The Public Safety LTE & 5G Market: 2023 – 2030 – Opportunities, Challenges, Strategies & Forecasts

The Public Safety LTE & 5G Market: 2023 – 2030 – Opportunities, Challenges, Strategies & Forecasts


With the commercial availability of 3GPP-standards compliant MCX (Mission-Critical PTT, Video & Data), HPUE (High-Power User Equipment), IOPS (Isolated Operation for Public Safety) and other critical communications features, LTE and 5G NR (New Radio) networks are increasingly gaining recognition as an all-inclusive public safety communications platform for the delivery of real-time video, high-resolution imagery, multimedia messaging, mobile office/field data applications, location services and mapping, situational awareness, unmanned asset control and other broadband capabilities, as well as MCPTT (Mission-Critical PTT) voice and narrowband data services provided by traditional LMR (Land Mobile Radio) systems. Through ongoing refinements of additional standards – specifically 5G MBS/5MBS (5G Multicast-Broadcast Services), 5G NR sidelink for off-network D2D (Device-to-Device) communications, NTN (Non-Terrestrial Network) integration, and support for lower 5G NR bandwidths – 3GPP networks are eventually expected to be in a position to fully replace legacy LMR systems by the late 2020s. National public safety communications authorities in multiple countries have already expressed a willingness to complete their planned narrowband to broadband transitions within the second half of the 2020 decade.

A myriad of fully dedicated, hybrid government-commercial and secure MVNO/MOCN-based public safety LTE and 5G-ready networks are operational or in the process of being rolled out throughout the globe. The high-profile FirstNet (First Responder Network) and South Korea’s Safe-Net (National Disaster Safety Communications Network) nationwide public safety broadband networks have been successfully implemented. Although Britain’s ESN (Emergency Services Network) project has been hampered by a series of delays, many other national-level programs have made considerable headway in moving from field trials to wider scale deployments – most notably, New Zealand's NGCC (Next-Generation Critical Communications) public safety network, France's RRF (Radio Network of the Future), Italy's public safety LTE service, Spain's SIRDEE mission-critical broadband network, Finland's VIRVE 2.0 broadband service, Sweden's Rakel G2 secure broadband system and Hungary's EDR 2.0/3.0 broadband network. Nationwide initiatives in the pre-operational phase include but are not limited to Switzerland's MSK (Secure Mobile Broadband Communications) system, Norway's Nytt Nødnett, Germany's planned hybrid broadband network for BOS (German Public Safety Organizations), Netherlands' NOOVA (National Public Order & Security Architecture) program, Japan's PS-LTE (Public Safety LTE) project, Australia's PSMB (Public Safety Mobile Broadband) program and Canada's national PSBN (Public Safety Broadband Network) initiative.

Other operational and planned deployments range from the Halton-Peel region PSBN in Canada's Ontario province, New South Wales' state-based PSMB solution, China's city and district-wide Band 45 (1.4 GHz) LTE networks for police forces, Hong Kong's 700 MHz mission-critical broadband network, Royal Thai Police’s Band 26 (800 MHz) LTE network, Qatar MOI (Ministry of Interior), ROP (Royal Oman Police), Abu Dhabi Police and Nedaa's mission-critical LTE networks in the oil-rich GCC (Gulf Cooperation Council) region, Brazil's state-wide LTE networks for both civil and military police agencies, Barbados' Band 14 (700 MHz) LTE-based connectivity service platform, Zambia's 400 MHz broadband trunking system and Mauritania's public safety LTE network for urban security in Nouakchott to local and regional-level private LTE networks for first responders in markets as diverse as Laos, Indonesia, the Philippines, Pakistan, Lebanon, Egypt, Kenya, Ghana, Cote D'Ivoire, Cameroon, Mali, Madagascar, Mauritius, Canary Islands, Spain, Turkey, Serbia, Argentina, Colombia, Venezuela, Bolivia, Ecuador and Trinidad & Tobago, as well as multi-domain critical communications broadband networks such as MRC's (Mobile Radio Center) LTE-based advanced MCA digital radio system in Japan, and secure MVNO platforms in Mexico, Belgium, Netherlands, Slovenia, Estonia and several other countries.

Even though critical public safety-related 5G NR capabilities defined in the 3GPP's Release 17 and 18 specifications are yet to be commercialized, public safety agencies have already begun experimenting with 5G for applications that can benefit from the technology's high-bandwidth and low-latency characteristics. For example, the Lishui Municipal Emergency Management Bureau is using private 5G slicing over China Mobile's network, portable cell sites and rapidly deployable communications vehicles as part of a disaster management and visualization system.

In neighboring Taiwan, the Kaohsiung City Police Department relies on end-to-end network slicing over a standalone 5G network to support license plate recognition and other use cases requiring the real-time transmission of high-resolution images. The Hsinchu City Fire Department's emergency response vehicle can be rapidly deployed to disaster zones to establish high-bandwidth, low-latency emergency communications using a satellite-backhauled private 5G network based on Open RAN standards. The Norwegian Air Ambulance is adopting a similar private 5G-based NOW (Network-on-Wheels) system for enhancing situational awareness during search and rescue operations.

In addition, first responder agencies in Germany, Japan and several other markets are beginning to utilize mid-band and mmWave (Millimeter Wave) spectrum available for local area licensing to deploy portable and small-scale 5G NPNs (Non-Public Networks) to support applications such as UHD (Ultra-High Definition) video surveillance, control of unmanned firefighting vehicles, reconnaissance robots and drones. In the near future, we also expect to see rollouts of localized 5G NR systems – including direct mode communications – for incident scene management and related use cases, potentially using up to 50 MHz of Band n79 spectrum in the 4.9 GHz frequency range (4,940-4,990 MHz), which has been designated for public safety use in multiple countries including but not limited to the United States, Canada, Australia, Malaysia and Qatar.

SNS Telecom & IT estimates that annual investments in public safety LTE/5G infrastructure and devices reached $4.3 Billion in 2023, driven by both new projects and the expansion of existing dedicated, hybrid government-commercial and secure MVNO/MOCN networks. Complemented by an expanding ecosystem of public safety-grade LTE/5G devices, the market will further grow at a CAGR of approximately 10% over the next three years, eventually accounting for more than $5.7 Billion by the end of 2026. Despite the positive outlook, some significant challenges continue to plague the market. The most noticeable pain point is the lack of a D2D communications capability.

The ProSe (Proximity Services) chipset ecosystem failed to materialize in the LTE era due to limited support from chipmakers and terminal OEMs. However, the 5G NR sidelink interface offers a clean slate opportunity to introduce direct mode D2D communications for public safety broadband users, as well as coverage expansion in both on-network and off-network scenarios using UE-to-network and UE-to-UE relays respectively. Recent demonstrations of 5G NR sidelink-enabled MCX services by the likes of Qualcomm have generated renewed confidence in 3GPP technology for direct mode communications.

Until recently, another barrier impeding the market was the non-availability of cost-optimized RAN equipment and terminals that support operation in spectrum reserved for PPDR (Public Protection & Disaster Relief) communications – most notably Band 68 (698-703 / 753-758 MHz), which has been allocated for PPDR broadband systems in several national markets across Europe, including France, Germany, Switzerland, Austria, Spain, Italy, Estonia, Bulgaria and Cyprus. Other countries such as Greece, Hungary, Romania, Sweden, Denmark, Netherlands and Belgium are also expected to make this assignment. Since the beginning of 2023, multiple suppliers – including Ericsson, Nokia, Teltronic and CROSSCALL – have introduced support for Band 68.

The “Public Safety LTE & 5G Market: 2023 – 2030 – Opportunities, Challenges, Strategies & Forecasts” report presents an in-depth assessment of the public safety LTE and 5G market, including the value chain, market drivers, barriers to uptake, enabling technologies, operational models, application scenarios, key trends, future roadmap, standardization, spectrum availability/allocation, regulatory landscape, case studies, ecosystem player profiles and strategies. The report also presents global and regional market size forecasts from 2023 to 2030, covering public safety LTE/5G infrastructure, terminal equipment, applications, systems integration and management solutions, as well as subscriptions and service revenue.

The report comes with an associated Excel datasheet suite covering quantitative data from all numeric forecasts presented in the report, as well as a list and associated details of over 1,300 global public safety LTE/5G engagements – as of Q1’2024.


1 Chapter 1: Introduction
1.1 Executive Summary
1.2 Topics Covered
1.3 Forecast Segmentation
1.4 Key Questions Answered
1.5 Key Findings
1.6 Summary of Recent Market Developments
1.7 Methodology
1.8 Target Audience
1.9 Companies & Organizations Mentioned
2 Chapter 2: An Overview of the Public Safety LTE & 5G Market
2.1 Narrowband LMR (Land Mobile Radio) Systems in the Public Safety Sector
2.1.1 LMR Market Size
2.1.1.1 Analog LMR
2.1.1.2 DMR
2.1.1.3 dPMR, NXDN & PDT
2.1.1.4 P25
2.1.1.5 TETRA
2.1.1.6 Tetrapol
2.1.1.7 Other LMR Technologies
2.1.2 The Limitations of LMR Networks
2.2 Adoption of Commercial Mobile Broadband Technologies
2.2.1 Why Use Commercial Technologies?
2.2.2 The Role of Mobile Broadband in Public Safety Communications
2.2.3 Can Mobile Broadband Technologies Replace LMR Systems?
2.3 An Introduction to the 3GPP-Defined LTE & 5G Standards
2.3.1 LTE: The First Global Standard for Cellular Communications
2.3.2 LTE-Advanced: Delivering the Promise of True 4G Performance
2.3.3 LTE-Advanced Pro: Laying the Foundation for the 5G Era
2.3.4 Public Safety Communications Support in LTE-Advanced Pro
2.3.5 5G: Accelerating 3GPP Expansion in Vertical Industries
2.3.5.1 5G Service Profiles
2.3.5.1.1 eMBB (Enhanced Mobile Broadband)
2.3.5.1.2 URLLC (Ultra-Reliable, Low-Latency Communications)
2.3.5.1.3 mMTC/mIoT (Massive Machine-Type Communications/Internet of Things)
2.3.6 5G-Advanced & the Evolution to 6G
2.3.7 5G Application Scenarios for Public Safety
2.4 Why Adopt LTE & 5G for Public Safety Broadband?
2.4.1 Performance, Reliability & Security Characteristics
2.4.2 Coexistence, Interoperability & Spectrum Flexibility
2.4.3 3GPP Support for Mission-Critical Applications
2.4.4 Future-Proof Transition Path Towards 6G Networks
2.4.5 Thriving Ecosystem of Chipsets, Devices & Network Equipment
2.4.6 Economic Viability of Deployment & Operational Costs
2.5 Public Safety LTE/5G Network Operational Models
2.5.1 Fully Dedicated Private Broadband Network
2.5.2 Shared Core Network With Independent RANs
2.5.3 Hybrid Government-Commercial Network
2.5.4 Secure MVNO & MOCN (Dedicated Mobile Core)
2.5.5 Access Over Commercial Broadband Networks
2.5.6 Sliced Private Network for Public Safety Communications
2.5.7 Other Approaches
2.6 Financing & Delivering Dedicated Public Safety LTE/5G Networks
2.6.1 National Government Authority-Owned & Operated
2.6.2 Local Government/Public Safety Agency-Owned & Operated
2.6.3 BOO (Built, Owned & Operated) by Critical Communications Service Provider
2.6.4 Government-Funded & Commercial Carrier-Operated
2.6.5 Other Forms of PPPs (Public-Private Partnerships)
2.7 Public Safety LTE/5G Value Chain
2.7.1 Enabling Technology Providers
2.7.2 RAN, Mobile Core & Transport Infrastructure Suppliers
2.7.3 Terminal Equipment Vendors
2.7.4 System Integrators
2.7.5 Application Developers
2.7.6 Test, Measurement & Performance Specialists
2.7.7 Mobile Operators
2.7.8 MVNOs
2.7.9 Public Safety & Government Agencies
2.8 Market Drivers
2.8.1 Growing Demand for High-Speed & Low-Latency Data Applications
2.8.2 Recognition of LTE & 5G as the De-Facto Platform for Wireless Connectivity
2.8.3 Spectral Efficiency & Bandwidth Flexibility
2.8.4 National & Cross-Border Interoperability
2.8.5 Consumer-Driven Economies of Scale
2.8.6 Endorsement From the Public Safety Community
2.8.7 Limited Competition From Other Wireless Broadband Technologies
2.8.8 Control Over QPP (QoS, Priority & Preemption) Policies
2.8.9 Support for Mission-Critical Functionality
2.8.10 Data Privacy & Network Security
2.9 Market Barriers
2.9.1 Limited Availability of Licensed Spectrum for Public Safety Broadband
2.9.2 Financial Challenges Associated With Large-Scale & Nationwide Networks
2.9.3 Technical Complexities of Network Implementation & Operation
2.9.4 Smaller Coverage Footprint Than Legacy LMR Systems
2.9.5 Delayed Standardization & Commercialization of Mission-Critical Functionality
2.9.6 ProSe/Sidelink Chipset Ecosystem for Direct Mode Communications
2.9.7 COTS (Commercial Off-the-Shelf) Equipment-Related Challenges
2.9.8 Conservatism of End User Organizations
3 Chapter 3: System Architecture & Technologies for Public Safety LTE/5G Networks
3.1 Architectural Components of Public Safety LTE/5G Networks
3.1.1 UE (User Equipment)
3.1.1.1 Smartphones & Handportable Terminals
3.1.1.2 Mobile & Vehicular Routers
3.1.1.3 Fixed CPEs (Customer Premises Equipment)
3.1.1.4 Tablets & Notebook PCs
3.1.1.5 Smart Wearables
3.1.1.6 Cellular IoT Modules
3.1.1.7 Add-On Dongles
3.1.2 RAN (Radio Access Network)
3.1.2.1 E-UTRAN – LTE RAN
3.1.2.1.1 eNBs – LTE Base Stations
3.1.2.2 NG-RAN – 5G NR Access Network
3.1.2.2.1 gNBs – 5G NR Base Stations
3.1.2.2.2 en-gNBs – Secondary Node 5G NR Base Stations
3.1.2.2.3 ng-eNBs – Next-Generation LTE Base Stations
3.1.2.3 Architectural Components of eNB/gNB Base Stations
3.1.2.3.1 RUs (Radio Units)
3.1.2.3.2 Integrated Radio & Baseband Units
3.1.2.3.3 DUs (Distributed Baseband Units)
3.1.2.3.4 CUs (Centralized Baseband Units)
3.1.3 Transport Network
3.1.3.1 Fronthaul
3.1.3.2 Midhaul
3.1.3.3 Backhaul
3.1.3.4 Physical Transmission Mediums
3.1.3.4.1 Fiber & Wireline Transport Technologies
3.1.3.4.2 Microwave & mmWave (Millimeter Wave) Wireless Links
3.1.3.4.3 Satellite Communications
3.1.4 Mobile Core
3.1.4.1 EPC (Evolved Packet Core) – LTE Mobile Core
3.1.4.1.1 SGW (Serving Gateway)
3.1.4.1.2 PGW (Packet Data Network Gateway)
3.1.4.1.3 MME (Mobility Management Entity)
3.1.4.1.4 HSS (Home Subscriber Server)
3.1.4.1.5 PCRF (Policy Charging & Rules Function)
3.1.4.2 5GC (5G Core) – Core Network for Standalone 5G Implementations
3.1.4.2.1 AMF (Access & Mobility Management Function)
3.1.4.2.2 SMF (Session Management Function)
3.1.4.2.3 UPF (User Plane Function)
3.1.4.2.4 PCF (Policy Control Function)
3.1.4.2.5 NEF (Network Exposure Function)
3.1.4.2.6 NRF (Network Repository Function)
3.1.4.2.7 UDM (Unified Data Management)
3.1.4.2.8 UDR (Unified Data Repository)
3.1.4.2.9 AUSF (Authentication Server Function)
3.1.4.2.10 AFs (Application Functions)
3.1.4.2.11 NSSF (Network Slice Selection Function)
3.1.4.2.12 NWDAF (Network Data Analytics Function)
3.1.4.3 Other 5GC Elements
3.1.5 Services & Interconnectivity
3.1.5.1 IMS (IP-Multimedia Subsystem) & Application Service Elements
3.1.5.1.1 IMS Core & VoLTE-VoNR (Voice-Over-LTE & 5G NR)
3.1.5.1.2 MBMS, eMBMS, FeMBMS & 5G MBS/5MBS (5G Multicast-Broadcast Services)
3.1.5.1.3 Group Communications & MCS (Mission-Critical Services)
3.1.5.1.4 ProSe (Proximity-Based Services) for Direct D2D (Device-to-Device) Discovery & Communications
3.1.5.2 Interconnectivity With 3GPP & Non-3GPP Networks
3.1.5.2.1 3GPP Roaming & Service Continuity
3.1.5.2.2 National & International Roaming
3.1.5.2.3 Service Continuity Outside Network Footprint
3.1.5.2.4 Gateways Supporting Non-3GPP Network Integration
3.1.5.2.5 IWF (Interworking Function) for LMR-3GPP Interoperability
3.2 Key Enabling Technologies & Concepts
3.2.1 MCPTT (Mission-Critical PTT) Voice & Group Communications
3.2.1.1 Functional Capabilities of the MCPTT Service
3.2.1.2 Performance Comparison With LMR Voice Services
3.2.1.3 Mission-Critical Video & Data
3.2.1.3.1 MCVideo (Mission-Critical Video)
3.2.1.3.2 MCData (Mission-Critical Data)
3.2.2 ProSe & Sidelink-Enabled Direct Mode Communications
3.2.2.1 Direct Communication for Coverage Extension
3.2.2.2 Direct Communication Within Network Coverage
3.2.2.3 Infrastructure Failure & Emergency Scenarios
3.2.2.4 Additional Capacity for Incident Response & Special Events
3.2.2.5 Discovery Services for Disaster Relief
3.2.3 UE-Related Enhancements
3.2.3.1 Ruggedization to Meet Critical Communications User Requirements
3.2.3.2 Dedicated PTT Buttons & Functional Enhancements
3.2.3.3 Long-Lasting Batteries
3.2.3.4 HPUE (High-Power User Equipment)
3.2.3.5 Wireless Connection Bonding
3.2.4 IOPS (Isolated Operation for Public Safety)
3.2.4.1 Ensuring Resilience & Service Continuity for Critical Communications
3.2.4.2 Localized Mobile Core & Application Capabilities
3.2.4.3 Support for Regular & Nomadic Base Stations
3.2.4.4 Isolated RAN Scenarios
3.2.4.4.1 No Backhaul
3.2.4.4.2 Limited Backhaul for Signaling Only
3.2.4.4.3 Limited Backhaul for Signaling & User Data
3.2.5 Cell Site & Infrastructure Hardening
3.2.5.1 Overlapping Cell Site Coverage
3.2.5.2 Geo-Redundant Data Centers
3.2.5.3 Multiple Backhaul Connections
3.2.5.4 Backup Power Sources
3.2.5.5 Structural Hardening
3.2.5.6 Physical Security Measures
3.2.6 Rapidly Deployable LTE & 5G Network Systems
3.2.6.1 Key Operational Capabilities
3.2.6.1.1 RAN-Only Systems for Coverage & Capacity Enhancement
3.2.6.1.2 Mobile Core-Integrated Systems for Autonomous Operation
3.2.6.1.3 Backhaul Interfaces & Connectivity
3.2.6.2 NIB (Network-in-a-Box): Self-Contained Portable Systems
3.2.6.2.1 Backpacks
3.2.6.2.2 Tactical Cases
3.2.6.2.3 Pre-Integrated Racks
3.2.6.3 Wheeled & Vehicular-Based Deployables
3.2.6.3.1 COW (Cell-on-Wheels)
3.2.6.3.2 COLT (Cell-on-Light Truck)
3.2.6.3.3 SOW (System-on-Wheels)
3.2.6.3.4 VNS (Vehicular Network System)
3.2.6.4 Aerial Cell Sites
3.2.6.4.1 Drones
3.2.6.4.2 Balloons
3.2.6.4.3 Other Aircraft
3.2.6.5 Maritime Cellular Platforms
3.2.7 Network Coverage Extension
3.2.7.1 UE-to-Network & UE-to-UE Relays
3.2.7.2 Indoor & Outdoor Small Cells
3.2.7.3 DAS (Distributed Antenna Systems)
3.2.7.4 IAB (Integrated Access & Backhaul)
3.2.7.5 Mobile IAB: VMRs (Vehicle-Mounted Relays)
3.2.7.6 NCRs (Network-Controlled Repeaters)
3.2.7.7 NTNs (Non-Terrestrial Networks)
3.2.7.8 ATG/A2G (Air-to-Ground) Connectivity
3.2.8 QPP (QoS, Priority & Preemption)
3.2.8.1 3GPP-Specified QPP Capabilities
3.2.8.1.1 Access Priority: ACB (Access Class Barring) & UAC (Unified Access Control)
3.2.8.1.2 Admission Priority & Preemption: ARP (Allocation & Retention Priority)
3.2.8.1.3 Traffic Scheduling Priority: QCI (QoS Class Indicator) & 5QI (5G QoS Identifier)
3.2.8.1.4 Emergency Scenarios: MPS (Multimedia Priority Service)
3.2.8.2 Additional QPP Enhancements
3.2.9 E2E (End-to-End) Security
3.2.9.1 3GPP-Specified Security Architecture
3.2.9.1.1 UE Authentication Framework
3.2.9.1.2 Subscriber Privacy
3.2.9.1.3 Air Interface Confidentiality & Integrity
3.2.9.1.4 Resilience Against Radio Jamming
3.2.9.1.5 RAN, Core & Transport Network Security
3.2.9.1.6 Security Aspects of Network Slicing
3.2.9.2 Application Domain Protection & E2E Encryption
3.2.9.3 National Requirements & Other Considerations
3.2.9.4 Quantum Cryptography Technologies
3.2.10 3GPP Support for NPNs (Non-Public Networks)
3.2.10.1 Types of NPNs
3.2.10.1.1 SNPNs (Standalone NPNs)
3.2.10.1.2 PNI-NPNs (Public Network-Integrated NPNs)
3.2.10.2 SNPN Identification & Selection
3.2.10.3 PNI-NPN Resource Allocation & Isolation
3.2.10.4 CAG (Closed Access Group) for Cell Access Control
3.2.10.5 Mobility, Roaming & Service Continuity
3.2.10.6 Interworking Between SNPNs & Public Networks
3.2.10.7 UE Configuration & Subscription-Related Aspects
3.2.10.8 Other 3GPP-Defined Capabilities for NPNs
3.2.11 Network Slicing
3.2.11.1 Logical Partitioning of Network Resources
3.2.11.2 3GPP Functions, Identifiers & Procedures for Slicing
3.2.11.3 RAN Slicing
3.2.11.4 Mobile Core Slicing
3.2.11.5 Transport Network Slicing
3.2.11.6 UE-Based Network Slicing Features
3.2.11.7 Management & Orchestration Aspects
3.2.12 Infrastructure Sharing
3.2.12.1 Service-Specific PLMN (Public Land Mobile Network) IDs
3.2.12.2 DNN (Data Network Name)/APN (Access Point Name)-Based Isolation
3.2.12.3 GWCN (Gateway Core Network): Core Network Sharing
3.2.12.4 MOCN (Multi-Operator Core Network): RAN & Spectrum Sharing
3.2.12.5 MORAN (Multi-Operator RAN): RAN Sharing Without Spectrum Pooling
3.2.12.6 DECOR (Dedicated Core) & eDECOR (Enhanced DECOR)
3.2.12.7 Roaming in Non-Overlapping Service Areas
3.2.12.8 Passive Sharing of Infrastructure Resources
3.2.13 IoT-Focused Technologies
3.2.13.1 eMTC, NB-IoT & mMTC: Wide Area & High-Density IoT Applications
3.2.13.2 5G NR Light: RedCap (Reduced Capability) UE Type
3.2.13.3 URLLC Techniques: High-Reliability & Low-Latency Enablers
3.2.13.4 5G LAN (Local Area Network)-Type Service
3.2.13.5 Integration With IEEE 802.1 TSN (Time-Sensitive Networking) Systems
3.2.13.6 Native 3GPP Support for TSC (Time-Sensitive Communications)
3.2.14 High-Precision Positioning
3.2.14.1 Assisted-GNSS (Global Navigation Satellite System)
3.2.14.2 RAN-Based Positioning Techniques
3.2.14.3 RAN-Independent Methods
3.2.15 Spectrum Sharing & Management
3.2.15.1 Public Safety Spectrum Sharing & Aggregation
3.2.15.2 SDR (Software-Defined Radio)
3.2.15.3 Cognitive Radio & Spectrum Sensing
3.2.15.4 Shared & Unlicensed Spectrum Usage
3.2.15.4.1 CBRS (Citizens Broadband Radio Service): Three-Tiered Sharing
3.2.15.4.2 LSA (Licensed Shared Access): Two-Tiered Sharing
3.2.15.4.3 Local Area Licensing of Shared Spectrum
3.2.15.4.4 LTE-U, LAA (Licensed Assisted Access), eLAA (Enhanced LAA) & FeLAA (Further Enhanced LAA)
3.2.15.4.5 MulteFire: Standalone LTE Operation in Unlicensed Spectrum
3.2.15.4.6 License-Exempt 1.9 GHz sXGP (Shared Extended Global Platform)
3.2.15.4.7 5G NR-U (NR in Unlicensed Spectrum)
3.2.16 MEC (Multi-Access or Mobile Edge Computing)
3.2.16.1 Optimizing Latency, Service Performance & Backhaul Costs
3.2.16.2 3GPP-Defined Features for Edge Computing Support
3.2.16.3 Public vs. Private Edge Computing
3.2.17 Cloud-Native, Software-Driven & Open Networking
3.2.17.1 Cloud-Native Technologies
3.2.17.2 Microservices & SBA (Service-Based Architecture)
3.2.17.3 Containerization of Network Functions
3.2.17.4 NFV (Network Functions Virtualization)
3.2.17.5 SDN (Software-Defined Networking)
3.2.17.6 Cloud Compute, Storage & Networking Infrastructure
3.2.17.7 APIs (Application Programming Interfaces)
3.2.17.8 Open RAN & Core Architectures
3.2.18 Network Intelligence & Automation
3.2.18.1 AI (Artificial Intelligence)
3.2.18.2 Machine & Deep Learning
3.2.18.3 Big Data & Advanced Analytics
3.2.18.4 SON (Self-Organizing Networks)
3.2.18.5 Intelligent Control, Management & Orchestration
3.2.18.6 Support for Network Intelligence & Automation in 3GPP Standards
4 Chapter 4: Public Safety LTE/5G Application Scenarios & Use Cases
4.1 Mission-Critical HD Voice & Group Communications
4.1.1 Group Calls
4.1.2 Private Calls
4.1.3 Broadcast Calls
4.1.4 System Calls
4.1.5 Emergency Calls & Alerts
4.1.6 Imminent Peril Calls
4.1.7 Ambient & Discrete Listening
4.1.8 Remotely Initiated Calls
4.2 Real-Time Video & High-Resolution Imagery
4.2.1 Mobile Video & Imagery Transmission
4.2.2 Group-Based Video Communications
4.2.3 Video Conferencing for Small Groups
4.2.4 Private One-To-One Video Calls
4.2.5 Video Pull & Push Services
4.2.6 Ambient Viewing
4.2.7 Video Transport From Fixed Cameras
4.2.8 Aerial Video Surveillance
4.3 Messaging, File Transfer & Presence Services
4.3.1 SDS (Short Data Service)
4.3.2 RTT (Real-Time Text)
4.3.3 File Distribution
4.3.4 Multimedia Messaging
4.3.5 Presence Services
4.4 Secure & Seamless Mobile Broadband Access
4.4.1 IP Connectivity & Data Streaming for Mission-Critical Services
4.4.2 Email, Internet & Corporate Intranet
4.4.3 Remote Database Access
4.4.4 Mobile Office & Field Applications
4.4.5 Wireless Telemetry
4.4.6 Bulk Multimedia & Data Transfers
4.4.7 Seamless Data Roaming
4.4.8 Public Safety-Grade Mobile VPN (Virtual Private Network)
4.5 Location Services & Mapping
4.5.1 Network Assisted-GPS/GNSS
4.5.2 Indoor & Urban Positioning
4.5.3 Floor-Level & 3D Geolocation
4.5.4 Advanced Mapping & Spatial Analytics
4.5.5 AVL (Automatic Vehicle Location) & Fleet Management
4.5.6 Field Personnel & Asset Tracking
4.5.7 Navigation for Vehicles, Vessels & Aircraft
4.5.8 Geo-Fencing for Public Safety Operations
4.6 Command & Control
4.6.1 CAD (Computer Aided Dispatch)
4.6.2 Situational Awareness
4.6.3 Common Operating Picture
4.6.4 Integration of Critical IoT Assets
4.6.5 Remote Control of Drones, Robots & Other Unmanned Systems
4.6.6 Digital Signage & Traffic Alerts
4.7 5G & Advanced Public Safety Broadband Applications
4.7.1 UHD (Ultra-High Definition) Video Transmission
4.7.2 Massive-Scale Surveillance & Analytics
4.7.3 AR, VR & MR (Augmented, Virtual & Mixed Reality)
4.7.4 Smart Glasses for Frontline Police Officers
4.7.5 5G-Connected AR Headgear for Firefighters
4.7.6 Telehealth & Remote Surgery for EMS (Emergency Medical Services)
4.7.7 AR Overlays for Police Cruisers, Ambulances, Fire Engines & Helicopters
4.7.8 Holographic Command Centers
4.7.9 Wireless VR/MR-Based Training
4.7.10 Real-Time Physiological Monitoring of First Responders
4.7.11 5G-Equipped Autonomous Police Robots
4.7.12 Unmanned Aerial, Ground & Marine Vehicles
4.7.13 Powering the IoLST (Internet of Life Saving Things)
4.7.14 5G MBS/5MBS Multicast-Broadcast Services in High-Density Environments
4.7.15 5G NR Sidelink-Based Direct Mode Voice, Video & Data Communications
4.7.16 Coverage Expansion Through UE-To-Network & UE-to-UE Relaying
4.7.17 Satellite & NTN (Non-Terrestrial Network)-Assisted 5G NR Access
4.7.18 Centimeter-Level Positioning for First Responder Operations
4.7.19 Practical Examples of 5G Era Public Safety Applications
4.7.19.1 Area X.O (Invest Ottawa): 5G Mobile Command Center
4.7.19.2 Blueforce Development: 5G & Edge Computing for Real-Time Situational Awareness
4.7.19.3 Citymesh: 5G-Connected Safety Drones for Emergency Services
4.7.19.4 Cosumnes Fire Department: AR Firefighting Helmets
4.7.19.5 DRZ (German Rescue Robotics Center): 5G-Equipped Mobile Robotics for Rescue Operations
4.7.19.6 Dubai Police: AI-Enabled Identification of Criminals
4.7.19.7 Dublin Fire Brigade: Coordinating Emergency Incidents With 5G Connectivity
4.7.19.8 Edgybees: Real-Time Augmented Visual Intelligence
4.7.19.9 Government of Catalonia: 5G-Equipped Emergency Medical Vehicles
4.7.19.10 Guardia Civil (Spanish Civil Guard): Tactical 5G Bubbles for Drone-Based Security & Surveillance Missions
4.7.19.11 Hsinchu City Fire Department: Digital Resiliency Through Private 5G & Satellite Communications
4.7.19.12 Kaohsiung City Police Department: Sliced 5G Network for Smart Patrol Cars
4.7.19.13 Leuven Police: Combating Illegal Dumping & Public Nuisances With 5G-Connected Mobile Cameras
4.7.19.14 Lishui Municipal Emergency Management Bureau: 5G-Enabled Natural Disaster Management System
4.7.19.15 Maebashi City Fire Department: 5G for Emergency Response & Rescue Services
4.7.19.16 National Police of the Netherlands: AR-Facilitated Crime Scene Investigations
4.7.19.17 New Zealand Police: Aerial Surveillance Through 5G NR Connectivity
4.7.19.18 NHS (National Health Service, United Kingdom): 5G-Connected Smart Ambulances
4.7.19.19 Norwegian Air Ambulance: Private 5G Network for Search & Rescue Operations
4.7.19.20 PDRM (Royal Malaysia Police): 5G-Enabled Safe City Solution for Langkawi
4.7.19.21 Shenzhen Public Security Bureau: 5G-Connected Unmanned Police Boats
4.7.19.22 SPF (Singapore Police Force): 5G-Equipped Police Robots
4.7.19.23 V-Armed: Preparing Officers for Active Shooter Scenarios Through VR Training
5 Chapter 5: Review of Public Safety LTE/5G Engagements Worldwide
5.1 North America
5.1.1 United States: Leading the Way With FirstNet – The World's Largest Purpose-Built Public Safety Broadband Network
5.1.2 Canada: Shared Network Approach for Nationwide PSBN (Public Safety Broadband Network)
5.2 Asia Pacific
5.2.1 Australia: Establishing a National PSMB (Public Safety Mobile Broadband) Capability
5.2.2 New Zealand: Nationwide Critical Communications Platform Based on Commercial LTE & 5G NR Networks
5.2.3 China: Private 5G Slicing & Band 45 (1.4 GHz) LTE Networks for Police Forces
5.2.4 Hong Kong: 700 MHz Mission-Critical Broadband Network for Public Safety Agencies
5.2.5 Taiwan: Private 5G-Equipped Emergency Response Vehicles, Network Slicing & Hybrid P25-Broadband Communications
5.2.6 Japan: Multiple Options for Fully Dedicated & Secure MVNO-Based Public Safety Broadband Networks
5.2.7 South Korea: Safe-Net – Spearheading Nationwide Public Safety LTE Network Deployments
5.2.8 Singapore: LTE-Based Broadband Overlay to Complement TETRA
5.2.9 Malaysia: Evaluating Multiple Delivery Models for Mission-Critical Broadband
5.2.10 Indonesia: Field Trials of 700 MHz Public Safety LTE Networks
5.2.11 Philippines: Rapidly Deployable LTE Systems for Disaster Relief
5.2.12 Thailand: Band 26 (800 MHz) LTE Network for the Royal Thai Police
5.2.13 Laos: LTE-Based Emergency Communications Networks for Local Governments
5.2.14 Myanmar: Possible Rollout of a 700 MHz Public Safety Broadband Network
5.2.15 India: Proposed Deployment of a National Hybrid Broadband PPDR (Public Protection & Disaster Relief) Network
5.2.16 Pakistan: Dedicated Band 26 (800 MHz) LTE Networks for Safe City Projects
5.2.17 Bangladesh: Portable LTE Networks for VIP Protection Operations
5.3 Europe
5.3.1 United Kingdom
5.3.1.1 Great Britain: ESN – Pioneering the Use of Resilient Commercial RAN Infrastructure for Emergency Communications
5.3.1.2 Northern Ireland: Planned Transition From TETRA to Broadband
5.3.2 Republic of Ireland: Early Field Trials of Dedicated LTE/5G-Ready Systems for First Responders
5.3.3 France: RRF (Radio Network of the Future) – Transitioning From Tetrapol to Mission-Critical Broadband
5.3.4 Germany: Planned Rollout of the BOS Hybrid Broadband Network
5.3.5 Belgium: Government-Owned Secure MVNO With Priority & National/Cross-Border Roaming
5.3.6 Luxembourg: MCX Over Commercial Networks & RRVs (Rapid Response Vehicles) for Security Missions
5.3.7 Netherlands: Proposed Adoption of Hybrid Government-Commercial Network Model
5.3.8 Switzerland: Field Trials for the Nationwide MSK (Secure Mobile Broadband Communications) System
5.3.9 Austria: Possibility to Use Both Dedicated & Commercial RAN Infrastructure Options
5.3.10 Italy: Public Safety LTE Service for Mission-Critical Broadband Communications
5.3.11 Spain: SIRDEE – Establishing European Leadership With Dedicated 450 MHz & 700 MHz Infrastructure
5.3.12 Portugal: Preliminary Trials of 5G for Emergency Services
5.3.13 Sweden: Rakel G2 Secure Broadband System & Teracom AGA Network for Aerial Coverage
5.3.14 Norway: Nytt Nødnett – Mission-Critical Communications Over Commercial 3GPP Networks
5.3.15 Denmark: Secured Shared 4G/5G Infrastructure for Mission-Critical Broadband Services
5.3.16 Finland: VIRVE 2.0 – MOCN-Based Mission-Critical Broadband Service
5.3.17 Estonia: State-Owned MVNO for Public Safety Broadband
5.3.18 Czech Republic: National Roaming & Priority for Public Safety Traffic Over 700 MHz Spectrum
5.3.19 Poland: Leveraging LTE to Modernize Existing Police Radio Communications Systems
5.3.20 Türkiye: Domestically-Produced 4G/5G Base Stations for Public Safety & Emergency Communications
5.3.21 Cyprus: Planned Deployment of 700 MHz Public Safety Broadband Network
5.3.22 Greece: TETRA-Broadband Integration & LTE-Equipped Portable Emergency Command Systems
5.3.23 Bulgaria: Hybrid TETRA-LTE Implementation to Meet Mission-Critical Communications Needs
5.3.24 Romania: Possible Deployment of a 700 MHz Public Safety Broadband Network
5.3.25 Hungary: EDR 2.0/3.0 – Hybrid PPDR Broadband Network
5.3.26 Slovenia: Setting 5G PPDR Projects in Motion
5.3.27 Serbia: LTE-Connected Safe City & Surveillance Systems
5.3.28 Russia: Secure 450 MHz LTE Network for Police Forces, Emergency Services & the National Guard
5.4 Middle East & Africa
5.4.1 Saudi Arabia: Unified TETRA-Broadband Network for Mission-Critical Communications
5.4.2 United Arab Emirates: Emirate-Wide Band 28 (700 MHz) Public Safety LTE Networks
5.4.3 Qatar: The Middle East's First Dedicated Public Safety Broadband Network
5.4.4 Oman: Nationwide Band 20 (800 MHz) LTE Network for the ROP (Royal Oman Police)
5.4.5 Bahrain: Planned 700 MHz PPDR Broadband Rollout
5.4.6 Kuwait: Ongoing Narrowband to Broadband Transition
5.4.7 Iraq: Local LTE-Based Wireless Communications Systems for Security Forces
5.4.8 Jordan: Pilot LTE Network for the Jordanian Armed Forces
5.4.9 Lebanon: LTE Network for Internal Security Forces
5.4.10 Israel: Mission-Critical LTE/5G-Ready Networks for Military & Public Safety Communications
5.4.11 Egypt: Security-Oriented LTE Networks for Safe City Initiatives
5.4.12 Tunisia: Dedicated Band 28 (700 MHz) Spectrum for Public Safety Broadband
5.4.13 South Africa: Demand for Access to Sub-1 GHz PPDR Broadband Spectrum
5.4.14 Botswana: Planned Band 87 (410 MHz) Public Safety Broadband Network
5.4.15 Zambia: 400 MHz Private Broadband System for Safe City Project
5.4.16 Kenya: Custom-Built LTE Network for the Kenyan Police Service
5.4.17 Uganda: Planned Implementation of 400 MHz PPDR Broadband System
5.4.18 Madagascar: LTE-Based Secure Communications Network for the Madagascar National Police
5.4.19 Mauritius: Private LTE Network for the MPF (Mauritius Police Force)
5.4.20 Angola: TETRA-LTE Integration Through Commercial Mobile Operators
5.4.21 Republic of the Congo: LTE-Equipped ECVs (Emergency Communications Vehicles)
5.4.22 Cameroon: LTE Connectivity for Video Surveillance & Broadband Applications
5.4.23 Nigeria: Planned Rollouts of Public Safety LTE Networks for Safe City Initiatives
5.4.24 Ghana: 1.4 GHz LTE-Based National Security Communications Network
5.4.25 Côte d'Ivoire: Purpose-Built LTE Network for the Ministry of Interior and Security
5.4.26 Mali: LTE-Based Safe City Network for Police & Security Forces
5.4.27 Senegal: LTE-Enabled Smart City & Video Surveillance System
5.4.28 Mauritania: Public Safety LTE Network for Urban Security in Nouakchott
5.5 Latin & Central America
5.5.1 Brazil: Regional Dedicated LTE Networks for Public Security & Military Police Forces
5.5.2 Mexico: Secure MVNO Broadband Services for Public Safety & Defense Authorities
5.5.3 Argentina: Hybrid TETRA-Broadband Solutions & Tactical LTE Systems for Incident Response
5.5.4 Colombia: LTE Network Field Trials by the National Police of Colombia
5.5.5 Chile: Potential Rollout of a Band 28 (700 MHz) Public Safety LTE Network
5.5.6 Peru: Unified LMR-LTE Implementation for Mission-Critical Voice & Broadband Data Services
5.5.7 Venezuela: LTE-Equipped VEN 911/SIMA Video Surveillance & Emergency Response System
5.5.8 Ecuador: LTE-Based Communications for the ECU-911 Emergency Response Program
5.5.9 Bolivia: Private LTE Networks for the BOL-110 Citizen Security System & Other Safe City Projects
5.5.10 Barbados: Band 14 (700 MHz) LTE-Based Connectivity Service Platform
5.5.11 Trinidad & Tobago: Rapidly Deployable 400 MHz LTE System for National Security Applications
6 Chapter 6: Public Safety LTE/5G Case Studies
6.1 Nationwide Public Safety LTE/5G Projects
6.1.1 United States' FirstNet (First Responder Network)
6.1.1.1 Operational Model
6.1.1.2 Integrators & Suppliers
6.1.1.3 Deployment Summary
6.1.1.4 Key Applications
6.1.1.5 FirstNet Service Plans & Pricing
6.1.1.6 Integration of Early Builder Band 14 Networks
6.1.1.7 Retrofitted & Purpose-Built FirstNet Cell Sites
6.1.1.8 Rapidly Deployable Cellular Assets for Temporary Coverage & Capacity
6.1.1.9 Certification of Terminal Equipment, Accessories & Applications
6.1.1.10 HPUE Solutions for Coverage Enhancement
6.1.1.11 In-Building FirstNet Connectivity
6.1.1.12 5G NR Access for First Responders
6.1.1.13 Multiple 3GPP-Complaint MCPTT Service Offerings
6.1.1.14 Interoperability With Legacy LMR Systems
6.1.2 New Zealand's NGCC (Next-Generation Critical Communications) Public Safety Network
6.1.2.1 Operational Model
6.1.2.2 Integrators & Suppliers
6.1.2.3 Deployment Summary
6.1.2.4 Key Applications
6.1.2.5 Transition Timeline
6.1.3 Japan's PS-LTE (Public Safety LTE) Project
6.1.3.1 Operational Model
6.1.3.2 Integrators & Suppliers
6.1.3.3 Deployment Summary
6.1.3.3.1 PS-LTE Demonstration Tests
6.1.3.3.2 Implementation of National PS-LTE Service
6.1.3.4 Key Applications
6.1.3.5 Service Evolution Plans
6.1.4 South Korea’s Safe-Net (National Disaster Safety Communications Network)
6.1.4.1 Operational Model
6.1.4.2 Integrators & Suppliers
6.1.4.3 Deployment Summary
6.1.4.4 Key Applications
6.1.4.5 Government-Owned RAN & Mobile Core Equipment
6.1.4.6 RAN Sharing With Commercial Mobile Operators
6.1.4.7 Interworking With LTE-Based Railway & Maritime Networks
6.1.4.8 3GPP Standards-Compliant MCPTT Service
6.1.4.9 Planned Evolution Towards 5G
6.1.4.10 Experimentation With D2D Communications
6.1.5 Royal Thai Police's LTE Network
6.1.5.1 Operational Model
6.1.5.2 Integrators & Suppliers

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