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Operator ID: |
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UAS Operating Safety Case |
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Document reference number: |
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Document version and date: |
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Amendment Number |
Date |
Amended by |
Details of changes |
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CAP722A Table 6
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UAS Model |
Mavic 3 Enterprise |
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UAS design & manufaturing organisations |
DJI |
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Empty Mass |
Weight: |
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Maximum Take-Off Mass (MTOM) |
Max Takeoff Weight: |
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Dimensions for Rotorcraft / Multirotor |
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Length of aircraft body |
Dimensions: Diagonal Distance: |
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Width of aircraft body |
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Height of aircraft body |
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Propeller Configuration |
Propeller Model: |
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Propeller Dimensions |
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Sound power level |
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Any other relevant information |
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CAP722A Table 7
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Maximum airspeed |
Max Flight Speed (at sea level, no wind): |
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Minimum airspeed to maintain safe flight |
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Normal/typical operating height |
Max Take-off Altitude Above Sea Level: |
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Maximum operating height |
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Maximum flight time during normal operation |
Max Flight Time: |
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Maximum flight time on an ISA day at cruising speed at normal/typical operating height. |
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Maximum flight range on an ISA day (normal and emergency conditions) |
Max Flight Distance: |
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Glide distances |
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Maximum radio range of the C2 Link |
Max Transmission Distance (unobstructed, free of interference) [7]: |
CAP722A Table 8
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Wind speed limits |
Max Wind Speed Resistance: |
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Turbulence restrictions |
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Precipitation limits |
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OAT limits |
Operating Temperature Range: |
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In-flight icing condition limits |
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Any other relevant information |
CAP722A Table 9
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Type of material |
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Material characteristics or properties |
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Any other relevant information |
CAP722A Table 10
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Batteries: |
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Battery type, model and manufacturer |
Capacity: Type: Chemical System: |
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Quantity |
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Arrangement |
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Generator: |
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Generator type, model and manufacturer |
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Specification |
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Electrical loads |
Energy: Standard Voltage: |
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Electrical load shedding functionality |
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Power supply redundancy |
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Procedures to charge and discharge batteries. |
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Safety provisions with regards to hazards inherent to high-voltage storage devices: |
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Procedures in place for safe handling by any person who may come into contact with high-voltage storage devices |
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Means of identifying high-voltage storage |
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Safety provisions for any person discovering the UA following an accident. |
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Procedures and safety provisions to mitigate the risk of battery thermal runaway. |
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Procedures for monitoring high-voltage storage devices. |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
Charging Temperature: |
CAP722A Table 11
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Propulsion type |
Motor Model: |
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Engines: |
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Type, model and manufacturer |
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Propeller type, model and manufacturer |
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Quantity |
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Arrangement |
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Power output |
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Propeller guards |
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In-flight restart functionality |
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Performance monitoring |
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Health monitoring |
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Safety features and redundancy in the system that allow maintaining flight after a failure or degradation has occurred in the propulsion system. |
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Fuel-powered propulsion system – Safety features to mitigate the risk of engine loss when the following hazards occur: |
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Fuel starvation |
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Fuel contamination |
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Failed signal input from the control station |
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Engine controller failure |
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Indication to the remote pilot |
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Electric-powered propulsion system: |
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Power source and supply management with regards to other systems in the UA |
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Redundant power sources |
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Maximum continuous power output of the motor |
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Maximum peak power output of the motor |
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Electrical distribution architecture |
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Electrical load shedding functionality |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 12
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Fuel type |
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Safety provisions with regards to hazardous substances within the fuel system: |
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List of hazardous substances and their characteristics. |
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Procedures in place for safe handling of the UA by any person who may come into contact with the hazardous substances. |
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Means of identifying the hazardous substances. |
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Safety provisions for any person discovering the UA following an accident. |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 13
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Design and operation of flight control units, surfaces, actuators, control linkages, etc. |
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Flight controller: |
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Type, model and manufacturer |
Model: |
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Functions |
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Flight modes available |
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Automatic functions: |
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Take-off and landing |
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Stabilisation |
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Autopilot |
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Return to home |
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If functions are provided by COTS equipment, provide type, model and manufacturer. |
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Safety features and redundancy in the system which allow maintaining flight after a failure or degradation of the flight control system, including indication to the remote pilot. |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 14
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Sensors |
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Type, model and manufacturer |
GNSS: |
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Quantity |
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Telemetry links |
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Method to determine current position. |
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Method to navigate to intended destination. |
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Automatic/automated navigation functions |
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Geo-awareness functions |
RTK Positioning Accuracy: |
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Containment functions |
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Safety features and redundancy in the system which allow maintaining flight after a failure or degradation has occurred in the navigation system: |
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Backup means of navigation |
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Detection of and response to loss of primary means and secondary means of navigation. |
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Indication to the remote pilot |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
GNSS: |
CAP722A Table 15
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DAA system functions |
Forward: Backward: Lateral: Upward: Downward: Type: |
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Devices used |
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Technology used |
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Interface between the DAA system and the flight control computer |
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Limitations of the DAA system |
Operating Environment: Sensitivity: |
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Evidence of equipment qualification and approval. |
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DAA event sequence: |
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Level of automation |
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Actions required by the remote pilot |
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Means to verify normal system operation. |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 16
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|
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Power sources, supply management and redundancy. |
Battery: Rated Power: |
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Radio signal: |
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Determination of the signal strength and health value. |
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Threshold values which represent a critically degraded signal. |
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Control handover between two CUs |
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Safety features to mitigate the risk of inadvertent command activation: |
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List of critical commands |
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Mitigation means |
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Safety features to mitigate the risk of display or HMI lock-up. |
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Safety features to maintain flight-critical processing when multiple programs are running concurrently. |
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HMI: |
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Information indicated to the remote pilot. |
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Radio signal strength and/or health indication to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
Operating Temperature Range: Operating Time: |
CAP722A Table 17
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RLOS |
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BRLOS |
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Antennas: |
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Type, model and manufacturer |
Antenna: |
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Locations on the UAS |
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Transceivers / Modems: |
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Power levels |
Video Transmission Transmitter Power (EIRP): Wi-Fi Transmitter Power (EIRP): Bluetooth Transmitter Power (EIRP): |
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Transmission schemes |
Bluetooth Protocol: Wi-Fi Protocol: |
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Operating frequencies |
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Details of frequency spectrum approvals |
Video Transmission Operating Frequency [6]: Wi-Fi Operating Frequency [6]: Bluetooth Operating Frequency: |
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Maximum power output/range |
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Type of signal processing |
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Datalink margin in terms of the overall link bandwidth at the maximum anticipated distance from the CU. |
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Operational C2 link management: |
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Frequency switchovers |
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Contingency situations |
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Third party link service provider |
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Radio signal: |
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Determination of the signal strength and health value |
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Threshold values which represent a critically degraded signal. |
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Minimum and average assured data rates |
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Minimum and average assured latencies |
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Design features and procedures to maintain availability, continuity, and integrity of the datalink: |
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RF or other interference |
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Flight beyond communications range |
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Antenna masking |
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Loss of CU functionality |
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Loss of UA functionality |
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Atmospheric attenuation |
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Safety features to mitigate the risk of loss of C2 link: |
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C2 links redundancy |
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Automatic triggering of an emergency recovery function |
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Automatic return to home |
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Safety features to mitigate the risk of harmful interference. |
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HMI: |
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Information indicated to the remote pilot. |
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Radio signal strength and/or health indication to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 18
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Antennas: |
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Type, model and manufacturer |
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Locations on the UAS |
|
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Communication method: |
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VHF |
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GSM network |
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Satellite |
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Safety features to mitigate the loss of communication function: |
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Primary communication means |
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Secondary / back-up communication means |
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HMI: |
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Information indicated to the remote pilot. |
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Radio signal strength and/or health indication to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 19
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Wheels, skids, rails, launchers, etc. |
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If various mechanisms can be fitted: |
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Primary mechanism |
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Secondary mechanisms |
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Operational conditions/requirements for each mechanism. |
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Any other relevant information |
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CAP722A Table 20
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Mode of operation |
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Safety features which mitigate the risk of loss of control or situational awareness. |
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Means to verify normal system operation. |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 21
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Type, model and manufacturer |
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Locations on the UA |
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Colour |
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Operation |
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Operating modes |
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Purpose |
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
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Any other relevant information |
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CAP722A Table 22
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Types |
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Mass |
Weight: Weight: |
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Interfaces with the UA: |
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Mechanical interface |
Interface: Interface: |
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Electrical interface |
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Data interface |
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Release mechanism |
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Any other interface |
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Procedures to install the payload onto the UA. |
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Effects of the payload on the UA |
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Sensors |
Sensor: Sensor: |
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Safety features to mitigate the risk of the payload affecting the flight of the UA: |
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Effects on aerodynamics |
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Effects of electro-magnetic interference. |
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Effects of electrical power and / or data connection failures on the UAS. |
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Effects of complete detachment of the payload from the UA (either caused by a failure or through intentional lowering / dropping of the payload). |
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Effects of partial detachment of the payload from the UA. |
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Distraction of the remote pilot generated by the payload during flight. |
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Procedures to verify the attachment points to the UA. |
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Procedures to verify the UA MTOM and CG location. |
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Procedures to detect and mitigate any failure of the payload in flight. |
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Safety provisions with regards to hazards inherent to the payload |
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Procedures in place for safe handling of the payload. |
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Means of identifying hazards. |
|
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HMI: |
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Information indicated to the remote pilot. |
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Alert messages indicated to the remote pilot. |
|
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Any other relevant information |
Dimensions: Dimensions: |
CAP722A Table 23
|
UAS launch and recovery systems |
|
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Power sources |
|
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Transportation equipment |
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Backup or emergency equipment |
|
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Procedures to transport UA, CU, battery/fuel, and other equipment between operation sites and from the loading/off-loading area to the take-off/landing area. |
|
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Storage of ground support equipment. |
|
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Suitability of the ground support equipment and transportation method with regards to the UAS components’ fragility, sensitivity or inherent hazards. |
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Ground support equipment standards |
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Ground support equipment manufacturer's recommendations. |
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Any other relevant information |
CAP722A Table 24
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Maintenance manual: |
|
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Structure |
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Maintenance procedures: |
|
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Inspections |
|
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Overhaul |
|
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Repairs |
|
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Assurance of repair procedures |
|
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Batteries maintenance during storage periods |
|
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Origin of each procedure |
|
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Maintenance schedules |
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Procedures to record maintenance that has been carried out. |
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Storage of maintenance records |
|
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Staff qualification and levels of approval. |
|
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Procedures to use the manual by the Maintenance staff |
|
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Configuration control |
|
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Any other relevant information |
|
CAP722A Table 25
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Sources of procurement |
|
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Process to confirm the suitability of the part. |
|
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Any other relevant information |
CAP722A Table 26
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Hardware, software, and firmware version control |
|
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Modification standards |
|
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Modification records storage |
|
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Safety assessment associated with the modification |
|
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Any other relevant information |
CAP722A Table 27
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Step 1 – Identify the main functions of the UAS. |
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Step 2 – Identify the sub-functions. |
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Step 3 – Consider the ways each function may fail. |
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Step 4 – Identify the failure conditions. |
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Step 5 – Select those failure conditions that may lead to mid-air collision or harm to uninvolved people on the ground. (Identified Hazard) |
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Step 6 – Assurance |
|
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Step 7 – Describe the consequence of the failure condition. |
|
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Step 8 – Describe the failure modes. (Unmitigated Failures) |
|
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Step 9 – Identify the single points of failure. |
|
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Step 10 – Describe the risk mitigation means. |
|
||||
CAP722A Table 28
Aircraft | |
| Weight | DJI Mavic 3E: 915 g DJI Mavic 3T: 920 g |
| Max Takeoff Weight | DJI Mavic 3E: 1,050 g DJI Mavic 3T: 1,050 g |
| Dimensions | Folded (without propellers): 221 x 96.3 x 90.3 mm (L x W x H) Unfolded (without propellers): 347.5 x 283 x 107.7 mm (L x W x H) |
| Diagonal Distance | 380.1 mm |
| Max Ascent Speed | 6 m/s (Normal Mode) 8 m/s (Sport Mode) |
| Max Descent Speed | 6 m/s (Normal Mode) 6 m/s (Sport Mode) |
| Max Flight Speed (at sea level, no wind) | 15 m/s (Normal Mode) Forward: 21 m/s, Side: 20 m/s, Backward: 19 m/s (Sport Mode) [2] |
| Max Wind Speed Resistance | 12 m/s [3] |
| Max Take-off Altitude Above Sea Level | 6000 m (without payload) |
| Max Flight Time | 45 mins [4] |
| Max Hover Time (without wind) | 38 mins |
| Max Flight Distance | 32 km |
| Max Tilt Angle | 30 Deg. (Normal Mode) 35 Deg. (Sport Mode) |
| Max Angular Velocity | 200 Deg./s |
| GNSS | GPS+Galileo+BeiDou+GLONASS (GLONASS is supported only when the RTK module is enabled) |
| Hovering Accuracy | Vertical: ±0.1 m (with Vision System); ±0.5 m (with GNSS); ±0.1 m (with RTK) Horizontal: ±0.3 m (with Vision System); ±0.5 m (with High-Precision Positioning System); ±0.1 m (with RTK) |
| Operating Temperature Range | -10 Deg. to 40 Deg. C (14 Deg. to 104 Deg. F) |
| Internal Storage | N/A |
| Motor Model | 2008 |
| Propeller Model | 9453F Propellers for Enterprise |
| Beacon | Built into the aircraft |
Wide Camera | |
| Sensor | DJI Mavic 3E: 4/3 CMOS, Effective pixels: 20 MP DJI Mavic 3T: 1/2-inch CMOS, Effective pixels: 48 MP |
| Lens | DJI Mavic 3E: FOV: 84 Deg. Format Equivalent: 24 mm Aperture: f/2.8-f/11 Focus: 1 m to ∞ DJI Mavic 3T: FOV: 84 Deg. Format Equivalent: 24 mm Aperture: f/2.8 Focus: 1 m to ∞ |
| ISO Range | DJI Mavic 3E: 100-6400 DJI Mavic 3T: 100-25600 |
| Shutter Speed | DJI Mavic 3E: Electronic Shutter: 8-1/8000 s Mechanical Shutter: 8-1/2000 s DJI Mavic 3T: Electronic Shutter: 8-1/8000 s |
| Max Image Size | DJI Mavic 3E: 5280 x 3956 DJI Mavic 3T: 8000 x 6000 |
| Still Photography Modes | DJI Mavic 3E: Single: 20 MP Timed: 20 MP JPEG: 0.7/1/2/3/5/7/10/15/20/30/60 s JPEG+RAW: 3/5/7/10/15/20/30/60 s Smart Low-light Shooting: 20 MP Panorama: 20 MP (raw image) DJI Mavic 3T: Single: 12 MP/48 MP Timed: 12 MP/48 MP JPEG: 2/3/5/7/10/15/20/30/60 s* Panorama: 12 MP (raw image); 100 MP (stitched image) Smart Low-light Shooting: 12 MP * Shooting 48MP photo does not support 2s interval |
| Video Resolution | H.264 4K: 3840 x 2160@30fps FHD: 1920 x 1080@30fps |
| Bitrate | DJI Mavic 3E: 4K: 130 Mbps FHD: 70 Mbps DJI Mavic 3T: 4K: 85 Mbps FHD: 30 Mbps |
| Supported File Formats | exFAT |
| Photo Format | DJI Mavic 3E: JPEG/DNG (RAW) DJI Mavic 3T: JPEG |
| Video Format | MP4 (MPEG-4 AVC/H.264) |
Tele Camera | |
| Sensor | 1/2-inch CMOS, Effective pixels: 12 MP |
| Lens | FOV: 15 Deg. Format Equivalent: 162 mm Aperture: f/4.4 Focus: 3 m to ∞ |
| ISO Range | DJI Mavic 3E: 100-6400 DJI Mavic 3T: 100-25600 |
| Shutter Speed | Electronic Shutter: 8-1/8000 s |
| Max Image Size | 4000 x 3000 |
| Photo Format | JPEG |
| Video Format | MP4 (MPEG-4 AVC/H.264) |
| Still Photography Modes | DJI Mavic 3E: Single: 12 MP Timed: 12 MP JPEG: 0.7/1/2/3/5/7/10/15/20/30/60 s Smart Low-light Shooting: 12 MP DJI Mavic 3T: Single: 12 MP Timed: 12 MP JPEG: 2/3/5/7/10/15/20/30/60 s Smart Low-light Shooting: 12 MP |
| Video Resolution | H.264 4K: 3840 x 2160@30fps FHD: 1920 x 1080@30fps |
| Bitrate | DJI Mavic 3E: 4K: 130 Mbps FHD: 70 Mbps DJI Mavic 3T: 4K: 85 Mbps FHD: 30 Mbps |
| Digital Zoom | 8x (56x hybrid zoom) |
Thermal Camera [5] | |
| Thermal Imager | Uncooled VOx Microbolometer |
| Pixel Pitch | 12 μm |
| Frame Rate | 30 Hz |
| Lens | DFOV: 61 Deg. Format Equivalent: 40 mm Aperture: f/1.0 Focus: 5 m to ∞ |
| Sensitivity | <=50 mk@F1.1 |
| Temperature Measurement Method | Spot Meter, Area Measurement |
| Temperature Measurement Range | -20 Deg. to 150 Deg. C (-4 Deg. to 302 Deg. F, High Gain Mode) 0 Deg. to 500 Deg. C (32 Deg. to 932 Deg. F, Low Gain Mode) |
| Palette | White Hot/Black Hot/Tint/Iron Red/Hot Iron/Arctic/Medical/Fulgurite/Rainbow 1/Rainbow 2 |
| Photo Format | JPEG (8-bit) R-JPEG (16-bit) |
| Video Resolution | 640 x 512@30fps |
| Bitrate | 6 Mbps |
| Video Format | MP4 (MPEG-4 AVC/H.264) |
| Still Photography Modes | DJI Mavic 3T: Single: 640 x 512 Timed: 640 x 512 JPEG: 2/3/5/7/10/15/20/30/60 s |
| Digital Zoom | 28x |
| Infrared Wavelength | 8-14 μm |
| Infrared Temperature Measurement Accuracy | ±2 Deg. C or ±2% (using the larger value) |
Gimbal | |
| Stabilization | 3-axis (tilt, roll, pan) |
| Mechanical Range | DJI Mavic 3E: Tilt: -135 Deg. to 100 Deg. Roll: -45 Deg. to 45 Deg. Pan: -27 Deg. to 27 Deg. DJI Mavic 3T: Tilt: -135 Deg. to 45 Deg. Roll: -45 Deg. to 45 Deg. Pan: -27 Deg. to 27 Deg. |
| Controllable Range | Tilt: -90 Deg. to 35 Deg. Pan: Not controllable |
| Max Control Speed (tilt) | 100 Deg./s |
| Angular Vibration Range | ±0.007 Deg. |
Sensing | |
| Type | Omnidirectional binocular vision system, supplemented with an infrared sensor at the bottom of the aircraft. |
| Forward | Measurement Range: 0.5-20 m Detection Range: 0.5-200 m Effective Sensing Speed: Flight Speed <=15 m/s FOV: Horizontal 90 Deg., Vertical 103 Deg. |
| Backward | Measurement Range: 0.5-16 m Effective Sensing Speed: Flight Speed <=12 m/s FOV: Horizontal 90 Deg., Vertical 103 Deg. |
| Lateral | Measurement Range: 0.5-25 m Effective Sensing Speed: Flight Speed <=15 m/s FOV: Horizontal 90 Deg., Vertical 85 Deg. |
| Upward | Measurement Range: 0.2-10 m Effective Sensing Speed: Flight Speed <=6 m/s FOV: Front and Back 100 Deg., Left and Right 90 Deg. |
| Downward | Measurement Range: 0.3-18 m Effective Sensing Speed: Flight Speed <=6 m/s FOV: Front and Back 130 Deg., Left and Right 160 Deg. |
| Operating Environment | Forward, Backward, Lateral, and Upward: Surface with a clear pattern and adequate lighting (lux >15) Downward: Diffuse reflective surface with diffuse reflectivity>20% (e.g. walls, trees, people) and adequate lighting (lux >15) |
Video Transmission | |
| Video Transmission System | DJI O3 Enterprise Transmission |
| Live View Quality | Remote Controller: 1080p/30fps |
| Operating Frequency | 2.400-2.4835 GHz 5.725-5.850 GHz |
| Max Transmission Distance (free of interference) | Strong Interference (dense buildings, residential areas, etc.): 1.5-3 km (FCC/CE/SRRC/MIC) Medium Interference (suburban areas, city parks, etc.): 3-9 km (FCC), 3-6 km (CE/SRRC/MIC) Low Interference (open spaces, remote areas, etc.): 9-15 km (FCC), 6-8 km (CE/SRRC/MIC) |
| Max Download Speed | 15 MB/s (with DJI RC Pro Enterprise) |
| Latency (depending on environmental conditions and mobile device) | Approx. 200 ms |
| Antenna | 4 Antennas, 2T4R |
| Transmission Power (EIRP) | 2.4 GHz: <33 dBm (FCC), <20 dBm (CE/SRRC/MIC) 5.8 GHz: <33 dBm (FCC), <30 dBm (SRRC), <14 dBm (CE) |
DJI RC Pro Enterprise | |
| Video Transmission System | DJI O3 Enterprise Transmission |
| Max Transmission Distance (unobstructed, free of interference) [7] | FCC: 15 km CE/SRRC/MIC: 8 km |
| Video Transmission Operating Frequency [6] | 2.400-2.4835 GHz 5.725-5.850 GHz |
| Antenna | 4 Antennas, 2T4R |
| Video Transmission Transmitter Power (EIRP) | 2.4 GHz: <33 dBm (FCC), <20 dBm (CE/SRRC/MIC) 5.8 GHz: <33 dBm (FCC), <14 dBm (CE), <23 dBm (SRRC) |
| Wi-Fi Protocol | 802.11 a/b/g/n/ac/ax Support 2 x 2 MIMO Wi-Fi |
| Wi-Fi Operating Frequency [6] | 2.400-2.4835 GHz 5.150-5.250 GHz 5.725-5.850 GHz |
| Wi-Fi Transmitter Power (EIRP) | 2.4 GHz: <26 dBm (FCC), <20 dBm (CE/SRRC/MIC) 5.1 GHz: <26 dBm (FCC), <23 dBm (CE/SRRC/MIC) 5.8 GHz: <26 dBm (FCC/SRRC), <14 dBm (CE) |
| Bluetooth Protocol | Bluetooth 5.1 |
| Bluetooth Operating Frequency | 2.400-2.4835 GHz |
| Bluetooth Transmitter Power (EIRP) | < 10 dBm |
| Screen Resolution | 1920 x 1080 |
| Screen Size | 5.5 inches |
| Screen | 60 fps |
| Brightness | 1,000 nits |
| Touchscreen Control | 10-point multi-touch |
| Battery | Li-ion (5000 mAh @ 7.2 V) |
| Charging Type | Recommended to be charged with the included DJI USB-C Power Adapter (100W) or USB charger at 12 V or 15 V |
| Rated Power | 12 W |
| Storage Capacity | Internal Storage (ROM): 64 GB Supports a microSD card for expanded capacity. |
| Charging Time | Approx. 1 hour 30 minutes (with the included DJI USB-C Power Adapter (100W) only charging the remote controller or a USB charger at 15 V) Approx. 2 hours (with a USB charger at 12 V) Approx. 2 hours 50 minutes (with the included DJI USB-C Power Adapter (100W) charging the aircraft and remote controller simultaneously) |
| Operating Time | Approx. 3 hours |
| Video Output Port | Mini-HDMI port |
| Operating Temperature Range | -10 Deg. to 40 Deg. C (14 Deg. to 104 Deg. F) |
| Storage Temperature | -30 Deg. to 60 Deg. C (-22 Deg. to 140 Deg. F) (within one month) -30 Deg. to 45 Deg. C (-22 Deg. to 113 Deg. F) (one to three months) -30 Deg. to 35 Deg. C (-22 Deg. to 95 Deg. F) (three to six months) -30 Deg. to 25 Deg. C (-22 Deg. to 77 Deg. F) (more than six months) |
| Charging Temperature | 5 Deg. to 40 Deg. C (41 Deg. to 104 Deg. F) |
| Supported DJI Aircraft[10] | DJI Mavic 3E DJI Mavic 3T |
| GNSS | GPS+Galileo+GLONASS |
| Dimensions | Antennas folded and controller sticks unmounted: 183.27 x 137.41 x 47.6 mm (L x W x H) Antennas unfolded and controller sticks mounted: 183.27 x 203.35 x 59.84 mm (L x W x H) |
| Weight | Approx. 680 g |
| Model | RM510B |
Storage | |
| Supported Memory Cards | Aircraft: U3/Class10/V30 or above is required. A list of recommended microSD cards can be found below. |
| Recommended microSD Cards | Remote Controller: SanDisk Extreme PRO 64GB V30 A2 microSDXC SanDisk High Endurance 64GB V30 microSDXC SanDisk Extreme 128GB V30 A2 microSDXC SanDisk Extreme 256GB V30 A2 microSDXC SanDisk Extreme 512GB V30 A2 microSDXC Lexar 667x 64GB V30 A2 microSDXC Lexar High-Endurance 64GB V30 microSDXC Lexar High-Endurance 128GB V30 microSDXC Lexar 667x 256GB V30 A2 microSDXC Lexar 512GB V30 A2 microSDXC Samsung EVO Plus 64GB V30 microSDXC Samsung EVO Plus 128GB V30 microSDXC Samsung EVO Plus 256GB V30 microSDXC Samsung EVO Plus 512GB V30 microSDXC Kingston Canvas Go! Plus 128GB V30 A2 microSDXC Kingston Canvas React Plus 128GB V90 A1 microSDXC Aircraft: SanDisk Extreme 32GB V30 A1 microSDHC SanDisk Extreme PRO 32GB V30 A1 microSDHC SanDisk Extreme 512GB V30 A2 microSDXC Lexar 1066x 64GB V30 A2 microSDXC Kingston Canvas Go! Plus 64GB V30 A2 microSDXC Kingston Canvas React Plus 64GB V90 A1 microSDXC Kingston Canvas Go! Plus 128GB V30 A2 microSDXC Kingston Canvas React Plus 128GB V90 A1 microSDXC Kingston Canvas React Plus 256GB V90 A2 microSDXC Samsung PRO Plus 256GB V30 A2 microSDXC |
Battery | |
| Capacity | 5000 mAh |
| Standard Voltage | 15.4 V |
| Max Charging Voltage | 17.6 V |
| Type | LiPo 4S |
| Chemical System | LiCoO2 |
| Energy | 77 Wh |
| Weight | 335.5 g |
| Charging Temperature | 5 Deg. to 40 Deg. C (41 Deg. to 104 Deg. F) |
Charger | |
| Input | 100-240 V (AC Power), 50-60 Hz, 2.5 A |
| Output Power | 100 W |
| Output | Max. 100 W (total) When both ports are used, the maximum output power of each interface is 82 W, and the charger will dynamically allocate the output power of the two ports according to the load power. |
Charging Hub | |
| Input | USB-C: 5-20 V, 5.0 A |
| Output | Battery Port: 12-17.6 V, 8.0 A |
| Rated Power | 100 W |
| Charging Type | Three batteries charged in sequence |
| Charging Temperature Range | 5 Deg. to 40 Deg. C (41 Deg. to 104 Deg. F) |
RTK Module | |
| Dimensions | 50.2 x 40.2 x 66.2 mm (L x W x H) |
| Weight | 24±2 g |
| Interface | USB-C |
| Power | Approx. 1.2 W |
| RTK Positioning Accuracy | RTK Fix: Horizontal: 1 cm + 1 ppm; Vertical: 1.5 cm + 1 ppm |
Speaker | |
| Dimensions | 114.1 x 82.0 x 54.7 mm (L x W x H) |
| Weight | 85±2 g |
| Interface | USB-C |
| Rated Power | 3 W |
| Max Volume [11] | 110 dB @ 1 m |
| Effective Broadcast Distance [11] | 100 m @ 70 dB |
| Bit Rate | 16 Kbps/32 Kbps |
| Operating Temperature Range | -10 Deg. to 40 Deg. C (14 Deg. to 104 Deg. F) |
Other | |
| Notes | [1] The standard weight of the aircraft (including the battery, propellers, and a microSD card). The actual product weight may vary due to differences in batch materials and external factors. [2] Maximum speed in Sport mode is 19m/s when operating in EU regions. [3] Max wind speed resistance during takeoff and landing. [4] Measured with Mavic 3 Enterprise Series flying at a constant speed of 32.4 kph in a windless environment at sea level until the battery reached 0%. Data is for reference only. Please pay attention to RTH reminders in the DJI Pilot 2 app during flight. [5] DO NOT expose the infrared camera lenses to strong sources of energy such as the sun, lava, or laser beams. Otherwise, the camera sensor may be burned, leading to permanent damage. [6] In some countries and regions, the 5.8 and 5.1GHz frequencies are prohibited, or the 5.1GHz frequency is only allowed for indoor use. Check local laws and regulations for more information. [7] Measured in an unobstructed environment free of interference. The above data shows the farthest communication range for one-way, non-return flights (with no payload) under each standard. During your flight, please pay attention to RTH reminders in the DJI Pilot 2 app. [8] Data tested under different standards in unobstructed environments with typical interference. Uses for reference purposes only and provides no guarantee as to the actual flight distance. [9] Measured in a laboratory environment with little interference in countries/regions that support both 2.4 GHz and 5.8 GHz. With footage saved on the officially recommended microSD cards. Download speeds may vary depending on actual conditions. [10] Will support more DJI aircraft in the future. Visit the official website for the latest information. [11] Data was measured in a controlled environment and is for reference only. Actual use experience may vary depending on software version, sound source, specific environment, and other conditions. |
Data source: https://www.dji.com/mavic-3-enterprise/specs
Generated using dronespec.info
Source data acquired 2023-01-23 19:03:42