Identification is the foundation of airspace awareness.
Before you can manage what's flying near your site, you have to be able to see it. Here's a plain-language look at how Remote ID broadcasts, detection hardware, and the Zing Airspace Platform fit together.
What Remote ID is.
Remote ID is an FAA rule that requires most drones operating in U.S. airspace to broadcast identifying information about themselves and their flight while in the air — similar in spirit to a digital license plate. It's meant to let authorized observers know what's flying nearby without requiring a drone to be physically intercepted or stopped.
The rule applies broadly, but not universally — some aircraft are exempt or governed by different requirements. Operators are responsible for understanding which requirements apply to their aircraft and use case.
A Remote ID broadcast may include
Serial number or session ID
Position (latitude / longitude)
Altitude
Velocity
Control-station or take-off location, when included in the broadcast
Timestamp
Emergency status, when applicable
Broadcasts vary by aircraft and configuration — not every field above is present in every message.
From broadcast to alert.
Detection, identification, and response happen as a single connected flow — not a set of disconnected tools.
Drones broadcast identity & position
Compliant aircraft transmit Remote ID signals carrying identity, location, and altitude.
Z-SCAN detects the signal
Z-SCAN and Z-SCAN MINI devices detect Remote ID and other configured radio signals.
Data reaches the cloud
Detections are transmitted securely to the Zing Airspace Platform.
Your team sees it live
Aircraft and operator locations appear on a live map, in real time.
Geofences trigger a response
Alerts, logs, and evidence capture support your team's operational response.
How Wi-Fi and Bluetooth detection works.
Remote ID is broadcast over Wi-Fi or Bluetooth, depending on the aircraft. Detection hardware listens for those broadcasts within range and decodes the information they carry.
Wi-Fi broadcast
Many aircraft broadcast Remote ID over Wi-Fi. A receiver in range can pick up and decode the signal without connecting to the aircraft.
Bluetooth broadcast
Other aircraft use Bluetooth to broadcast the same category of information. Receivers scan for both signal types to maximize the aircraft they can identify.
Zing does not publish fixed detection-range figures. Real-world range depends on the receiver, the aircraft, and the environment between them.
Compliant vs. non-compliant aircraft.
Detection reliability depends heavily on whether an aircraft is broadcasting Remote ID in the first place.
Compliant aircraft
Aircraft broadcasting Remote ID as intended can be detected and identified reliably by a properly configured receiver in range — their identity, position, and other broadcast fields are available the moment they're picked up.
Non-compliant aircraft
Aircraft that aren't broadcasting Remote ID — whether by exemption, malfunction, or intentional noncompliance — require additional detection approaches. No single method detects every possible aircraft in every condition, which is why deployments are often configured with more than one sensing capability.
Why antenna placement affects performance.
Detection is a radio problem, and radio performance is shaped by the physical world around it.
Obstructions
Buildings, terrain, and dense structures can block or weaken radio signals between an aircraft and a receiver.
Terrain & Height
Elevation and installation height change line-of-sight, which is a major factor in how far a signal can travel.
Radio Conditions
Interference, signal congestion, and local radio noise all affect how reliably a broadcast is received.
Because these factors vary by site, actual coverage is evaluated case by case rather than promised as a fixed number.
How geofences work.
A geofence is simply a zone your team draws on a map — around a facility perimeter, a runway approach, or any area you care about. It carries no meaning on its own; it becomes useful the moment it's paired with live detection data.
When a detected aircraft's reported position falls inside that zone, the system generates an alert and logs the event, so your team can respond and review what happened afterward.
Monitored Zone → Alert on Entry
Alerts, whitelisting, and historical records.
Geofence entry
An alert fires when a detected aircraft crosses into a monitored zone your team has defined.
Watchlist matches
Aircraft matching configured criteria — such as a known identifier — can generate a dedicated alert.
Whitelisted aircraft
Known, authorized aircraft can be marked so their normal activity doesn't generate repeat alerts.
Every detection is logged over time, building a historical record your team can search after the fact. Those records support after-action review and, where relevant, provide evidence for an investigation.
From the field to the Zing Airspace Platform.
Each detection device processes what it hears locally, then transmits it securely to the Zing Airspace Platform, where it becomes part of a live map, an alert, and a searchable historical record.
For fixed installations, that connection typically runs over standard network infrastructure. Portable devices — like Z-SCAN MINI — can instead connect over cellular service, which lets them reach the cloud from temporary events, field operations, and locations without fixed internet.
Cellular connectivity lets portable devices reach the cloud without depending on a fixed internet connection.
All detection data — from any connected device — lands in one platform, so multi-site organizations get one view instead of many.
The next step: drones aware of each other.
Today, Remote ID mainly serves external observers — people and systems on the ground. Zing's patent-pending concept, RemoteIDConflict, explores using that same identification information so aircraft themselves can become aware of nearby traffic and support distributed deconfliction, as part of a longer-term roadmap toward autonomous airspace coordination.
RemoteIDConflict is patent-pending technology under active development. It is not a certified collision-avoidance system, and Zing makes no claim about current deployment status beyond ongoing development.
Today vs. the roadmap
Today
Remote ID broadcasts identity and position for ground-based observers and detection systems.
Roadmap
Aircraft use identification information to become aware of one another directly — patent-pending, still in development.
Common questions about the technology.
Operator or control-station location is displayed only when that information is included in the aircraft's Remote ID broadcast. Not every broadcast includes it.
Compliant aircraft broadcasting Remote ID can be detected reliably. Non-compliant aircraft require additional detection approaches, and no single method detects every possible aircraft in every condition.
A geofence is a zone your team defines on a map — around a facility, a runway, or any area of interest. When a detected aircraft enters that zone, the system generates an alert.
No. RemoteIDConflict is patent-pending technology under active development as part of Zing's long-term roadmap. It is not a certified collision-avoidance system.
Get Started
See the technology in action.
Request a demo to see how Remote ID detection, geofences, and alerting work together in the Zing Airspace Platform.