Glossary term · Services

UAV

Uncrewed Aerial Vehicle

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UAV is an uncrewed aerial vehicle that uses cellular networks for command, control, tracking, and payload communication to enable safe, scalable beyond visual line-of-sight operations.

Introduced
Rel-14
Specifications
32 specs
Category
Services
Introduced
Rel-14
Specifications
32 specs
UAV Description Purpose Related Classification Detected Changes Specifications

Description

In 3GPP standards, an Uncrewed Aerial Vehicle (UAV) refers not only to the physical aircraft but also to its integration as a User Equipment (UE) within the cellular network. This integration enables UAVs to use 3GPP networks for Command and Control (C2) communication, tracking, and payload data links. The 3GPP system provides the connectivity infrastructure, requiring enhancements to support UAV-specific requirements such as altitude-based service, mobility, identification, and security.

Architecturally, a UAV connects to the network like any other UE, but it is associated with additional network functions and external systems. Key network entities involved include the Access and Mobility Management Function (AMF) for registration and mobility, the Session Management Function (SMF) for PDU session handling, and the Network Exposure Function (NEF) for exposing network capabilities to external UAS Service Suppliers (USS) or UAS Traffic Management (UTM). The UAV's subscription and authorization are managed by the Unified Data Management (UDM). The UAV itself may have specific capabilities, such as reporting its 3D location (latitude, longitude, altitude) and UAV identity, which are communicated to the network via the Control Plane or User Plane.

How it works: A UAV, equipped with a 3GPP modem, attaches to the network. During registration, it may indicate its UAV capabilities. The network can then apply specific policies, such as restricting service to certain geographical zones (geo-fencing) or prioritizing its C2 traffic. For tracking, the network can provide location services (e.g., via LTE Positioning Protocol or 5G NR positioning) to authorized external entities (like a UASS) upon subscription. The UAV's C2 communication typically uses a dedicated PDU session with guaranteed QoS (low latency, high reliability). The network interfaces with UTM systems to exchange flight authorization, telemetry, and traffic management information, creating a cohesive ecosystem for safe UAV operations.

Purpose & Motivation

The standardization of UAV support in 3GPP addresses the critical need for a reliable, wide-area, and secure communication network for drones, particularly for Beyond Visual Line of Sight (BVLOS) operations. Traditional drone communication relied on direct radio links (e.g., Wi-Fi, proprietary C2) with limited range and lack of seamless mobility, hindering scalable commercial applications. Cellular networks offer ubiquitous coverage, high reliability, security, and advanced features like network slicing.

Initiated in Release 14 as a study item, the work was motivated by the rapid growth of the drone industry and regulatory pushes for UAS Traffic Management (UTM). 3GPP networks solve the limitations of previous approaches by providing a managed, QoS-aware infrastructure. This enables diverse applications like aerial delivery, surveillance, and inspection. The evolution through subsequent releases has continuously enhanced support, adding features like UAV identification, altitude reporting, interference mitigation with terrestrial users, and direct UAV-to-network and UAV-to-UAV communication, positioning cellular technology as a foundational enabler for the future of autonomous aerial systems.

Classification

Part ofUAS
Specific typesRID
Related approachesUTMUE

Detected Changes Across Releases

from 3GPP Change Requests

Specific changes extracted from the „Change history“ tables of 3GPP specifications (58 CRs across 4 releases). Complements the general historical overview above with the evidence-based evolution of this function.

Rel-16 2 changes
  • Detect and report the problematic UAV controller to UTM TS 22.125CR0005
  • Clarification for identity of UAV controller data TS 22.125CR0009
Rel-17 26 changes
  • CR to 22.125 Network exposure requirements for UAV TS 22.125CR0018
  • Service restriction requirements for UAV TS 22.125CR0020
  • KPIs for UAV services TS 22.125CR0026
  • Added reference to UAV procedures TS 29.274CR2044
  • Clarification of problematic UAV TS 22.125CR0034
  • Correction to the UAV ID assignment assumption TS 23.255CR0008

+ 20 more changes

Rel-18 11 changes
  • Unsubscribe UAV dynamic information TS 23.255CR0047
  • UAV dynamic information API TS 23.255CR0048
  • N2 and Xn based HO for UAV TS 23.256CR0098
  • XML schema for tracking dynamic UAVs in an application defined area relative to a host UAV procedure TS 24.257CR0028
  • Structure and Data semantics for tracking dynamic UAVs in an application defined area relative to a host UAV procedure TS 24.257CR0027
  • Clarification on ProSe capability support for UAV UEs TS 23.256CR0082

+ 5 more changes

Rel-19 19 changes
  • Support for real time UAV flight path monitoring assistance TS 23.255CR0050
  • Require QoS along UAV planned flight path TS 23.255CR0052
  • Assist selecting UAV flight path based on QoS TS 23.255CR0054
  • Support new functionalities of UAV NF TS 23.256CR0125
  • Support of UAV flight planning and monitoring TS 23.256CR0131
  • Instructing a UAV to perform its altitude reporting TS 23.256CR0150

+ 13 more changes

Explore further

Broader topics and technologies where UAV plays a role.

Defining Specifications

3GPP specifications that define or reference UAV, with the latest known release. Sourced from the 3GPP document catalog — see methodology.

SpecificationTitleRelease
TR 21.905 vj20 3GPP Terminology and Definitions Rel-19
TS 22.125 vj20 Uncrewed Aerial Systems Requirements Rel-19
TS 22.261 vk70 5G System Service Requirements Rel-20
TS 22.825 vg00 UAS Remote Identification and Tracking over 3GPP Rel-16
TR 22.862 ve10 Critical Communications Feasibility Study Rel-14
TS 23.255 vk00 UAS Application Enabler Architecture Rel-20
TS 23.256 vj50 UAS Support Architecture Enhancements Rel-19
TS 23.700 vk10 AI/ML Application Layer Support Phase 2 Rel-20
TR 23.755 vh00 Study on app layer support for UAS Rel-17
TS 24.257 vj40 UAS Application Enabler (UAE) Layer Rel-19
TS 24.301 vk00 3GPP TS 24301 vk00: NAS Protocols for EPS Rel-20
TS 24.501 vk00 5G System (5GS) Non-Access Stratum (NAS) Protocol Rel-20
TS 27.007 vj60 AT Command Set for User Equipment Rel-19
TS 28.853 vj10 Charging for Uncrewed Aerial Systems Rel-19
TS 29.255 vk00 UAS-specific NAF Service Based Interface Rel-20
TS 29.256 vk00 UAS-NF Nnef Service Based Interface Stage 3 Rel-20
TS 29.257 vk00 UAS Application Enabler Server Services Rel-20
TS 29.274 vj60 Evolved General Packet Radio Service (GPRS) Rel-19
TS 29.502 vk00 3GPP TS 29502 vk00: Nsmf Service Based Interface Rel-20
TS 29.571 vk00 Common Data Types for 5G SBI APIs Rel-20
TS 32.240 vk00 Charging Architecture and Principles in 3GPP Rel-20
TS 32.255 vk20 5G Data Connectivity Charging Rel-20
TS 32.256 vk00 5G Connection and Mobility Charging Rel-20
TS 33.256 vj20 Security for Uncrewed Aerial Systems (UAS) Rel-19
TS 33.759 vj00 UAS Security Enhancements Phase 3 Study Rel-19
TR 33.854 vh10 Security aspects of Uncrewed Aerial Systems Rel-17
TR 33.891 vi00 Security and Privacy Threats for UAVs and UAM Rel-18
TS 36.101 vk00 LTE UE Radio Transmission and Reception Rel-20
TS 36.777 vf00 Enhanced Support for Aerial Vehicles Rel-15
TS 38.300 vj30 NR and NG-RAN Overall Description Rel-19
TR 38.825 vg00 Study on NR Industrial IoT Rel-16
TS 38.901 vj40 Channel Model for 0.5-100 GHz Rel-19