2 GHz 11.45-11.7 GHz 11.7-12.2 GHz 14.0-14.47 GHz Ku 19.7-20.2 GHz 29.5-30.0 GHz L 1.5-1.6 GHz AMS(R)S * C 5030-5091MHz ** Networked terrestrial C-Band Terrestrial – Update * Note: Looking for, but do not want to impose changes to current requirements. ** Note: A long term solution. No SAT currently exists

Detect-and-Avoid (DAA) MOPS Frequency bands available for airborne Detect-and Avoid operations are (Phase 1):      4.2-4.4 GHz (radio altimeter band)      5.15-5.25 GHz      5.35-5.47 GHz (aircraft weather radars)      9.3-9.5 GHz (aircraft weather radars)      13.25-13.4 GHz (helicopter station keeping radars)      15.4-15.7 GHz 24.450 -24.65 GHz 32.30 – 33.4 GHz Frequency bands for ground based Detect-and-Avoid operations are (Phase 2):      1.24-1.37 GHz      2.7-2.9 GHz      9.0-9.2 GHz For more info see: Report ITU-R M.2204