Drone & UAV Operations
Enterprise-grade platform for mission planning, fleet management, and autonomous aerial operations.
For Drone Operators & Fleet Managers
Real-World Challenges
You're flying drones for agricultural surveys, infrastructure inspection, or logistics. Manual flight is expensive and slow. You need automation but:
- Designing survey grids by hand is tedious and error-prone
- Managing 5+ drones simultaneously requires coordination software
- Regulatory compliance (Part 107, airspace) needs careful documentation
- Weather changes require re-planning mid-flight
RoboControl's Solution
One-Click Survey Generation: Draw your survey area on a map. Specify ground resolution. RoboControl auto-generates optimal flight grids with proper overlap. 30 seconds instead of 30 minutes.
Multi-Drone Coordination: Automatic collision prevention, battery-aware scheduling, and radio interference management. Watch all drones on one dashboard.
Geofencing & Compliance: Draw no-fly zones. Drones auto-enforce them. Complete audit trail for regulatory inspections.
Live Telemetry Dashboard: Position, altitude, battery, heading all visible. Automated alerts. Pause/resume from ground station.
Key Capabilities
Getting Started with Drones
1. Fleet Manager Setup
Initialize the fleet manager for coordinating multiple vehicles.
var fleetConfig = new FleetConfiguration
{
MaxVehicles = 10,
DefaultHomeLatitude = 40.123,
DefaultHomeLongitude = -105.456,
DefaultHomeAltitude = 1655, // meters
TimeZone = TimeZoneInfo.FindSystemTimeZoneById("Mountain Standard Time")
};
var fleetManager = new FleetManager(fleetConfig);
// Register vehicles
var droneRegistration = new VehicleRegistration
{
Id = "DRONE-001",
Type = VehicleType.Quadcopter,
Model = "DJI Matrice 300 RTK",
MavlinkSystemId = 1,
MaxFlightTime = 55 // minutes
};
await fleetManager.RegisterVehicleAsync(droneRegistration);
2. Mission Planning
Design and schedule missions with waypoints and survey patterns.
var mission = new MissionPlan
{
Name = "Agricultural Survey",
Description = "100-acre crop survey",
Waypoints = new[]
{
new Waypoint { Lat = 40.1230, Lon = -105.4560, AltM = 100 },
new Waypoint { Lat = 40.1245, Lon = -105.4560, AltM = 100 },
new Waypoint { Lat = 40.1245, Lon = -105.4575, AltM = 100 },
new Waypoint { Lat = 40.1230, Lon = -105.4575, AltM = 100 },
},
Speed = 10.0, // m/s
CameraInterval = 2.0, // seconds between photos
SurveyPattern = SurveyPatternType.GridPattern
};
await fleetManager.ScheduleMissionAsync(mission);
3. Real-time Monitoring
Track live vehicle states and telemetry during operations.
// Get all live vehicle states
var allStates = fleetManager.GetAllLiveStates();
foreach (var state in allStates)
{
Console.WriteLine($"Vehicle: {state.VehicleId}");
Console.WriteLine($" Position: {state.Latitude:F6}, {state.Longitude:F6}");
Console.WriteLine($" Altitude: {state.AltitudeM:F1} m");
Console.WriteLine($" Battery: {state.BatteryPercent:F0}%");
Console.WriteLine($" Status: {state.FlightMode}");
}
// Subscribe to state changes
fleetManager.VehicleStateChanged += (vehicleId, newState) =>
{
if (newState.BatteryPercent < 20)
{
Console.WriteLine($"⚠️ Low battery on {vehicleId}: {newState.BatteryPercent}%");
}
};
4. Safety & Geofencing
Define geofences and safety boundaries for autonomous operations.
var geofence = new RectangularGeofence
{
MinLatitude = 40.120,
MaxLatitude = 40.130,
MinLongitude = -105.460,
MaxLongitude = -105.450,
MaxAltitude = 150, // meters
Name = "Operating Area"
};
fleetManager.SetGeofence(geofence);
// Define fail-safe behavior
var failsafe = new FailSafeConfiguration
{
LowBatteryThreshold = 15, // percent
LowBatteryAction = FailSafeAction.ReturnToHome,
LostSignalAction = FailSafeAction.Land,
GeofenceBreachAction = FailSafeAction.ReturnToHome
};
fleetManager.SetFailSafe(failsafe);
Advanced Mission Planning
Waypoint Optimization & Routing
Automatically optimize mission routes for fuel efficiency, time minimization, or terrain constraints.
// Advanced mission planning with optimization
var mission = new DroneMission
{
Name = "Survey Grid Operations",
VehicleId = "Drone-01",
Waypoints = new List<Waypoint>
{
new Waypoint { Lat = 40.123, Lon = -105.456, AltM = 100, Action = WaypointAction.Takeoff },
new Waypoint { Lat = 40.124, Lon = -105.456, AltM = 120, Speed = 15 },
new Waypoint { Lat = 40.124, Lon = -105.457, AltM = 120, Action = WaypointAction.CameraCapture },
new Waypoint { Lat = 40.123, Lon = -105.456, AltM = 0, Action = WaypointAction.Land }
},
// Optimization parameters
OptimizationMode = MissionOptimization.MinimizeFlightTime,
WindCompensation = true,
TerrainFollowingEnabled = true,
// Safety constraints
MaxAltitude = 150,
MinAltitude = 50,
GeofenceRadius = 500 // meters
};
// Automatically solve traveling salesman problem
var optimized = await mission.OptimizeAsync();
Console.WriteLine($"Est. Flight Time: {optimized.EstimatedFlightTime}s");
Survey Grid Generation
Automatically generate efficient grid patterns for area surveys with camera overlap settings.
// Auto-generate survey grid for mapping
var gridMission = GridMissionGenerator.Create(
areaCorners: new[]
{
new GeoPoint(40.120, -105.450),
new GeoPoint(40.130, -105.460)
},
altitude: 100,
groundResolution: 0.05, // meters per pixel
lateralOverlap: 0.60, // 60% overlap
longitudinalOverlap: 0.75 // 75% overlap
);
var waypoints = gridMission.GenerateWaypoints();
Console.WriteLine($"Generated {waypoints.Count} waypoints");
Console.WriteLine($"Est. coverage: {gridMission.CoverageArea} sq km");
Fleet Coordination & Swarming
Multi-Vehicle Coordination
Coordinate operations across multiple drones with centralized scheduling and conflict resolution.
// Multi-drone coordination with airspace deconfliction
var fleetScheduler = new FleetScheduler(fleetManager);
var missions = new[] { mission1, mission2, mission3 };
// Automatically handles:
// - Airspace deconfliction (no collisions)
// - Battery management (stagger landings)
// - Communication scheduling (prevent interference)
// - Resource allocation (shared charging stations)
var schedule = await fleetScheduler.ScheduleAsync(missions);
foreach (var vehicleSchedule in schedule.VehicleSchedules)
{
Console.WriteLine($"{vehicleSchedule.VehicleId}:");
Console.WriteLine($" Start: {vehicleSchedule.StartTime}");
Console.WriteLine($" Battery Remaining: {vehicleSchedule.EstimatedBatteryRemaining}%");
}
Formation Control
Maintain relative formations between vehicles for coordinated operations.
// Formation flying with automatic separation management
var formation = new FormationController
{
LeaderVehicleId = "Drone-01",
FollowerPositions = new Dictionary<string, Vector3>
{
["Drone-02"] = new Vector3(-10, 0, 0), // left
["Drone-03"] = new Vector3(10, 0, 0), // right
["Drone-04"] = new Vector3(0, -15, 0) // behind
},
FormationHoldDistance = 1.5,
InterVehicleAvoidanceEnabled = true
};
await formation.ExecuteMissionAsync(coordinatedMission);
Safety & Regulatory Compliance
Advanced Geofencing & No-Fly Zones
Define complex 3D geofencing regions with automatic enforcement and violation reporting.
// Multi-level geofencing system
var geofenceManager = new GeofenceManager();
// Hard exclusion zones
geofenceManager.AddExclusionZone(new CylindricalGeofence
{
CenterLat = 40.125,
CenterLon = -105.455,
RadiusMeters = 100,
MaxAltitude = 300,
ZoneName = "Restricted Airspace",
EnforcementLevel = EnforcementLevel.Critical
});
// Soft warning zones
geofenceManager.AddWarningZone(new PolygonalGeofence
{
Corners = new[] { /* ... */ },
MaxAltitude = 500,
ZoneName = "Approach Zone"
});
geofenceManager.OnViolationDetected += (vehicle, zone) =>
{
if (zone.EnforcementLevel == EnforcementLevel.Critical)
vehicle.EmergencyRTH();
};
Autonomous Payload Operations
Camera & Sensor Integration
Autonomous control of cameras, gimbals, and sensors during missions.
// Autonomous camera/gimbal control
var payload = new PayloadController(vehicle);
// Configure camera for survey
payload.Camera.SetResolution(4000, 3000);
payload.Camera.SetISO(100);
payload.Camera.SetShutterSpeed(1.0 / 500);
// Gimbal control for tracking
payload.Gimbal.SetStabilization(GimbalAxis.Pitch, enabled: true);
payload.Gimbal.SetStabilization(GimbalAxis.Roll, enabled: true);
// Mission-triggered camera actions
var mission = new DroneMission
{
Waypoints = new[]
{
new Waypoint
{
Lat = 40.124, Lon = -105.456, AltM = 120,
Actions = new[]
{
new PayloadAction { Type = PayloadActionType.CameraCapture },
new PayloadAction { Type = PayloadActionType.GimbalPointTarget, TargetLat = 40.1, TargetLon = -105.4 }
}
}
}
};
await vehicle.ExecuteMissionAsync(mission);
Advanced Features
Drone Simulator
Test flight paths and operations in realistic physics simulation.
var simulator = new DroneSimulator();
simulator.Specs = new DroneSpecification
{
MaxSpeed = 15.0, // m/s
MaxAcceleration = 5.0,
BatteryCapacity = 5000, // mAh
MaxAltitude = 500 // meters
};
// Simulate wind
simulator.Wind = new WindModel(speed: 5.0, direction: 45.0);
// Reset to home
simulator.Reset(latitude: 40.123, longitude: -105.456, altitudeM: 0, headingDeg: 0);
// Simulate mission
for (int step = 0; step < 10000; step++)
{
simulator.SetAttitudeCommand(rollDeg: 10, pitchDeg: 5, yawDeg: 0, throttle: 0.6);
simulator.Step(dt: 0.01);
var telemetry = simulator.State;
if (telemetry.BatteryPercent < 10)
{
Console.WriteLine("Simulation: Battery critical, landing");
break;
}
}
Visual-Inertial SLAM
Real-time localization using camera and IMU fusion.
var slam = new VisualInertialSLAM();
// Process camera frames and IMU data
while (flying)
{
// Get camera frame from onboard computer
var frame = camera.CaptureFrame();
// Get IMU measurements
var imuData = imu.GetMeasurements();
// Update SLAM
slam.ProcessFrame(frame, imuData.Accelerometer, imuData.Gyroscope);
// Get estimated pose
var pose = slam.GetCurrentPose();
Console.WriteLine($"Estimated position: {pose.X}, {pose.Y}, {pose.Z}");
}
Fleet Analytics
Track fleet performance, maintenance needs, and operations metrics.
var analytics = fleetManager.GetFleetAnalytics();
Console.WriteLine("Fleet Statistics:");
Console.WriteLine($" Total flights: {analytics.TotalFlights}");
Console.WriteLine($" Total flight hours: {analytics.TotalFlightHours:F1}");
Console.WriteLine($" Average mission time: {analytics.AverageMissionDuration.TotalMinutes:F1} min");
Console.WriteLine($" Success rate: {analytics.MissionSuccessRate:P}");
// Maintenance tracking
var maintenanceSchedule = fleetManager.GetMaintenanceSchedule();
foreach (var vehicle in maintenanceSchedule.Values)
{
if (vehicle.FlightHoursSinceMaintenance > vehicle.MaintenanceIntervalHours)
{
Console.WriteLine($"⚠️ {vehicle.VehicleId} needs maintenance!");
}
}
Payload Integration
Sensor Integration
Connect and manage various payloads (cameras, LiDAR, thermal sensors).
// RGB Camera for surveying
var rgbPayload = new PayloadDefinition
{
Type = PayloadType.Camera,
Model = "DJI Zenmuse H30T",
Resolution = "2000MP",
FOV = 84.0 // degrees
};
// Thermal camera for inspection
var thermalPayload = new PayloadDefinition
{
Type = PayloadType.ThermalCamera,
Model = "DJI Zenmuse H30T Thermal",
Resolution = "640x512",
TemperatureRange = new Range(-20, 550) // Celsius
};
drone.AttachPayload(rgbPayload);
drone.AttachPayload(thermalPayload);
Next Steps
Learn more about autonomous operations and control systems: