Synopsis

Historically a niche segment of the wider wireless telecommunications industry, private cellular networks – also referred to as NPNs (Non-Public Networks) in 3GPP terminology – have rapidly gained popularity in recent years due to privacy, security, reliability and performance advantages over public mobile networks and competing wireless technologies as well as their potential to replace hardwired connections with non-obstructive wireless links. With the 3GPP-led standardization of features such as MCX (Mission-Critical PTT, Video & Data), URLLC (Ultra-Reliable, Low-Latency Communications), TSC (Time-Sensitive Communications), RedCap (Reduced Capability) for IIoT (Industrial IoT), IAB (Integrated Access & Backhaul), SNPNs (Standalone NPNs), PNI-NPNs (Public Network-Integrated NPNs) and network slicing, alongside ongoing work on capabilities such as ISAC (Integrated Sensing & Communications) and NTN (Non-Terrestrial Network) access, private networks based on LTE and 5G technologies have gained recognition as an all-inclusive connectivity platform for critical communications, industrial automation, physical AI and enterprise intelligence applications. Traditionally, these domains have been served by LMR (Land Mobile Radio), GSM-R, Wi-Fi, industrial Ethernet, fiber and other disparate networks designed for specific use cases, often with limited interoperability and requiring end user organizations to navigate complex trade-offs between coverage, mobility, bandwidth and latency across multiple parallel infrastructures.

The liberalization of spectrum is another factor that is accelerating the adoption of private LTE and 5G networks. National regulators across the globe have released or are in the process of granting access to shared and local area licensed spectrum. Examples include the three-tiered CBRS (Citizens Broadband Radio Service) spectrum sharing scheme in the United States, Canada's 3.9 GHz NCLL (Non-Competitive Local Licensing) framework, Germany's 3.7-3.8 GHz and 28 GHz licenses for 5G campus networks, United Kingdom's shared and local access licensing model, Ireland’s WBB LMP (Low & Medium Power Wireless Broadband) licensing arrangement, France's assignment of vertical spectrum in the 2.6 GHz and 3.8-4.2 GHz bands, Spain's reservation of the 2.3 GHz and 26 GHz bands for self-provisioned local networks, Netherlands' 3.5 GHz licenses for plot-based networks, Belgium’s authorization of 3.8-4.2 GHz spectrum for private networks, Switzerland's NPN spectrum assignment in the 3.4-3.5 GHz band, Finland's 2.3 GHz and 26 GHz licenses for local 4G/5G networks, Sweden's 3.7 GHz and 26 GHz permits, Norway's regulation of local networks in the 3.8-4.2 GHz band, Poland's spectrum assignment for local government units and enterprises, Slovenia's allocation of 2.3 GHz and 3.6 GHz frequencies for local networks, Moldova's assignment of 3.8-4.2 GHz spectrum, South Africa’s dynamic spectrum access scheme for the 3.8-4.2 GHz band, Saudi Arabia’s 4.1-4.2 GHz light licensing regime, Bahrain's private 5G network licenses, Japan's 4.6-4.9 GHz and 28 GHz local 5G network licenses, South Korea's e-Um 5G allocations in the 4.7 GHz and 28 GHz bands, Taiwan's provision of 4.8-4.9 GHz spectrum for private 5G networks, Hong Kong's LWBS (Localized Wireless Broadband Service) licenses, Thailand's allocation of 4.8 GHz PNO (Private Network Operator) spectrum, Australia's apparatus licensing approach, Brazil's multi-band SLP (Private Limited Service) licenses, Argentina's 2.3-2.4 GHz SPIBA (Private Wireless Broadband System) licenses and Mexico's planned allocation of 2.3 GHz and 3.5 GHz spectrum for local networks. Tranches of globally and regionally harmonized license-exempt spectrum are also available worldwide that can be used for the operation of unlicensed LTE and 5G NR-U equipment for private networks. 

In addition, dedicated national spectrum in the 410/450 MHz, sub-1 GHz and higher frequency bands has been allocated for specific critical communications-related applications in many countries, while spectrum holders such as Anterix, Ambra Solutions, Bluewater Wireless, Globalstar, Grain Management, Ligado Networks and MidWave Wireless are making their licensed assets available for private networks through regional and local leasing or spectrum purchase agreements. Separately, SFCG (Space Frequency Coordination Group), NASA (National Aeronautics and Space Administration) and other stakeholders have identified 3GPP bands for outer space and lunar communications. While low-band spectrum remains the gold standard for wide area private networks due to its superior coverage characteristics, the vast majority of campus networks operate in mid-band frequencies. Despite a slower pace of adoption than initially anticipated, private 5G networks utilizing 26 GHz and 28 GHz mmWave (Millimeter Wave) spectrum have also begun to gain traction over the last two years, supporting diverse use cases such as high-speed internet access and telehealth services in residential communities, immersive free-roaming VR experiences in museums and high-definition video transmission from remote oil and gas assets to centralized control rooms. Looking ahead to the post-2030 6G era, some of the most forward-looking telecommunications regulators are beginning to explore the reservation of higher frequency bands – including 42 GHz and 60 GHz spectrum – for highly localized wireless network deployments. At the opposite end of the spectrum range, recent field demonstrations in Japan have showcased portable private 5G systems operating in the 200 MHz VHF band for disaster relief communications.

Regardless of spectrum type, regulators are becoming increasingly responsive to end user requirements in support of both local and wide area private network deployments. In the United States, for instance, the FCC (Federal Communications Commission) has adopted new rules to realign the entire 900 MHz LMR band to create a 2 x 5 MHz broadband segment in counties where applicants and licensees reach private agreements to do so. In Canada, ISED (Innovation, Science and Economic Development) is allowing 3.9 GHz NCLL licensees to hold up to 80 MHz of bandwidth for specific use cases – a fourfold increase from the initially set limit of 20 MHz. Similarly, Sweden's PTS (Post and Telecom Authority) has increased the maximum block size for 3.7 GHz local licenses from 40 MHz to 80 MHz. In the United Kingdom, Ofcom (Office of Communications) has recently introduced a short notice, short duration 2.3 GHz licence for live production and other use cases requiring temporary spectrum access, in response to significant interest from the PMSE (Programme Making & Special Events) community.

LTE and 5G-based private cellular networks come in many different shapes and sizes, including isolated end-to-end NPNs in industrial and enterprise settings, local RAN equipment for targeted cellular coverage, dedicated on-premise core network functions, virtual sliced private networks, secure MVNO (Mobile Virtual Network Operator) platforms for critical communications and wide area networks for application scenarios such as PPDR (Public Protection & Disaster Relief) broadband, smart utility grids, railway communications and ATG/A2G (Air-to-Ground) connectivity. However, it is important to note that equipment suppliers, system integrators, private network specialists, mobile operators and other ecosystem players have slightly different perceptions as to what exactly constitutes a private cellular network. While there is near-universal consensus that private LTE and 5G networks refer to purpose-built cellular communications systems intended for the exclusive use of vertical industries and enterprises, some industry participants extend this definition to also include other market segments – for example, 3GPP-based community and residential broadband networks deployed by non-traditional service providers. Another closely related segment is neutral host infrastructure for shared or multi-operator coverage enhancement in indoor environments or underserved outdoor areas.

Despite somewhat differing views on market definition, one thing is clear – private LTE and 5G networks are continuing their upward trajectory with deployments targeting a multitude of use cases across various industries. These range from localized wireless systems for dedicated connectivity in factories, warehouses, mines, power plants, hydropower dams, substations, offshore wind farms, oil and gas facilities, construction sites, maritime ports, airports, hospitals, stadiums, office buildings and university campuses to regional and nationwide sub-1 GHz private wireless broadband networks for utilities, FRMCS (Future Railway Mobile Communication System)-ready networks for train-to-ground communications and hybrid government-commercial public safety broadband networks. Custom-built cellular systems have also been implemented in locations as remote as Antarctica. Looking beyond Earth, NASA – through its Lunar 3GPP project – plans to deploy a private cellular network on the Moon's surface to connect astronauts, vehicles and scientific instruments during the Artemis V crewed landing mission, which is targeted for late 2028.

The expanding influence of the private LTE and 5G network market is evident from the use of both permanent networks and portable network-in-a-box systems for professional TV broadcasting, enhanced fan engagement and gameplay operations at major sports and special events, including the deployment of private 5G networks for enhanced broadcasting and event operations at stadiums hosting the 2026 FIFA World Cup. Examples of other events supported by private networks include the 2026, 2025 and 2024 PGA Championships, 2025 Phoenix Open, 2026 Kentucky Derby, 2026 and 2025 Formula One Australian Grand Prix, 2025 MotoGP Japanese Grand Prix, SailGP's 2026 and 2025 Seasons, 2025 and 2023 Ryder Cups, Ski Cross World Cup, FIS Nordic World Ski Championships, FISU World University Games, Diamond League, International Island Games, Sukma Games, North West 200 Motorcycle Race, Tour De France, Paris Summer Olympics, World Rowing Cup, Belgian Cup, UEFA European Football Championship, English Premier League, Bundesliga, UFL (United Football League), NFL (National Football League) and MLB (Major League Baseball) games, as well as the 2026 London New Year’s Eve fireworks display and the Republican and Democratic National Conventions in the lead-up to the 2024 United States presidential election. Rapidly deployable private cellular networks have also been utilized for enhanced communications in UN (United Nations) humanitarian missions, disaster relief operations and military exercises such as the JIFX (Joint Interagency Field Experimentation) program hosted by the Naval Postgraduate School; Washington Air National Guard’s Exercise Phoenix Dawn; Italian Navy’s OPEX (Operational Experimentation) 2-25 in the Gulf of Taranto; German Army's urban warfare training drills; Norwegian military’s Joint Viking exercise in the Arctic Circle; SABAK, a joint exercise of the Philippine Army and USARPAC (U.S. Army Pacific) forces; U.S. Marine Corps’ Steel Knight and ITX (Integrated Training Exercise); JGSDF’s (Japan Ground Self-Defense Force) Nankai Rescue disaster response training drill; and REPMUS, an unmanned systems experimentation exercise led by the Portuguese Navy.

Other examples of high-impact private LTE/5G engagements include but are not limited to multi-site, multi-national private cellular deployments at the facilities of Airbus, Ambev, Anglo American, ArcelorMittal, BASF, Bayer, BHP, BMW, Boliden, BP, Cargill, Celanese, Chevron, CIMPOR, COSCO Shipping, Dot Foods, Dow, DP World, Ford, Glencore, Google, Home Depot, Hutchison Ports, Hyundai, Intel, Jaguar Land Rover, John Deere, LG Electronics, Lufthansa, Meijer, Midea, Nestlé, Newmont, Nucor, Pegatron, POSCO, Repsol, Rio Tinto, Robert Bosch, Snam, Tesla, Toyota, Vale, Volkswagen, Walmart, Whirlpool and numerous other household names and industrial giants; 450connect's and Aramo Digital's buildouts of nationwide 450 MHz networks that will eventually comprise up to 2,000 macro-grade cell sites; MLGW's (Memphis Light, Gas and Water) $50 million two-phase standalone private 5G project; SCE's (Southern California Edison) 5G FAN (Field Area Network); service territory-wide private LTE and 5G-ready network projects of Ameren, BC Hydro, Cemig, Copel, CPFL Energia, CPS Energy, Edesur Dominicana, EDP Brasil, ESB Networks, Evergy, Exelon, Hawaiian Electric, LCRA (Lower Colorado River Authority), Neoenergia, Oncor, PGE (Polish Energy Group), Senelec, SDG&E (San Diego Gas & Electric), STEG (Tunisian Company of Electricity and Gas), Tampa Electric, TNB (Tenaga Nasional Berhad), WEB Bonaire (Water & Energy Company), Xcel Energy and other utility companies; local wireless networks at the power plants, hydropower dams and substations of EDF, EDP (Energias de Portugal), Eletrobras, Enel, KHNP (Korea Hydro & Nuclear Power), Kyushu Electric Power and PG&E (Pacific Gas and Electric Company); Sinopec's private 5G-Advanced network that provides coverage across 11,000 oil wells in the Shengli Oil Field; ADNOC's multi-band private 5G network for upstream oil and gas operations; Tampnet's 5G upgrade and vendor swap across more than 120 offshore base stations; Equinor’s private 5G network for its offshore installations in the North Sea; Maersk’s private wireless deployment aboard 450 vessels in its fleet; Gogo's Open RAN-compliant 5G ATG network for inflight connectivity in North America; private network projects at international airports, including Sydney, Auckland, Calgary, DFW (Dallas-Fort Worth), MSP (Minneapolis-St. Paul), Miami, Tucson, Paris, Frankfurt, Amsterdam Schiphol, Hong Kong, Shanghai Pudong, Seoul-Incheon and Gimpo; DB's (Deutsche Bahn) and Adif's rollouts of FRMCS-ready cell sites along major rail routes and 5G campus networks at their maintenance and logistics facilities; Shanghai Metro’s hybrid public-private 5G network that covers 900 kilometers of track, 21 lines and 517 stations; Tel Aviv Metro's private 5G solution for signaling, train control, video surveillance and passenger information display systems; Sydney Metro West's FRMCS-ready private 5G network for mission-critical railway communications; PTA's (Public Transport Authority of Western Australia) radio systems replacement program; New York City Subway’s implementation of a private 5G network to support CBTC (Communications-Based Train Control) operations across the Crosstown Line; Mexico City Metro's private LTE network for smart rail applications on Line 1; smart city and community-wide 5G networks in locations as diverse as Las Vegas and the remote Haute Maurienne valley of the French Alps; Saudi Arabia's $8.7 billion mission-critical broadband network project for the country's defense, law enforcement and intelligence agencies; Hong Kong Police Force’s $250 million 5G-based NGCS (Next-Generation Communications System) project; Hungarian government's nationwide 5G-ready PPDR network encompassing 2,500 base stations; U.S. DOW's (Department of War) private 5G deployments across the continental United States and overseas, including operational networks for the Indo-Pacific and Africa Commands; defense sector 5G programs for the adoption of tactical cellular systems and permanent private 5G networks at military bases in the United Kingdom, France, Germany, Netherlands, Switzerland, Spain, Portugal, Italy, Sweden, Norway, Denmark, Finland, Estonia, Latvia, Czech Republic, Hungary, Ukraine, Australia, Japan, South Korea, Singapore, United Arab Emirates, Qatar and other countries; Sweden’s $35 million VGR (Region Västra Götaland)-5G initiative for indoor private 5G coverage at over 500 critical properties and hospitals; and other healthcare sector deployments such as those of Brno Military Hospital, CHU de Bordeaux, Gesundheit Burgenland, OYS (Oulu University Hospital), AdventHealth, VA (Veterans Affairs) Healthcare Systems, Cleveland Clinic, SHC (Stanford Health Care), Baptist Health South Florida, Tampa General Hospital and Boston Children's Hospital.

SNS Telecom & IT projects that global spending on private LTE and 5G network infrastructure for vertical industries will grow at a CAGR of approximately 22% between 2025 and 2028, eventually exceeding $7.2 billion by the end of 2028. More than 70% of these investments – an estimated $5.1 billion – will be directed towards the buildout of standalone private 5G networks, which are rapidly becoming the preferred wireless communications medium for workforce connectivity, automation and AI applications in enterprise campuses and industrial facilities. The adoption of physical AI is particularly pronounced, with many industrial giants relying on private 5G-connected AGVs (Automated Guided Vehicles), AMRs (Autonomous Mobile Robots), drones, cranes, forklifts, mining vehicles, quadruped robots and even semi-humanoid systems for tasks such as the autonomous transportation of loads ranging from raw materials and parts to assembled vehicles and heavy steel slabs, remote-controlled dozing in mining operations, high-bay inventory counting, visual inspections for predictive maintenance, unmanned security patrols and dual-arm object manipulation. Alongside localized network deployments, critical communications over wide geographic areas is a distinct but equally important growth pillar for private LTE/5G adoption, as defense forces, public safety agencies, railways, utilities and critical infrastructure operators transition from P25, TETRA, GSM-R and other legacy narrowband systems to mission-critical broadband networks. The continued momentum behind these investments is likely to transform the private RAN, mobile core and transport network segments into an almost parallel equipment ecosystem to public mobile operator infrastructure in terms of market size in the coming years. By the mid-2030s, private networks could account for as much as a third of all mobile network infrastructure spending.

The “Private LTE & 5G Network Ecosystem: 2026 – 2030 – Opportunities, Challenges, Strategies, Industry Verticals & Forecasts” report presents an in-depth assessment of the private LTE and 5G network ecosystem, including the value chain, market drivers, barriers to uptake, enabling technologies, operational and business models, vertical industries, application scenarios, key trends, future roadmap, standardization, spectrum availability and allocation, regulatory landscape, case studies, ecosystem player profiles and strategies. The report also presents global and regional market size forecasts from 2026 to 2030, as well as historical data from 2023 to 2025. The forecasts and historical data cover three infrastructure submarkets, two technology generations, four spectrum licensing models, 16 vertical industries and five regional markets.

The report is accompanied by an Excel datasheet suite covering all quantitative forecasts and historical data, as well as an extensive database of over 9,300 global private LTE/5G engagements – as of Q2 2026. Also included is a spectrum tracking database covering over 400 spectrum access routes in the sub-1 GHz, mid-band and mmWave ranges, with associated frequencies and bandwidth availability for both local and wide area private networks on a per-country basis.

Pricing

The report is available for the following price:

• Single User License: USD 2,500

• Company Wide License: USD 3,500

For subscription pricing, please contact info@snstelecom.com

Purchase/Sample Request

To request a sample or to purchase the report, please contact info@snstelecom.com

Summary of Private LTE/5G Engagements

Some of the existing and planned private LTE and 5G engagements are summarized below:

• Agriculture: Private cellular network installations in the agriculture industry range from sub-500 MHz LTE networks that provide wide area cellular coverage for agribusiness machinery, vehicles, sensors and field workers in Brazil to more localized LTE and 5G networks for application scenarios such as crop sensing, remote-controlled tractors, autonomous patrol robots, video monitoring and AI-enabled image analytics in support of precision farming, meat production and poultry processing in the United States, Germany, United Kingdom, France, Sweden, Japan, Taiwan, Indonesia, Australia, Brazil, Argentina and other markets. Among other recent deployments, a smart agriculture project in the United States has delivered private wireless coverage to more than 50 farms, while a government-backed initiative in Indonesia involved the deployment of a backpack-based portable 5G system to provide connectivity for drones, sensors, irrigation systems and farmers’ devices across large paddy fields in Trimomukti Village, South Lampung.

• Aviation: Private LTE and 5G networks have been implemented or are being deployed to support internal operations at some of the busiest international and domestic airports, including Sydney, Auckland, Calgary, Oakland San Francisco Bay, Ontario Southern California, Las Vegas Harry Reid, Tucson, DFW (Dallas-Fort Worth), Dallas Love Field, Tulsa, MSP (Minneapolis-St. Paul), Greenville-Spartanburg, Miami, Chicago O'Hare, Newark Liberty, London Heathrow, Teesside, Manchester, Paris-Charles de Gaulle, Orly and Le Bourget, Lyon-Saint Exupéry, Frankfurt, Cologne Bonn, Brussels, Amsterdam Schiphol, Vienna, Oslo, Helsinki, San Sebastián, Krosno, Zagreb, Zadar, Pula, Athens, Vasil Levski Sofia, Sochi, Bahrain, Dubai, Hong Kong, Shanghai Pudong and Hongqiao, Xi'an Xianyang, Tokyo Narita, Wakkanai, Seoul-Incheon, Gimpo and Kuala Lumpur. Lufthansa, Etihad, Delta Air Lines and JAL (Japan Airlines) are leveraging private 5G networks for aircraft maintenance operations, while ANA (All Nippon Airways) is harnessing local 5G connectivity to enhance the effectiveness of aviation training. In addition, national and cross-border ATG/A2G (Air-to-Ground) networks supporting in-flight broadband and critical airborne communications are also beginning to gain significant traction. Gogo has recently launched its 5G ATG network for business aviation in the contiguous United States, Southern Canada and Alaska.

• Broadcasting: FOX Entertainment, ABC (American Broadcasting Company), CNN (Cable News Network), NBC Sports, ESPN, CBS Sports, Eurosport, OBS (Olympic Broadcasting Services), BC Live Productions, Omaha Productions, ITN (Independent Television News), Gravity Media, BBC (British Broadcasting Corporation), BT Media & Broadcast,  RTÉ (Raidió Teilifís Éireann), QTV (Quipu TV Limited), Timeline Television, France Télévisions, L’Équipe 21, BR (Bayerischer Rundfunk), RTL Deutschland, Media Broadcast, SWR (Südwestrundfunk), WDR (Westdeutscher Rundfunk Köln), Ambiance TV, DPG Media, RTBF (Belgian Radio-Television of the French Community), SRF (Swiss Radio and Television), RTVE (Radiotelevisión Española), Rai (Radiotelevisione Italiana), EMG Italy, SVT (Sveriges Television), NRK (Norwegian Broadcasting Corporation), TV 2 Denmark, Yle (Yleisradio), TVP (Polish Television), ATM Grupa, TVBS, TBN (Trinity Broadcasting Network), WOWOW, CMG (China Media Group), Sanlih E-Television, Television Saitama, Saga TV, RTM (Radio Televisyen Malaysia), TV Azteca and several other broadcast players are utilizing private cellular networks – both temporary and fixed installations – to support live production and other use cases from locations where wired cabling is impractical. OTT (Over-the-Top) streaming service providers such as FanDuel TV, DAZN and U-Next are also increasingly relying on portable 5G networks for real-time video distribution during sports events.

• Construction: Mortenson, Rhomberg Sersa Rail Group, Kolon Global, EXEO Group, Nishimatsu Construction, Hazama Ando Corporation, Kumagai Gumi, Obayashi Corporation, Shimizu Corporation, Taisei Corporation, Takenaka Corporation, CSCEC (China State Construction Engineering Corporation), Hoban Construction, Hip Hing Engineering, Gammon Construction, Hyundai E&C (Engineering & Construction), Ferrovial, DEME Group, BAM Nuttall (Royal BAM Group) and Fira (Finland) are notable examples of companies that have employed the use of private cellular networks to enhance productivity and worker safety at construction sites. One notable example is Obayashi Gumi's use of a local 5G network to support the autonomous operation of cable cranes and a smart concrete pouring system at the renovation project area of the Shin-Maruyama Dam in Japan’s Gifu Prefecture.

• Education: Higher education institutes are at the forefront of adopting on-premise 5G networks in campus environments. Tokyo Metropolitan University,  Kyoto University, Waseda University, Sungkyunkwan University, Halla University, Kookmin University, SUTD (Singapore University of Technology and Design), University of Alabama, Texas A&M University, University of Virginia, Johns Hopkins University, Carnegie Mellon University, Purdue University, University of Notre Dame, Stanford University, Cal Poly (California Polytechnic State University), UC Berkeley (University of California, Berkeley), University of Rhode Island, Northeastern University, UWM (University of Wisconsin-Milwaukee), University of Nebraska-Lincoln, Iowa State University, Bradley University, McMaster University, University of York, ATU (Atlantic Technological University), University of Oviedo, University of Palermo, Politecnico di Milano, TH Rosenheim (Rosenheim Technical University of Applied Sciences), HoME (Hochschule Merseburg University of Applied Sciences), TU Dresden (Dresden University of Technology), HSU/UniBw H (Helmut Schmidt University), RWTH Aachen University, TU Kaiserslautern (Technical University of Kaiserslautern), University of Twente, TU Delft (Delft University of Technology), HOGENT (University College Ghent), VAMK (Vaasa University of Applied Sciences), LUT University (Lappeenranta-Lahti University of Technology), PANS (National Academy of Applied Sciences) Krosno, AGH University of Krakow, Białystok University of Technology, CTU (Czech Technical University in Prague), CZU (Czech University of Life Sciences Prague), Riga Technical University, UPB (Politehnica University of Bucharest) and UNICAMP (State University of Campinas) are among the many universities that have deployed private 5G networks for experimental research or smart campus-related applications. Another prevalent theme in the education sector is the growing number of purpose-built LTE networks aimed at eliminating the digital divide for remote learning in underprivileged school districts.

• Forestry: There is considerable interest in private cellular networks to fulfill the communications needs of the forestry sector for industrial, recreational and environmental purposes in remote locations, where cellular coverage has previously been scarce or non-existent. For example, Holth Skogsdrift is utilizing a private 5G network to transmit 360-degree video footage for the remote supervision and control of wheeled harvesters by off-site operators in Norway's most remote woodlands, while Japan's Forestry Agency has launched an initiative to invest in standalone local 5G networks and LEO satellite services to connect heavy forestry equipment in mountainous areas. Domtar, Tolko Industries, Groupe Rémabec, HS Timber Group, SCA (Svenska Cellulosa Aktiebolaget), Stora Enso, Fiskarheden, Segezha Group and others are also pursuing the adoption of both fixed and portable cellular systems for an expanding range of use cases, including digitization and automation at sawmills, timber terminals and other facilities,  remote control of heavy machinery, safety monitoring of forestry workers and electric harvesting drones that thin trees from the air.

• Healthcare: One of the largest projects in the healthcare sector is Sweden's $35 million VGR (Region Västra Götaland)-5G initiative, which entails the establishment of a multi-site private 5G network for indoor coverage at over 500 critical properties and hospitals in Västra Götaland County. Dedicated 5G campus networks have been installed or are being implemented to support smart healthcare applications in many hospitals, including AdventHealth, VA (Veterans Affairs) Healthcare Systems, Cleveland Clinic, SHC (Stanford Health Care), Baptist Health South Florida, Tampa General Hospital, Boston Children's Hospital, Nagasaki University Hospital, Kwong Wah Hospital, CUHK (Chinese University of Hong Kong) Medical Center, West China Second University Hospital, Korea University Anam Hospital, Hanyang University Guri Hospital, SNUBH (Seoul National University Bundang Hospital), SMC (Samsung Medical Center), Ewha Womans University Mokdong Hospital, NUH (National University Hospital, Singapore), Bethlem Royal Hospital, CHI's New Children's Hospital, CHU Toulouse (Toulouse University Hospital), CHU de Bordeaux (Bordeaux University Hospital), CHU Rennes (Rennes University Hospital), Frankfurt University Hospital, Helios Park Hospital Leipzig, UKD (University Hospital of Düsseldorf), UKSH (University Hospital Schleswig-Holstein), UKB (University Hospital Bonn), St. Josefs-Hospital Cloppenburg, Gesundheit Burgenland, UMCG (University Medical Center Groningen), Noordwest Ziekenhuisgroep (Northwest Hospital Group), Albert Schweitzer Hospital, Maria Middelares, AZ Zeno, OYS (Oulu University Hospital), Skellefteå Hospital, Paolo Giaccone University Hospital, ÚVN (Military University Hospital) Prague, Brno Military Hospital, Albert Einstein Hospital and Hospital das Clínicas (São Paulo). 

• Manufacturing: Dozens of manufacturers across the automotive, aerospace, railcar, shipbuilding, steelmaking, chemical production, food processing, electronics, industrial machinery and other sectors – along with LTE/5G equipment suppliers themselves – are investing in private cellular networks. Prominent examples include but are not limited to ACOME, AGC, AIDC (Aerospace Industrial Development Corporation), Airbus, Alba (Aluminium Bahrain), Ambev, Ansteel, Arçelik, ArcelorMittal, ASN (Alcatel Submarine Networks), Atlas Copco, BASF, BD SENSORS, Belden, BMW,  BorgWarner, British Sugar, Calpak, Cargill, Celanese, Changan Automobile, China Baowu Steel Group, CIMPOR, Cinkarna Celje, COMAC (Commercial Aircraft Corporation of China), Continental, CPF (Charoen Pokphand Foods), Cummins, Del Conca, Delta Electronics, Denka, Dot Foods, Dow, Duracell, EMSTEEL, FAW, Flex, Ford, Foxconn, Fulin Precision, Gerdau, Glanbia, GM (General Motors), Great Wall Motor, Gree, Haier, Hitachi Rail, Holmen Iggesund, Honda, Hybar, Hyster-Yale, Hyundai, Intel, Inventec, INZU Group, Jacto, Jaguar Land Rover, JFE Steel, John Deere, KAI (Korea Aerospace Industries), Koch, KoMiCo, KORENS, Laïta, LG Electronics, Logan Aluminum, LS Electric, LyondellBasell, Magna Steyr, Mahindra & Mahindra, Mercedes-Benz, Midea, Miele, Naval Group, Navantia, Nestlé, Nihonkaisui, Nippon Steel, Nissan, Nucor, Okaya Steel, OKI Electric, PACCAR, PATTA (King Point Enterprises), Pegatron, Perodua, POSCO, Prinzhorn Group, Renault, Rheinmetall, Ricoh, Robert Bosch, Roularta Media Group, Saab, Salzgitter, SANY Heavy Industry, SeAH Special Steel, Schneider Electric, Shandong Yongsheng Rubber, Siemens, Solvay, Standard Steel, Stellantis, Stürmsfs, Subaru, Summit Steel, TAELIM, Taiwan Taffeta Fabric, Takeda, Tesla, Toyota, Trinity Industries, UPC Technology, Usiminas, Valmet, Visy, Volkswagen, WEG, Whirlpool, Yara International,  Xerox, Xiaomi Auto, YOFC (Yangtze Optical Fibre and Cable) and ZF.

• Military: Spearheaded by initiatives such as the U.S. DOW's (Department of War) FutureG program, South Korean Ministry of National Defense's private 5G project for unmanned and remote operations, German Army’s D-LBO (Digitalization of Land-Based Operations), Spanish Air & Space Force's BACSI (Connected, Sustainable & Intelligent Air Base), Italian Ministry of Defense's DII (Defense Information Infrastructure), EU-funded 5G COMPAD 2.0 (5G Communications for Peacekeeping & Defense), NATO's MN5G (Multinational Collaboration on 5G) and DIANA (Defence Innovation Accelerator for the North Atlantic), armed forces worldwide are actively investing in both fixed and transportable private 5G networks for warfighters at the tactical edge, military bases and training facilities. The United States, Canada, Germany, United Kingdom, France, Belgium, Netherlands, Switzerland, Spain, Portugal, Italy, Sweden, Norway, Denmark, Finland, Estonia, Latvia, Czech Republic, Hungary, Türkiye, Ukraine, Russia, China, Australia, Japan, South Korea, Singapore, India, Pakistan, Saudi Arabia, United Arab Emirates, Qatar, Jordan, Egypt, Israel and Brazil are among the countries where experimental and operational networks have been deployed, operating in spectrum ranging from sub-1 GHz frequencies to bands n78 (3.5 GHz), n77 (3.7 GHz) and n79 (4.4-5 GHz), as well as mmWave bands.

• Mining: Mining companies are increasingly deploying 3GPP-based private wireless networks at their surface and underground mining operations to support mine-wide communications between workers, real-time video monitoring, teleoperation of mining equipment, fleet management, self-driving trucks and other applications. Some noteworthy examples include Agnico Eagle, Albemarle, Anglo American, AngloGold Ashanti, Antamina, Antofagasta Minerals, Barrick Mining, BHP, Boliden, Canyon Coal (Menar), China Huaneng Group, China National Coal, China Shenhua Energy, CIL (Coal India Limited), CITIC Pacific Mining, Codelco, Eldorado Gold, Elgaugol, Eramet, Exxaro, Fortescue Metals, Freeport-McMoRan, Geoalcali, Glencore, Gold Fields, Hancock Prospecting, Hindustan Copper, Hudbay Minerals, Huineng Group, IAMGOLD Corporation, Industrias Peñoles, IPC Coal, Jiangxi Copper, KAZ Minerals, LKAB, Lundin Mining, Mariana Minerals, Minera Chinalco (Aluminum Corporation of China), MinRes (Mineral Resources), MMG, Newmont, New Gold, Northern Star Resources, Nornickel (Norilsk Nickel), Nutrien, Outokumpu, PAMA (PT Pamapersada Nusantara), Prony Resources, Rio Tinto, Risun, Salinas Gold Mineração, Severstal, Shaanxi Coal, Shandong Energy, Sigma Lithium, Solidcore Resources, South32, Southern Copper (Grupo México), SUEK, Teck Resources, Vale, Wallbridge Mining Company and Zijin Mining.

• Oil & Gas: Some of the largest projects in the oil and gas industry include Tampnet's 5G upgrade and vendor swap across more than 120 offshore base stations, Repsol's deployment of 5G campus networks at its petrochemical facilities throughout Spain, Sinopec's (China Petroleum & Chemical Corporation) private 5G-Advanced network that provides coverage across 11,000 oil wells in the Shengli Oil Field, Aramco's (Saudi Arabian Oil Company) ongoing rollout of a 2,000-site, 5G-ready Band 72/n72 (450 MHz) network and ADNOC's (Abu Dhabi National Oil Company) 100-site private 5G network that uses a combination of low, mid and high-band frequencies for specific use cases, including Band n258 (26 GHz) mmWave spectrum for high-definition video uploads from drilling rigs, wellheads and pipelines to central control rooms. Other oil and gas companies investing in private cellular networks include but are not limited to Aker, AltaGas, BP, Cameron LNG, Centrica, Chevron, CNOOC (China National Offshore Oil Corporation), ConocoPhillips, Ecopetrol, Equinor, ExxonMobil, Gazprom Neft, Hiroshima Gas, Moeve (Cepsa), MPC (Marathon Petroleum Corporation), Neste, Oil India, ORLEN, Osaka Gas, PCK Raffinerie, Petrobras (Petróleo Brasileiro), PetroChina/CNPC (China National Petroleum Corporation), PETRONAS (Petroliam Nasional), Phillips 66, QatarEnergy, Santos, Shell, SIBUR, SLB (Schlumberger), Snam, Southernpec (Southern Petrochemical), Suncor Energy, TotalEnergies, Vår Energi and Woodside Energy.

• Ports & Maritime Transport: Many port and terminal operators are investing in private LTE and 5G networks to provide high-speed and low-latency wireless connectivity for applications such as AGVs, remote-controlled cranes, smart cargo handling and predictive maintenance. Prominent examples include but are not limited to ABP (Associated British Ports), APM Terminals (Maersk), APS (Ports of Sines and the Algarve Authority), Barcelona Port Authority, BCT (Baltic Container Terminal), Belfast Harbour, CentrePort Wellington, CLdN, CMPort (China Merchants Port Holdings), ConGlobal, COSCO Shipping Ports, DICT (Dream Island Container Terminal), DP World, EUROFOS, EUROGATE, Flinders Port Holdings, Forth Ports, GCT (Global Container Terminals), GMP (Générale de Manutention Portuaire), HavelPort Berlin, Holt Logistics, Hutchison Ports, Klaipėda State Seaport Authority, LPC (Lyttelton Port Company), Maher Terminals, Ningbo-Zhoushan Port Group, North-Central Adriatic Sea Port Authority, Patrick Terminals, PAV (Port Authority of Valencia), PCCA (Port of Corpus Christi Authority), Peel Ports Group, Port Authority of Castellón, PortMiami (Port of Miami), Port Nelson, Port of Aberdeen, Port of Aveiro, Port of Long Beach, Port of Ploče Authority, Port of Tacoma, Port of Tyne, Ports of Stockholm, PSA International, QTerminals, Rosslare Europort, RWG (Rotterdam World Gateway), Seehafen Kiel, Seehafen Wismar, Shandong Port Group, Shimizu Port Authority, SIPG (Shanghai International Port Group), SSA Marine (Carrix), Steveco, Tianjin Port Group, TiL (Terminal Investment Limited), Vancouver Fraser Port Authority, Victoria International Container Terminal, VIMC (Vietnam Maritime Corporation), VPA (Virginia Port Authority) and Zhuhai Port Group. In the maritime transport segment, onboard private cellular networks – supported by satellite backhaul links – are widely being utilized to provide voice, data, messaging and IoT connectivity services for both passenger and cargo vessels while at sea. A prominent example is Maersk’s ongoing rollout of private wireless network equipment across 450 vessels in its fleet to enable real-time cargo tracking.

• Public Safety: Beyond nationwide public safety broadband networks – which typically rely on hybrid architectures combining dedicated mobile core and application servers, private RAN infrastructure in strategic locations and public cellular coverage with priority access and national roaming – city-wide and smaller-scale private 5G networks are also being adopted by public safety agencies and local governments to address specific operational needs. For instance, GDC (Georgia Department of Corrections) is deploying a private 5G network for physically isolated and secure communications at a new state prison campus in Davisboro, Georgia, with 13 buildings covering 800,000 square feet across 200 acres. In Spain, Madrid City Council and UME (Emergency Military Unit) have adopted tactical bubble solutions – based on transportable private 5G cell sites supported by a compact core and satellite backhaul – for enhanced emergency preparedness and forest firefighting operations. Elsewhere, Mexico City Police is using a standalone private 5G network to enable low-latency streaming of visual content to wireless VR headsets as part of an immersive training system, while Abu Dhabi Police has recently procured a private 5G solution, with an initial focus on high-definition video surveillance. The police force’s broader video surveillance systems are supplemented by over 150 AI models for real-time detection of traffic violations, suspect identification and predictive analytics for crime prevention. 

• Railways: Notable examples of recent and ongoing private LTE and 5G projects in the rail sector include Tel Aviv Metro's private 5G solution for signaling, train control, video surveillance and passenger information display systems, Sydney Metro West's FRMCS-ready private 5G network for mission-critical railway communications, PTA's (Public Transport Authority of Western Australia) radio systems replacement program, New York City Subway’s 5G-based CBTC (Communications-Based Train Control) system across the Crosstown Line, Mexico City Metro's private LTE network for CBTC and smart rail operations on Line 1, East West Rail's private 5G deployment along a 30-kilometer stretch between Bicester and Bletchley in South East England, DB's (Deutsche Bahn) and Adif's rollouts of FRMCS-ready cell sites along major rail routes and 5G campus networks at maintenance and logistics facilities, Hanshin Electric Railway's standalone local 5G network for improving safety at railroad crossings and platforms, KORAIL (Korea Railroad Corporation), KRRI (Korea Railroad Research Institute) and AREX (Airport Railroad Express)-led private 5G installations at select tracks, stations and vehicle depots to complement South Korea's existing LTE-R infrastructure, POSCO's private 5G network linking autonomous locomotives and railway control systems, Taipei Metro's private 5G network for tunnel surveillance, Shanghai Metro’s hybrid public-private 5G network encompassing more than 2,000 radio nodes, China State Railway Group's 5G-R program, Astana LRT (Light Rail Transit) system's private LTE network and CFM's (Mozambique Ports and Railways) FRMCS-ready railway communications network. In Japan, 33 railway operators have formed a consortium to share standalone 5G core and edge AI processing infrastructure supporting local 5G RAN deployments by individual operators. In addition, Tokyo Metro, SAR (Saudi Arabia Railways), Network Rail, Northern Ireland Railways, SNCF (French National Railways), ProRail, SBB (Swiss Federal Railways), Trafikverket (Swedish Transport Administration), FTIA (Finnish Transport Infrastructure Agency), PKP (Polish State Railways) and others are also progressing their 5G rail connectivity initiatives in preparation for operational deployment.

• Utilities: Private cellular networks in the utilities sector range from large-scale FANs (Field Area Networks) for smart grid communications across service territories to localized networks aimed at providing wireless connectivity in critical infrastructure facilities such as power plants, substations, hydropower dams and offshore wind farms. Some examples of end user adopters include Ameren, AXIA Energia (Eletrobras), Bahrain EWA (Electricity and Water Authority), Benton PUD (Public Utility District No. 1 of Benton County), BC Hydro, BPA (Bui Power Authority), Celesc, Cemig (Companhia Energética de Minas Gerais), ČEZ Group, Chubu Electric Power, Copel (Companhia Paranaense de Energia), CNNC (China National Nuclear Corporation), CPFL Energia, CPS Energy, CSG (China Southern Power Grid), DEWA (Dubai Electricity & Water Authority), Edesur Dominicana, EDF, EDP (Energias de Portugal), Endeavour Energy, Enel, E.ON, ESB Networks, Evergy, Exelon, FortisAlberta, Fortum, GLID Wind Farms, Hawaiian Electric, Hokkaido Electric Power, Iberdrola, Kansai Electric Power, KHNP (Korea Hydro & Nuclear Power)/KEPCO (Korea Electric Power Corporation), K-water (Korea Water Resources Corporation), Kyushu Electric Power, LCRA (Lower Colorado River Authority), MLGW (Memphis Light, Gas and Water), Naturgy, Oncor, PG&E (Pacific Gas and Electric Company), PGE (Polish Energy Group), Red Eléctrica, Santo Antônio Energia, Senelec, SCE (Southern California Edison), SDG&E (San Diego Gas & Electric), SGCC (State Grid Corporation of China), Southern Company, SRP (Salt River Project), STEG (Tunisian Company of Electricity and Gas), Tampa Electric (TECO Energy/Emera), TNB (Tenaga Nasional Berhad), TNMP (Texas-New Mexico Power Company), WAPDA (Pakistan Water and Power Development Authority), WEB Bonaire (Water & Energy Company) and Xcel Energy.

• Warehousing & Others: Amazon, Walmart, Meijer, Home Depot, Dot Foods, Arvato, KLG Europe, JD Logistics, Sinotrans, Nippon Express, Yes24, Riman Korea, CJ Logistics, Posten Bring (Norwegian Postal Service) and many others have installed private cellular infrastructure for smart warehousing applications. Additional vertical sectors where private LTE and 5G networks are being adopted extend from sports, arts and culture to retail, hospitality, public services and road transport. From a horizontal perspective, enterprise RAN systems for indoor coverage enhancement are relatively common, and end-to-end private networks are also starting to be implemented in office buildings and campuses. KPMG, Meta, Boston Global Investors, BlackRock, Imagin'Office (Icade), Mitsui Fudosan, Mori Building Company, NAVER, Fastpartner and WISTA Management are among the companies that have deployed on-premise private 5G networks in office environments.

Key Findings

The report has the following key findings:

• New Project Additions

  • 2026 is shaping up to be another strong year for the private LTE/5G market, building on a transformative 2025 in which 5G deployments overtook LTE across many vertical industries. Between Q4 2025 and Q2 2026, SNS Telecom & IT has added over 450 new projects to our database of private cellular network engagements. From an annual perspective, this follows the addition of nearly 1,300 new projects in 2025 – up from 900 additions in 2024 – with individual vendor contributions ranging from anywhere between 10 and 30 deployments reported by smaller vendors to 50-170 global projects attributable to each of the European and Asian telecommunications equipment giants.

  • These deployments range from localized wireless systems for dedicated connectivity in factories, warehouses, mines, power plants, hydropower dams, substations, offshore wind farms, oil and gas facilities, construction sites, maritime ports, airports, hospitals, stadiums, office buildings and university campuses to regional and nationwide sub-1 GHz private wireless broadband networks for utilities, FRMCS-ready networks for train-to-ground communications and hybrid government-commercial public safety broadband networks, as well as rapidly deployable LTE/5G network-in-a-box systems for professional TV broadcasting, sports and entertainment events, emergency response operations and tactical communications.

• Market Growth Potential

  • SNS Telecom & IT projects that global spending on private LTE and 5G network infrastructure for vertical industries will grow at a CAGR of approximately 22% between 2025 and 2028, eventually exceeding $7.2 billion by the end of 2028. More than 70% of these investments – an estimated $5.1 billion – will be directed towards the buildout of standalone private 5G networks, which are rapidly becoming the preferred wireless communications medium for workforce connectivity, automation and AI applications in enterprise campuses and industrial facilities. 

  • In addition to multi-site private 5G deployments at existing brownfield facilities, organizations are increasingly incorporating on-premises 5G connectivity into the building plans of greenfield projects. Examples of new facilities with private 5G networks integrated from the outset include GDC's (Georgia Department of Corrections) new state prison campus, Hybar's Osceola steel mill, Hyundai's HMGMA (Hyundai Motor Group Metaplant America), Hitachi Rail's Hagerstown factory, Los Angeles Chargers’ El Segundo training facility, Formula 1's Las Vegas complex, Cleveland Clinic’s Mentor Hospital, CHI's (Children’s Health Ireland) New Children's Hospital, Port of Aberdeen’s South Harbour, ArcelorMittal's Mardyck electrical steel plant, Takeda's Lessines warehouse, NEC’s Kakegawa plant, Pegatron’s Batam smart factory, PATTA's low-carbon Renwu factory, Jacto's Paulópolis production facility, Peru's Port of Chancay and Shandong Yongsheng Rubber's Nador tire manufacturing plant.

  • Alongside localized network deployments, critical communications over wide geographic areas is a distinct but equally important growth pillar for private LTE/5G adoption, as defense forces, public safety agencies, railways, utilities and critical infrastructure operators transition from P25, TETRA, GSM-R and other legacy narrowband systems to mission-critical broadband networks. The continued momentum behind these investments is likely to transform the private RAN, mobile core and transport network segments into an almost parallel equipment ecosystem to public mobile operator infrastructure in terms of market size in the coming years. By the mid-2030s, private networks could account for as much as a third of all mobile network infrastructure spending.

• Role of AI in Private Networks

  • There are three distinct intersection areas between AI and private networks. The first is the enablement of reliable wireless communications for AI applications, including video analytics, machine vision and mobile robotics. The adoption of physical AI is particularly pronounced, with many industrial giants relying on private 5G-connected AGVs, AMRs, drones, cranes, forklifts, mining vehicles, quadruped robots and even semi-humanoid systems for tasks such as the autonomous transportation of loads ranging from raw materials and parts to assembled vehicles and heavy steel slabs, remote-controlled dozing in mining operations, high-bay inventory counting, visual inspections for predictive maintenance, unmanned security patrols and dual-arm object manipulation. It is worth noting that robot manufacturers such as Boston Dynamics and AgiBot recommend private 5G networks as the preferred connectivity medium for their products in industrial settings. Beyond connectivity, the integration of precise indoor and outdoor positioning, ISAC and other supplementary features further enhances the value of private 5G networks for physical AI applications.

  • The second is the use of agentic AI to improve network operations, especially for complex or multi-site deployments, which naturally extends to the cybersecurity and device management domains as well. Multiple vendors have developed AI-enabled management and orchestration platforms to simplify network deployment and administration, optimize performance and energy efficiency, automate policy enforcement and reduce downtime. One of the most sophisticated examples is the implementation of an NVIDIA-powered agentic AI solution for autonomous private 5G network optimization – including adaptive power control – aboard vessels operated by Norwegian shipping company Color Line. In Japan, domestic integrator NTT East has recently concluded a series of tests with 26 vendors to evaluate O-RAN Alliance-defined RIC (RAN Intelligent Controller) functionality for AI-enabled autonomous network control applications supporting transmit power optimization and interference mitigation in private 5G networks.

  • The third intersection area involves leveraging private 5G RAN infrastructure for hosting edge AI workloads with low-latency and real-time processing needs. This concept is commonly referred to as AI-on-RAN within the broader AI-RAN movement. In comparison to larger public mobile operator networks, private 5G environments provide a far less complex operational setting for converging AI processing and RAN control, given the smaller infrastructure footprint that is typically dedicated to a single end user organization. Initial PoCs (Proofs-of-Concept) for AI-on-RAN over private 5G networks have already been conducted in Japan, China and the United States, focusing on physical AI and other network-enabled applications requiring AI inference at the edge.

• Spectrum Availability & Regulatory Support for Private Networks

  • Spectrum liberalization initiatives – particularly shared and local spectrum licensing frameworks for mid-band frequencies such as bands 40/n40 (2.3 GHz), 38/n38 (2.6 GHz), 48/n48 (3.5 GHz), 42/43/n78 (3.3-3.8 GHz), n77 (3.8-4.2 GHz) and n79 (4.6-4.9 GHz) – are playing a pivotal role in accelerating the adoption of private networks. Telecommunications regulators in multiple national markets – including the United States, Canada, Germany, United Kingdom, Ireland, France, Spain, Netherlands, Belgium, Switzerland, Finland, Sweden, Norway, Poland, Slovenia, Lithuania, Moldova, South Africa, Saudi Arabia, Bahrain, Japan, South Korea, Taiwan, Hong Kong, Thailand, Australia, Brazil, Argentina and Mexico – have released or are in the process of granting access to shared and local area licensed spectrum.  

  • Dedicated national spectrum in the 410/450 MHz, sub-1 GHz and higher frequency bands has been allocated for specific critical communications-related applications in many countries, while spectrum holders such as Anterix, Ambra Solutions, Bluewater Wireless, Globalstar, Grain Management, Ligado Networks and MidWave Wireless are making their licensed assets available for private networks through regional and local leasing or spectrum purchase agreements. Separately, SFCG (Space Frequency Coordination Group), NASA (National Aeronautics and Space Administration) and other stakeholders have identified 3GPP bands for outer space and lunar communications.

  • While low-band spectrum remains the gold standard for wide area private networks due to its superior coverage characteristics, the vast majority of campus networks operate in mid-band frequencies. Despite a slower pace of adoption than initially anticipated, private 5G networks utilizing mmWave bands n258 (26 GHz) and n257 (28 GHz) have also begun to gain traction over the last two years, supporting diverse use cases such as high-speed internet access and telehealth services in residential communities, immersive free-roaming VR experiences in museums and high-definition video transmission from remote oil and gas assets to centralized control rooms. Looking ahead to the post-2030 6G era, some of the most forward-looking telecommunications regulators are beginning to explore the reservation of higher frequency bands – including 42 GHz and 60 GHz spectrum – for highly localized wireless network deployments. At the opposite end of the spectrum range, recent field demonstrations in Japan have showcased portable private 5G systems operating in the 200 MHz VHF band for disaster relief communications.

  • Regardless of spectrum type, regulators are becoming increasingly responsive to end user requirements in support of both local and wide area private network deployments. In the United States, for instance, the FCC has adopted new rules to realign the entire 900 MHz LMR band to create a 2 x 5 MHz broadband segment in counties where applicants and licensees reach private agreements to do so. In Canada, ISED is allowing 3.9 GHz NCLL licensees to hold up to 80 MHz of bandwidth for specific use cases – a fourfold increase from the initially set limit of 20 MHz. Similarly, Sweden's PTS has increased the maximum block size for 3.7 GHz local licenses from 40 MHz to 80 MHz. In the United Kingdom, Ofcom has recently introduced a short notice, short duration 2.3 GHz licence for live production and other use cases requiring temporary spectrum access, in response to significant interest from the PMSE (Programme Making & Special Events) community.

• Practical & Quantifiable Benefits

  • As for the practical and quantifiable benefits of private LTE and 5G networks, end user organizations have credited private cellular network installations with productivity and efficiency gains for specific manufacturing, quality control and intralogistics processes in the range of 10% to 90%, as much as a 20-fold reduction in wireless infrastructure footprint compared to Wi-Fi access points and associated cabling in metal-heavy industrial environments, cost savings ranging from hundreds of thousands to millions of dollars per facility and an uplift of up to 80% in worker safety and accident reduction.

  • Tesla, Ford, Hyundai, Toyota, LG Electronics, NEC Corporation, Foxconn, Whirlpool, Salzgitter, BASF, Midea, Gree and JD Logistics are just some of the industrial organizations that have eliminated connection-related stoppages since migrating AGV and AMR communications from Wi-Fi to private 5G networks at their manufacturing and logistics facilities, while Jaguar Land Rover, BD SENSORS and others have extended connectivity to parts of their plants that were previously left unconnected due to the cost and complexity of wired Ethernet links. 

  • Among other impactful industrial examples, automotive engine parts supplier Fulin Precision has freed workers from repetitive box-moving tasks by adopting 100 semi-humanoid robots coordinated by a private 5G-Advanced network, Newmont has extended the reach of teleremote and autonomous machines from 100 meters to 2.5 kilometers at its gold mining operations in Australia, Portuguese cement producer CIMPOR has achieved more than $1 million in annual savings per plant through private 5G-enabled predictive maintenance and Taiwanese electronics manufacturer Pegatron's multi-national private 5G deployment has reduced factory reconfiguration costs by up to 50%.

  • In the public sector, Las Vegas' municipal private 5G network has contributed to a 90% drop in wrong-way driving incidents, Mexico City Police has extended immersive VR training sessions from 25 minutes to 1.5 hours and eliminated the need for officers to carry bulky backpacks through a standalone private 5G network, and police forces in Ontario's Halton-Peel Region have maintained uninterrupted in-vehicle data access – especially during outages affecting public mobile operator services – since adopting their independent public safety broadband network, which has recently undergone a 5G core upgrade.

• Relationship With Wi-Fi & Neutral Host Systems

  • Enterprises and industrial customers – depending on their specific connectivity needs – are adopting private LTE and 5G networks both as a complement to and as a replacement for Wi-Fi solutions. Kyushu Electric Power, for instance, leverages a local 5G network to provide outdoor coverage and backhaul for an indoor Wi-Fi 6 network at its Matsuura thermal power plant. Similarly, KHNP (Korea Hydro & Nuclear Power), Hyundai Motor, Cargill and John Deere are pursuing a multi-technology wireless access strategy that integrates private 5G with Wi-Fi. Others – including Airbus, Lufthansa, LG Electronics, Tesla, Toyota, Newmont, Roularta, Port Nelson, Prinzhorn Group, Chevron, BD SENSORS, BCT (Baltic Container Terminal), CJ Logistics, Del Conca and Wonderful Citrus – have deployed private cellular networks with a relatively small number of radio nodes to replace dozens of Wi-Fi access points, which had previously failed to deliver reliable coverage in large facilities.

  • In the neutral host space, DAS (Distributed Antenna System) vendors have recently introduced unified infrastructure solutions supporting both multi-operator public cellular coverage and private 5G networks in shared or locally licensed spectrum. Separately, small cell-based neutral host systems have gained recognition as a cost-effective, enterprise-funded alternative to DAS in both carpeted spaces and industrial facilities, whereby staff and visitors gain access to public cellular coverage – and optionally private wireless connectivity with an on-site core – over the same RAN infrastructure.  

  • In the United States, the open accessibility of the GAA (General Authorized Access) tier of 3.5 GHz CBRS spectrum has led to the operational deployment of over a hundred CBRS small cell-enabled neutral host networks using MOCN (Multi-Operator Core Network) architecture, from deployments at hotels, schools, higher education campuses, hospitals, factories and warehouses to Meta's in-building wireless network, which spans 1,500 small cells at its corporate properties. However, due to reluctance from T-Mobile and Verizon, recent projects involving multi-operator support have largely been limited to high-profile customers, including the U.S. military, retail giants and household names. As an alternative to the CBRS and MOCN approach, some RAN vendors and service providers have launched MORAN (Multi-Operator RAN) solutions, where each participating operator is required to provide its own signal source and spectrum while small cell radios remain shared. KPMG, Reddit, Beast Industries, Boston Global Investors, AdventHealth and Tampa General Hospital are among the customers that have adopted this approach. 

  • MORAN with operator-licensed frequencies is also the predominant model for neutral host small cells in Europe, although MOCN technology has recently been proposed in the United Kingdom as a means of delivering a shared in-building coverage layer for public and private networks, thereby reducing the need for multiple parallel or competing deployments. MOCN is also being explored in Japan, where mutual roaming and neutral host operation are permitted in license-exempt 1.9 GHz sXGP spectrum. In Saudi Arabia, MORAN solutions are commercially available and trials have been conducted using MOCN and shared Band n77 (4.0-4.1 GHz) spectrum to co-deploy indoor public cellular coverage and private 5G networks.

• Mobile Operators, System Integrators & Other Channel Partners

  • By capitalizing on their extensive licensed spectrum holdings, standalone 5G infrastructure assets and cellular networking expertise, national mobile operators are seeking to strengthen their presence in the market by adopting new and distinct approaches to deliver both physically isolated SNPNs (Standalone Non-Public Networks) and hybrid public-private networks. For instance, T-Mobile has broadened its private 5G portfolio with a lower cost hybrid public-private network solution featuring on-premises UPF (User Plane Function) nodes and a portable private 5G system for temporary deployments. Among other examples, Verizon is targeting enterprise wireless networking deals with its integrated neutral host-private 5G offering, Telefónica has carved out a distinct position in the defense and public safety sectors with its tactical 5G bubble solution, and Vodafone is pursuing a two-track strategy focused on fully managed private networks and customer-specific bespoke solutions to expand its footprint of over 180 private 5G projects across 20 countries.

  • Although countries with a lack of shared/local spectrum options, such as China and the United Arab Emirates, are largely dominated by operator-led private network deployments, system integrators and other channel distributors are increasingly finding success in other national markets, in some cases, slowly displacing the influence of operators by winning a growing proportion of new private network contracts. There are also instances where mobile operators have formed partnerships with specialist integrators to leverage their collective strengths in joint value propositions. For example, Telefónica has been collaborating with BAYFU (Bayerische Funknetz) to deliver 5G campus network projects in Germany and Austria, while T-Mobile has partnered with SEMPRE and Oceus Networks to target customers requiring military-grade private 5G solutions. 

  • Examples of global system integrators, distributors, solution partners and new classes of private network service providers that have gained traction in the market include but are not limited to NTT, Fujitsu, Accenture, Capgemini, Kyndryl, Booz Allen Hamilton, Lockheed Martin, Northrop Grumman, Future Technologies Venture, Oceus Networks, Virewirx, Peraton Labs, Tangram Flex, Stephenson Stellar, TekSynap Corporation, Burns & McDonnell, Black & Veatch, X2nSat, Hughes, STEP CG, Kajeet, Federated Wireless, Khasm Labs, InfiniG, Betacom, Barich, CTS (Communication Technology Services), Imagine Wireless, Invences, Sherpa 6, 4K Solutions, INS (Industrial Networking Solutions), Clover IQ, Clovity, KCCTech, Revells, Ballast Networks, Hawk Networks (Althea), Sparro (WCI Technologies), Alliance Corporation, Airtower Networks, Fortress Solutions, HALO Networks, Trilogy NextGen, Private Wave 5G Wireless, Waveriders Collective, Ramen Networks, Meter Cellular, Tampnet, iNET (Infrastructure Networks), Ambra Solutions, Westcan ACS, PMY Group, Vocus, Aqura, CID Group, Teleauora, VirtuGrp, Proptivity, Sigma Wireless, m3connect, MUGLER, Opticoms, COCUS, TRIOPT, Xantaro, Alsatis, Axians, Axione, Hub One, SPIE Group, TDF, Weaccess Group, ORAXIO Telecom Solutions, Unitel Group, Numerisat, Invenio Techs, Sistelec, Insight Enterprises, Telent, Logicalis, AWTG, Aerix, Virtuser, AcriPlex/Fuelics, Citymesh, Eurofiber, NuLink, INNERGO Systems, Grape One, NS Solutions, OPTAGE, Wave-In Communication, LG CNS, SEJONG Telecom, CJ OliveNetworks, Megazone Cloud, Nable Communications, Qubicom, NewGens, SMEC (Korea), GNTEL, WIZCORE, Comsol, OSC Top Solutions, TXM, Ikusi and Epiroc. Also active in this space are the private 5G business units of Boldyn Networks, American Tower, Boingo Wireless, Freshwave, Shared Access, Digita, Tillman Digital Cities and other neutral host infrastructure providers; cable operators' enterprise divisions such as Comcast Business and Cox Private Networks; and global IoT connectivity providers Onomondo, Monogoto and floLIVE.

• Vendor Landscape

  • Although traditional wireless infrastructure players – from incumbents Ericsson, Nokia, Huawei and ZTE to the likes of Samsung and NEC – continue to lead the private cellular market in terms of infrastructure sales, there is considerably greater OEM (Original Equipment Manufacturer) and vendor diversity than in the public mobile network segment, with other players establishing their presence in markets as far afield as the United States, Canada, Germany, United Kingdom, France, Belgium, Netherlands, Saudi Arabia, Brazil, Japan, South Korea, Taiwan, China, India and Australia. Of particular note is the fact that startups and specialized private 5G vendors have recently begun securing multi-site private 5G contracts spanning dozens of facilities across multiple geographies, encroaching on territory that until recently had been the preserve of wireless infrastructure giants.

  • Examples of RAN, mobile core and transport network equipment vendors include Celona, Globalstar's XCOM RAN business unit, Airspan Networks, Dell Technologies, Firecell/Accelleran, GXC (Motive Companies), Moso Networks/Sercomm, Ataya, Mavenir, Baicells, Telrad Networks, BLiNQ Networks, Ceragon Networks, JMA Wireless, Microamp Solutions, Visban, Abside Networks, SEMPRE, Eridan Communications, AmpliTech, Battelle, ODC (Open RAN Development Company), Skylark Wireless, ANDREW (Amphenol), Alpha Wireless, Ubiik, Ciena, Canoga Perkins, Fibrolan, Aviat, Star Solutions/BTI Wireless, EdgeNectar, Expeto, Druid Software, HPE (Hewlett Packard Enterprise), Cisco Systems, RADTONICS, Pente Networks, Blue Arcus, Axyom.Core, A5G Networks, Bloxtel, Oracle, Enea, Parallel Wireless, Radisys, Wilson Connectivity, Nextivity, LG Electronics, Samji Electronics, SOLiD, EUCAST, EasyCell, HFR Mobile, Qucell (Accuver), WNC (Wistron NeWeb Corporation), Askey Computer, Saviah Technologies, QCT (Quanta Cloud Technology), G REIGNS, Pegatron, Alpha Networks, CloudRAN.AI, IPLOOK, Sunwave Communications, Comba Telecom, AsiaInfo Technologies, AI-LINK, LITEON, SynaXG, VHT (Viettel High Tech), FLARE SYSTEMS, Hytec Inter, ISL Networks, Rakuten Symphony, ELUON, NextEPC (COONTEC), Siemens, Obvios, Katela Networks, Eviden, Kontron, Teltronic, YateBTS, BubbleRAN, Amarisoft, CampusGenius, Riedel Communications, GuardStack/Blackned, Cumucore, Apeiroon, SendBuffer, Atika Technologies, IS-Wireless, Effnet, Node-H, SRS (Software Radio Systems), Benetel, AttoCore, cellXica, JET Connectivity, Neutral Wireless, Wireless Excellence, Antevia Networks, ASOCS, ASELSAN, i2i Systems, PROTEI, Iskra Technologies, Trópico, Niral Networks, Tidal Wave and Lekha Wireless.

  • The device ecosystem is equally diverse with many OEMs and suppliers, from smartphone, tablet, laptop and specialized handset vendors such as Apple, Samsung, Zebra Technologies, Bittium, HMD, CROSSCALL, Ascom, Cybertel, TELOX, Hytera, Sonim (NEXA), Siyata, Purism, Cyrus Technology, RugGear, i.safe MOBILE, Getac and Panasonic Connect to suppliers of IoT modules, routers and other form factors such as Semtech, Telit Cinterion, Quectel, Sunsea, Fibocom, Lierda, Cavli Wireless, Cradlepoint (Ericsson), Digi International, Teltonika Networks, Inseego, BEC Technologies, MultiTech, Peplink, HMS Networks, Aviat, Moxa, Belden, InHand Networks, Lantronix, RAD, Eurotech, Westermo, Advantech, AMIT Wireless, ADLINK Technology, Sercomm, Robustel, Four-Faith, Hongdian, PUSR, Microhard, Horizon, Dejero, Global Telecom, Airgain, Celerway, INSYS icom, Kontron, Funkwerk, Siemens, Icomera, GE Vernova, Itron, Phoenix Contact, Milesight, Rajant, Sony, Haivision, LiveU, Teradek and TVU Networks. 

• New Entrants & Products

  • Dell Technologies has recently launched an Open RAN-compliant Band n79 (4.4-5 GHz) RU (Radio Unit) product and an end-to-end private 5G solution for federal government and defense sector applications, after many years of active involvement in the infrastructure ecosystem as a supplier of server hardware for RAN and mobile core workloads. LG Electronics has also entered the market using Open RAN-compliant RUs manufactured by South Korean OEM Samji Electronics. Airspan has launched its new digital DAS platform across the United Kingdom and Europe, which supports operation in locally licensed private 5G spectrum and is pre-integrated with the company's 5G baseband software via Open RAN interfaces. BLiNQ Networks has expanded its private 5G portfolio with new high-power and mid-power outdoor small cells. Siemens has introduced new Band n77 (3.8-4.2 GHz) and Band 48/n48 (3.5 GHz CBRS) RUs to expand its private 5G infrastructure offering to 15 countries across Europe and the Americas. BubbleRAN and Amarisoft have jointly launched an AI-native 4G/5G Open RAN solution designed for private networks.

  • Two startups have recently emerged in the wake of HPE's acquisition of Italian private cellular networking specialist Athonet three years ago. Founded by Athonet alumni, Apeiroon specializes in portable 5G networks pre-integrated with RAN, core and application functionality for public safety, defense and high-demand civilian applications, while SendBuffer provides compact mobile core software solutions for on-premises deployments. Some mobile operators and system integrators have chosen to develop their own infrastructure solutions for private networks. For example, Vietnamese national mobile operator Viettel’s private 5G product portfolio includes both RAN and core network functions, while German system integrator COCUS has an in-house 4G/5G packet core software solution, with RAN and hardware components sourced from its partners. 

  • New devices and feature enhancements tailored for private networks continue to enter the market. To cite a few recent examples, Nokia has partnered with HMD to develop a tactical smartphone for defense and public safety users, Siemens has enhanced its 5G routers with edge runtime capabilities, XCOM RAN has launched an industrial router to complement its private 5G infrastructure portfolio, and Japan's Sumitomo Electric has launched an mmWave terminal for local 5G networks that integrates proprietary AI image compression algorithms, enabling high-definition camera footage to be transmitted with an 80% reduction in data volume.

• Nokia-Ericsson Divergence & Ecosystem Partnerships

  • Nokia and Ericsson – the two leading suppliers outside China – are diverging in their approach to the campus network segment, with Nokia contemplating a divestment of its ECE (Enterprise Campus Edge) portfolio and Ericsson doubling down on its enterprise wireless push with an end-to-end portfolio comprising compact and scalable private 5G solutions, a small cell-based neutral host coverage system, Cradlepoint routers and AI-enabled management and orchestration. However, as a standalone unit, Nokia's ECE business is continuing to add new features to its flagship DAC (Digital Automation Cloud) private wireless solution, including a new all-in-one small cell, an updated compact private wireless system capable of supporting up to 12 radio nodes and neutral host capabilities.

  • What remains common between the Nordic giants is their commitment to MCN (Mission-Critical Network) solutions for sectors such as defense, public safety, railways and utilities. Military communications is seen by both vendors as a particularly large opportunity for long-term growth, where proprietary solutions are increasingly being complemented – and in some cases supplanted – by 3GPP standards-based networks to deliver both local and wide area coverage for capabilities extending from tactical networking to ISAC-enabled sensing for counter-drone protection. Nokia, Ericsson, Dell, Ciena and several other vendors have established dedicated business units that offer tailored 5G solutions for defense and government customers.  

  • Strategic ecosystem partnerships are continuing to proliferate across the board. Celona and Rakuten Symphony plan to jointly deliver Open RAN-compliant private 5G solutions to large and medium-sized enterprises. Firecell and CloudRAN.AI have initiated a partnership to expand radio hardware options available to private 5G system integrators. Ericsson is deepening its integrator and service provider relationships, including the addition of Canadian integrator Westcan ACS to its channel partner program, an expanded collaboration with Future Technologies Venture in the United States, a multi-year partnership with NTT DATA and enterprise 5G-focused partnerships with operators in new national markets. In the neutral host space, InfiniG has recently added Nokia's RAN infrastructure to its in-building mobile coverage portfolio, while Antevia Networks and Ontix are collaborating to deploy MOCN-enabled networks supporting both public cellular coverage and private 5G use cases in the United Kingdom.

  • Vertical industry-specific partnerships are also gaining traction. Nokia has integrated its private 5G technology into Anduril Industries' Sentry surveillance tower platform for mission-critical communications in austere environments, and has jointly launched a field-ready, modular 5G system with Lockheed Martin aligned with U.S. DOW-defined open architecture standards for deployment across military vehicles and platforms. Also in the defense sector, Airspan and Atika have formed an alliance to advance multi-domain 5G connectivity for mission-critical operations in land and air environments. Druid Software has entered into a strategic partnership with Heddian to deliver private networks for electric utilities, supported by core network elements hosted locally or in regional data centers. The Irish cellular core technology provider has also been collaborating with integrator X2nSat and RAN supplier Moso Networks to deploy satellite-backhauled private 5G networks for remote utility infrastructure assets in the United States. 

• Private 5G Security, Orchestration, Test/Measurement, Network Visibility & Sensing

  • There is a growing focus on private 5G security solutions enabling device management, network visibility, traffic segregation, access control and threat prevention across both IT (Information Technology) and OT (Operational Technology) domains. Some of the key players in this segment include OneLayer, Palo Alto Networks, Fortinet, SecurityGen, Zscaler, Trend Micro’s subsidiary CTOne, Claroty, Check Point, Kigen and Thales. Network orchestration and management is another area garnering considerable interest, with solutions from companies like Highway 9 Networks, Neutroon Technologies, Nearby Computing, NEC’s Netcracker division and Weaver Labs. 

  • Test, measurement and network visibility specialists such as NETSCOUT Systems, VIAVI Solutions, Keysight Technologies, Rohde & Schwarz and Anritsu have expanded their portfolios with field testing, device testing, network monitoring and assurance solutions for private 5G networks, in addition to pursuing partnerships with system integrators in specific national markets. Similarly, private networks are a key area of focus for Infovista, Ranplan Wireless, iBwave, Eino, Blare Tech and other providers of network design, planning and optimization software.

  • The integration of sensing into private networks is already beginning to take shape ahead of the 6G era, when ISAC is expected to become a native capability of cellular systems. For example, AI-RAN startup ODC is collaborating with the U.S. military to develop distributed AI applications for drone detection and other ISAC use cases over Open RAN-compliant private 5G-Advanced networks, while Tiami Networks' RAN-integrated sensing platform is being deployed as part of a broader private 5G deployment across the key command bases of the AFGSC (Air Force Global Strike Command).

• Startup Funding, M&A Activity & Divestments

  • SNS Telecom & IT has been approached by multiple investment firms for market projections as they pursue strategic opportunities, some of which have already culminated in equity investment. As the market continues to mature, investment activity has kept pace across both startups and established private 5G specialists. Over the last two years, the market has attracted more than $250 million in collective funding in the form of strategic growth capital, seed funding and later-stage venture capital financing rounds.

  • M&A activity has remained steady, with consolidation and strategic realignment continuing among key players. Backed by a $9 million investment round, Firecell and Accelleran have recently merged to become a sovereign European provider of pre-integrated private 5G solutions by bringing together Firecell's core network and management system with Accelleran's programmable RAN and AI capabilities. Spanish defense group Amper has reached an agreement to acquire critical communications and private 4G/5G vendor Teltronic. If concluded, Nokia's potential divestment of its ECE business would rank as one of the most significant transactions the market has ever seen, given the unit's long-standing dominance and broader implications for the competitive landscape. Amazon's $11.6 billion agreement to acquire Globalstar has indirect but far-reaching implications for the private wireless market – potentially culminating in a formidable combination of direct-to-device satellite services and XCOM RAN's terrestrial private 5G solution for in-building and localized coverage.

  • Previous deals concluded in 2025 and 2024 include the divestiture of Corning's small cell RAN and DAS portfolio to Airspan Networks, Amphenol's acquisition of CommScope's wireless assets, Motive Companies' acquisition of private cellular technology provider GXC, Riedel Communications' buyout of former Nokia spinoff and 5G campus network specialist MECSware, Rheinmetall's share purchase agreement for majority ownership of tactical core middleware developer Blackned and Nokia's acquisition of tactical communications technology provider Fenix Group to strengthen its position in the defense sector. 

  • In the service provider segment, new 5G system integrator Aerix has taken over all of the private 5G networks managed by United Kingdom-based regional mobile operator Telet. Past deals in the segment include Boldyn's acquisitions of SML (Smart Mobile Labs) and Cellnex's private networks business unit; Day Wireless Systems' takeover of Sigma Wireless; BAI Communications' acquisition of Titan ICT; Vocus' buyout of Challenge Networks; and Telstra Purple's acquisition of Aqura Technologies.

Topics Covered

The report covers the following topics:

• Introduction to private LTE and 5G networks

• Value chain and ecosystem structure

• Market drivers and challenges

• System architecture and key elements of private LTE and 5G networks

• Operational and business models, network size, geographic reach and other practical aspects of private LTE and 5G networks

• Physical AI, industrial automation, critical communications broadband evolution and other themes shaping the adoption of private LTE and 5G networks

• Enabling technologies and concepts, including 3GPP-defined MCX, URLLC, TSC, DetNet, SNPN and PNI-NPN, NR-U, RedCap/eRedCap, cellular IoT, high-precision positioning, ISAC, NTN access, IAB, network slicing, edge computing and network automation capabilities

• Key trends such as the emergence of new classes of specialized private network operators, shared and local area spectrum licensing, private NaaS (Network-as-a-Service) offerings, IT/OT convergence, unified neutral host-private 5G solutions, Open RAN, vRAN and AI-RAN, agentic AI-driven network operations, rapidly deployable 5G systems for temporary coverage, satellite backhaul integration, direct-to-device connectivity, 5G-Advanced feature adoption and the incorporation of private 5G networks into the building plans of greenfield facilities

• Analysis of vertical industries and application scenarios such as autonomous transport systems, collaborative mobile robots, reconfigurable wireless production lines, untethered AR/VR/MR, high-definition video transmission, machine vision, digital twins, predictive maintenance and mission-critical communications between personnel, drones, vehicles and operational systems

• Future roadmap of private LTE and 5G networks

• Review of private LTE and 5G network installations worldwide, including 200 case studies spanning 16 verticals

• Private cellular engagement database tracking more than 9,300 private LTE and 5G projects in over 130 countries

• Spectrum availability, allocation and usage across the global, regional and national domains

• Spectrum tracking database covering more than 400 spectrum access routes for private networks on a per-country basis 

• Standardization, regulatory and collaborative initiatives

• Profiles and strategies of more than 1,900 ecosystem players

• Strategic recommendations for LTE/5G equipment and chipset suppliers, system integrators, private network specialists, mobile operators and end user organizations

• Market analysis and forecasts from 2026 to 2030, with historical data from 2023 to 2025

Forecast Segmentation

Market forecasts are provided for each of the following submarkets and their subcategories:

• Infrastructure Submarkets

  • RAN (LTE & 5G NR Radio Access Network)

    • Base Station RUs (Radio Units)

    • DUs/CUs (Distributed & Centralized Baseband Units)

  • Mobile Core (EPC & 5GC)

    • User Plane Functions

    • Control Plane Functions

  • Transport Network (Fronthaul, Midhaul & Backhaul)

    • Fiber & Wireline

    • Microwave

    • Satellite Communications

• Technology Generations

  • LTE

  • 5G

• Cell Sizes

  • Small Cells

    • Indoor

    • Outdoor

  • Macrocells

• Spectrum Licensing Models

  • Mobile Operator-Owned Spectrum

  • Wide Area Licensed Spectrum

  • Shared & Local Area Licensed Spectrum

  • Unlicensed Spectrum

• Frequency Ranges

  • Low-Band (Sub-1 GHz)

  • Mid-Band (1-6 GHz)

  • High-Band mmWave (Millimeter Wave)

• End User Markets

  • Vertical Industries

    • Agriculture

    • Aviation

    • Broadcasting

    • Construction

    • Education

    • Forestry

    • Healthcare

    • Manufacturing

    • Military

    • Mining

    • Oil & Gas

    • Ports & Maritime Transport

    • Public Safety

    • Railways

    • Utilities

    • Warehousing & Others

  • Offices, Buildings & Public Venues

• Regional Markets

  • North America

  • Asia Pacific

  • Europe

  • Middle East & Africa

  • Latin & Central America

Table of Contents

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 Private LTE/5G Engagements

1.7 Methodology

1.8 Target Audience

2 Chapter 2: An Overview of Private LTE & 5G Networks

x2 Chapter 2: An Overview of Private LTE & 5G Networks

2.1 An Introduction to the 3GPP-Defined LTE & 5G Standards

2.1.1 LTE: The First Global Standard for Cellular Communications

2.1.2 LTE-Advanced: Delivering the Promise of True 4G Performance

2.1.3 LTE-Advanced Pro: Laying the Foundation for the 5G Era

2.1.4 5G: Accelerating 3GPP Expansion in Vertical Industries

2.1.4.1 5G Service Profiles

2.1.4.1.1 eMBB (Enhanced Mobile Broadband)

2.1.4.1.2 URLLC (Ultra-Reliable, Low-Latency Communications)

2.1.4.1.3 mMTC/mIoT (Massive Machine-Type Communications/Internet of Things)

2.1.5 5G-Advanced & the Evolution to 6G

2.2 Why Adopt LTE & 5G-Based Private Wireless Networks?

2.2.1 Performance, Mobility, Reliability & Security Characteristics

2.2.2 Ability to Address Both Wide Area & Localized Coverage Needs

2.2.3 Variety of Frequency Bands, Bandwidth Flexibility & Spectral Efficiency

2.2.4 Interworking With Public Mobile Networks & Non-3GPP Technologies

2.2.5 3GPP Support for Industrial-Grade & Mission-Critical Applications

2.2.6 Future-Proof Transition Path Towards 6G Networks

2.2.7 Thriving Ecosystem of Chipsets, Devices & Network Equipment

2.2.8 Economic Viability of Deployment & Operational Costs

2.3 Key Themes Influencing the Adoption of Private LTE & 5G Networks

2.3.1 Critical Communications Broadband Evolution

2.3.2 Industry 4.0-Driven Wireless Connectivity Requirements

2.3.3 Localized Cellular Coverage for Enterprise Transformation Initiatives

2.3.4 Neutral Hosting, Smart Cities, Community Broadband & Other Themes

2.4 Practical Aspects of Private LTE & 5G Networks

2.4.1 LTE & 5G Technology Deployment Modes

2.4.1.1 LTE

2.4.1.2 NSA (Non-Standalone) 5G

2.4.1.3 SA (Standalone) 5G

2.4.2 Spectrum Options

2.4.2.1 National Spectrum for Specific Applications

2.4.2.1.1 Defense & PPDR (Public Protection & Disaster Relief)

2.4.2.1.2 Utilities & Critical Infrastructure Industries

2.4.2.1.3 Aviation, Maritime & Railway Communications

2.4.2.1.4 Other Segments

2.4.2.2 Local Area Licensed Spectrum

2.4.2.2.1 Local Area Licenses for Enterprises & Vertical Users

2.4.2.2.2 Local Leasing of Public Mobile Operator Frequencies

2.4.2.2.3 ASA (Authorized Shared Access) & Light Licensing

2.4.2.3 Unlicensed Spectrum

2.4.2.3.1 Designated License-Exempt Bands

2.4.2.3.2 Opportunistic Unlicensed Access

2.4.3 Network Size & Geographic Reach

2.4.3.1 Wide Area Private Cellular Networks

2.4.3.2 Medium-Scale Local Area Networks

2.4.3.3 On-Premise Campus Networks

2.4.4 Operational Scenarios

2.4.4.1 Isolated NPNs (Non-Public Networks)

2.4.4.2 Public Mobile Operator-Integrated NPNs

2.4.4.2.1 Dedicated Mobile Operator RAN Coverage

2.4.4.2.2 Shared RAN With On-Premise Core

2.4.4.2.3 Shared RAN & Control Plane

2.4.4.2.4 NPNs Hosted By Public Networks

2.4.4.3 Virtual Sliced Private Networks

2.4.4.4 Hybrid Public-Private Networks

2.4.4.5 Shared Core Private Networks

2.4.4.6 Secure MVNO (Mobile Virtual Network Operator) Arrangements

2.4.4.7 Other Approaches

2.4.5 Business Models

2.4.5.1 Fully Independent Private Networks

2.4.5.2 Service Provider-Managed Private Networks

2.4.5.3 Hybrid Ownership, Management & Control

2.4.5.4 Private NaaS (Network-as-a-Service)

2.4.5.5 Other Business Models

2.5 The Value Chain of Private LTE & 5G Networks

2.5.1 Semiconductor & Enabling Technology Specialists

2.5.2 Terminal OEMs (Original Equipment Manufacturers)

2.5.3 RAN, Core & Transport Infrastructure Suppliers

2.5.4 Service Providers

2.5.4.1 Critical Communications, Industrial, OT & IT System Integrators

2.5.4.2 Pure-Play Private 4G/5G Network Operators

2.5.4.3 National Mobile Operators

2.5.4.4 MVNOs

2.5.4.5 Neutral Hosts

2.5.4.6 Towercos (Tower Companies)

2.5.4.7 Cloud & Edge Platform Providers

2.5.4.8 Fixed-Line Service Providers

2.5.4.9 Fiber Network Operators

2.5.4.10 Satellite Communications Service Providers

2.5.5 End User Organizations

2.5.6 Other Ecosystem Players

2.6 Market Drivers

2.6.1 Growing Demand for High-Bandwidth & Low-Latency Wireless Applications

2.6.2 Endorsement From the Critical Communications & Industry 4.0 Sectors

2.6.3 Limited Public Cellular Coverage in Indoor, Industrial & Remote Environments

2.6.4 Availability of Suitable Spectrum Options for Private Use

2.6.5 Guaranteed Connectivity & QoS (Quality-of-Service) Control

2.6.6 Greater Levels of Network Security & Data Privacy

2.6.7 Operators' & Vendors' Desire for New Revenue Sources

2.6.8 Government-Funded 5G Innovation Initiatives

2.7 Market Barriers

2.7.1 Cost & ROI (Return-On-Investment) Justification

2.7.2 Technical Complexities of Network Deployment & Operation

2.7.3 Integration With Existing Infrastructure & Applications

2.7.4 Limited Scale Effects Due to Lack of Spectrum Harmonization

2.7.5 Competition From Non-3GPP Technologies & Solutions

2.7.6 LTE/5G Terminal Equipment-Related Challenges

2.7.7 Skills Gap & Shortage of Proficient Engineers

2.7.8 Conservatism & Slow Pace of Change

3 Chapter 3: Private LTE/5G System Architecture & Technologies

3.1 Architectural Components of Private LTE/5G Networks

3.2 UE (User Equipment)

3.2.1 Smartphones & Handportable Devices

3.2.2 Industrial-Grade Routers & Gateways

3.2.3 Mobile Hotspots & Vehicular Terminals

3.2.4 Fixed Wireless CPEs (Customer Premises Equipment)

3.2.5 Tablets & Notebook PCs

3.2.6 Smart Wearables

3.2.7 Cellular IoT Modules

3.2.8 Add-On Dongles

3.3 RAN (Radio Access Network)

3.3.1 E-UTRAN – LTE RAN

3.3.1.1 eNBs – LTE Base Stations

3.3.2 NG-RAN – 5G NR Access Network

3.3.2.1 gNBs – 5G NR Base Stations

3.3.2.2 en-gNBs – Secondary Node 5G NR Base Stations

3.3.2.3 ng-eNBs – Next-Generation LTE Base Stations

3.3.3 Architectural Components of eNB/gNB Base Stations

3.3.3.1 RUs (Radio Units)

3.3.3.2 Integrated Radio & Baseband Units

3.3.3.3 DUs (Distributed Baseband Units)

3.3.3.4 CUs (Centralized Baseband Units)

3.4 Mobile Core

3.4.1 EPC (Evolved Packet Core): LTE Mobile Core

3.4.1.1 SGW (Serving Gateway)

3.4.1.2 PGW (Packet Data Network Gateway)

3.4.1.3 MME (Mobility Management Entity)

3.4.1.4 HSS (Home Subscriber Server)

3.4.1.5 PCRF (Policy Charging & Rules Function)

3.4.2 5GC (5G Core): Core Network for Standalone 5G Implementations

3.4.2.1 Access, Mobility & Session Management

3.4.2.1.1 AMF (Access & Mobility Management Function)

3.4.2.1.2 SMF (Session Management Function)

3.4.2.1.3 UPF (User Plane Function)

3.4.2.2 Subscription & Data Management

3.4.2.2.1 AUSF (Authentication Server Function)

3.4.2.2.2 AAnF (AKMA Anchor Function)

3.4.2.2.3 UDM (Unified Data Management)

3.4.2.2.4 UDR (Unified Data Repository)

3.4.2.2.5 UDSF (Unstructured Data Storage Function)

3.4.2.2.6 UCMF (UE Radio Capability Management Function)

3.4.2.2.7 5G-EIR (5G Equipment Identity Register)

3.4.2.3 Policy & Charging

3.4.2.3.1 PCF (Policy Control Function)

3.4.2.3.2 CHF (Charging Function)

3.4.2.4 Signaling & Routing

3.4.2.4.1 SCP (Service Communication Proxy)

3.4.2.4.2 SEPP (Security Edge Protection Proxy)

3.4.2.4.3 BSF (Binding Support Function)

3.4.2.5 Network Resource Management

3.4.2.5.1 NEF (Network Exposure Function)

3.4.2.5.2 NRF (Network Repository Function)

3.4.2.5.3 NSSF (Network Slice Selection Function)

3.4.2.5.4 NSSAAF (Network Slice-Specific & SNPN Authentication-Authorization Function)

3.4.2.5.5 NSACF (Network Slice Admission Control Function)

3.4.2.6 Data Analytics & Automation

3.4.2.6.1 NWDAF (Network Data Analytics Function)

3.4.2.6.2 AnLF (Analytics Logical Function)

3.4.2.6.3 MTLF (Model Training Logical Function)

3.4.2.6.4 DCCF (Data Collection Coordination Function)

3.4.2.6.5 ADRF (Analytics Data Repository Function)

3.4.2.6.6 MFAF (Messaging Framework Adaptor Function)

3.4.2.6.7 MDAF (Management Data Analytics Function)

3.4.2.7 Location Services

3.4.2.7.1 LMF (Location Management Function)

3.4.2.7.2 GMLC (Gateway Mobile Location Center)

3.4.2.8 Application Enablement

3.4.2.8.1 AFs (Application Functions)

3.4.2.8.2 SMSF (Short Message Service Function)

3.4.2.8.3 CBCF (Cell Broadcast Center Function)

3.4.2.8.4 5G DDNMF (5G Direct Discovery Name Management Function)

3.4.2.8.5 TSCTSF (Time-Sensitive Communication & Time Synchronization Function)

3.4.2.8.6 TSN AF (Time-Sensitive Networking Application Function)

3.4.2.8.7 EASDF (Edge Application Server Discovery Function)

3.4.2.9 Multicast-Broadcast Support

3.4.2.9.1 MB-SMF (Multicast-Broadcast SMF)

3.4.2.9.2 MB-UPF (Multicast-Broadcast UPF)

3.4.2.9.3 MBSF (Multicast-Broadcast Service Function)

3.4.2.9.4 MBSTF (Multicast-Broadcast Service Transport Function)

3.5 Transport Network

3.5.1 Fronthaul: RU-to-DU Transport

3.5.2 Midhaul: DU-to-CU Transport

3.5.3 Backhaul: RAN-to-Core Transport

3.5.4 Physical Transmission Mediums

3.5.4.1 Fiber & Wireline Transport Technologies

3.5.4.1.1 Owned, Lit & Dark Fiber

3.5.4.1.2 Ethernet & IP-Based Transport

3.5.4.1.3 WDM (Wavelength Division Multiplexing)

3.5.4.1.4 PON (Passive Optical Network)

3.5.4.1.5 OTN (Optical Transport Network)

3.5.4.1.6 DOCSIS, G.fast & Other Technologies

3.5.4.2 Microwave & mmWave (Millimeter Wave) Wireless Links

3.5.4.2.1 Traditional Bands (6 – 42 GHz)

3.5.4.2.2 V-Band (60 GHz)

3.5.4.2.3 E-Band (70/80 GHz)

3.5.4.2.4 W-Band (92 – 114.25 GHz)

3.5.4.2.5 D-Band (130 – 174.8 GHz)

3.5.4.3 Satellite Communications

3.5.4.3.1 GEO (Geostationary Earth Orbit)

3.5.4.3.2 MEO (Medium Earth Orbit)

3.5.4.3.3 LEO (Low Earth Orbit)

3.6 Services & Interconnectivity

3.6.1 End User Application Services

3.6.1.1 Generic Broadband, Messaging & IoT Services

3.6.1.2 IMS Core: VoLTE-VoNR (Voice-Over-LTE/5G NR) & MMTel (Multimedia Telephony)

3.6.1.3 MBMS, eMBMS, FeMBMS & 5G MBS/5MBS (5G Multicast-Broadcast Services)

3.6.1.4 Group Communications & MCS (Mission-Critical Services)

3.6.1.5 IIoT (Industrial IoT), Cyber-Physical Control & Domain-Specific Connected Services

3.6.1.6 ProSe (Proximity-Based Services) for Direct D2D (Device-to-Device) Discovery & Communications

3.6.1.7 Vehicular, Aviation, Maritime & Railway-Related Applications

3.6.1.8 3GPP Service Frameworks for Vertical Industries

3.6.1.8.1 CAPIF (Common API Framework)

3.6.1.8.2 SEAL (Service Enabler Architecture Layer for Verticals)

3.6.1.8.3 EDGEAPP (Architecture for Enabling Edge Applications)

3.6.1.9 VAL (Vertical Application Layer) Enablers

3.6.1.9.1 V2X (Vehicle-to-Everything)

3.6.1.9.2 UAS (Uncrewed Aerial Systems)

3.6.1.9.3 5GMARCH/MSGin5G (Messaging in 5G)

3.6.1.9.4 FF (Factories of the Future)

3.6.1.9.5 PINAPP (Personal IoT Networks), XR (Extended Reality) & Others

3.6.2 Interconnectivity With 3GPP & Non-3GPP Networks

3.6.2.1 3GPP Roaming & Service Continuity

3.6.2.1.1 National & International Roaming

3.6.2.1.2 Service Continuity Outside Network Footprint

3.6.2.2 Non-3GPP Network Integration

3.6.2.2.1 ePDG (Evolved Packet Data Gateway)

3.6.2.2.2 TWAG/TWAP (Trusted WLAN Access Gateway/Proxy)

3.6.2.2.3 ANDSF (Access Network Discovery & Selection Function)

3.6.2.2.4 N3IWF (Non-3GPP Interworking Function)

3.6.2.2.5 TNGF (Trusted Non-3GPP Gateway Function)

3.6.2.2.6 TWIF (Trusted WLAN Interworking Function)

3.6.2.2.7 NSWOF (Non-Seamless WLAN Offload Function)

3.6.2.2.8 W-AGF (Wireline Access Gateway Function)

3.6.2.2.9 IWF (Interworking Function) for LMR (Land Mobile Radio)

3.6.2.2.10 ATSSS (Access Traffic Steering, Switching & Splitting)

3.7 Key Enabling Technologies & Concepts

3.7.1 3GPP Support for NPNs (Non-Public Networks)

3.7.1.1 Types of NPNs

3.7.1.1.1 SNPNs (Standalone NPNs)

3.7.1.1.2 PNI-NPNs (Public Network-Integrated NPNs)

3.7.1.2 SNPN Identification & Selection

3.7.1.3 PNI-NPN Resource Allocation & Isolation

3.7.1.4 CAG (Closed Access Group) for Cell Access Control

3.7.1.5 Mobility, Roaming & Service Continuity

3.7.1.6 Interworking Between SNPNs & Public Networks

3.7.1.7 UE Configuration & Subscription-Related Aspects

3.7.1.8 Other 3GPP-Defined Capabilities for NPNs

3.7.2 Critical Communications

3.7.2.1 MCX (Mission-Critical PTT, Video & Data)

3.7.2.2 QPP (QoS, Priority & Preemption)

3.7.2.3 IOPS (Isolated Operation for Public Safety)

3.7.2.4 Cell Site & Infrastructure Hardening

3.7.2.5 HPUE (High-Power User Equipment)

3.7.2.6 Other UE-Related Functional Enhancements

3.7.3 Industry 4.0 & Cellular IoT

3.7.3.1 URLLC Techniques: High-Reliability & Low-Latency Enablers

3.7.3.2 5G LAN (Local Area Network)-Type Service

3.7.3.3 Integration With IEEE 802.1 TSN (Time-Sensitive Networking) Systems

3.7.3.4 Native 3GPP Framework for TSC (Time-Sensitive Communications)

3.7.3.5 Support for IETF DetNet (Deterministic Networking)

3.7.3.6 5G NR Light: RedCap (Reduced Capability) UE Type

3.7.3.7 eRedCap (Enhanced RedCap) for Low-Tier Use Cases

3.7.3.8 Ambient IoT Technology Supporting Battery-Less Operation

3.7.3.9 eMTC, NB-IoT & mMTC: LTE-Based Wide Area & High-Density IoT Applications

3.7.4 High-Precision Positioning

3.7.4.1 Assisted-GNSS (Global Navigation Satellite System)

3.7.4.2 RAN-Based Positioning Techniques

3.7.4.3 RAN-Independent Methods

3.7.5 Edge Computing

3.7.5.1 Optimizing Latency, Service Performance & Backhaul Costs

3.7.5.2 3GPP-Defined Features for Edge Computing Support

3.7.5.3 Public vs. Private Edge Computing

3.7.6 Network Slicing

3.7.6.1 Logical Partitioning of Network Resources

3.7.6.2 3GPP Functions, Identifiers & Procedures for Slicing

3.7.6.3 RAN Slicing

3.7.6.4 Mobile Core Slicing

3.7.6.5 Transport Network Slicing

3.7.6.6 UE-Based Network Slicing Features

3.7.6.7 Management & Orchestration Aspects

3.7.7 Network Sharing

3.7.7.1 Service-Specific PLMN (Public Land Mobile Network) IDs

3.7.7.2 DNN (Data Network Name)/APN (Access Point Name)-Based Isolation

3.7.7.3 GWCN (Gateway Core Network): Core Network Sharing

3.7.7.4 MOCN (Multi-Operator Core Network): RAN & Spectrum Sharing

3.7.7.5 MORAN (Multi-Operator RAN): RAN Sharing Without Spectrum Pooling

3.7.7.6 DECOR (Dedicated Core) & eDECOR (Enhanced DECOR)

3.7.7.7 Roaming in Non-Overlapping Service Areas

3.7.7.8 Passive Sharing of Infrastructure Resources

3.7.8 E2E (End-to-End) Security

3.7.8.1 UE Authentication Framework

3.7.8.2 Subscriber Privacy

3.7.8.3 Air Interface Confidentiality & Integrity

3.7.8.4 Resilience Against Radio Jamming

3.7.8.5 RAN, Core & Transport Network Security

3.7.8.6 Security Aspects of Network Slicing

3.7.8.7 Application Domain Protection

3.7.8.8 Other Security Considerations

3.7.9 Shared & Unlicensed Spectrum

3.7.9.1 CBRS (Citizens Broadband Radio Service): Three-Tiered Sharing

3.7.9.2 LSA (Licensed Shared Access) & eLSA (Evolved LSA): Two-Tiered Sharing

3.7.9.3 AFC (Automated Frequency Coordination): License-Exempt Sharing

3.7.9.4 Local Area Licensing of Shared Spectrum

3.7.9.5 LTE-U, LAA (Licensed Assisted Access), eLAA (Enhanced LAA) & FeLAA (Further Enhanced LAA)

3.7.9.6 MulteFire: Standalone LTE Operation in Unlicensed Spectrum

3.7.9.7 License-Exempt 1.9 GHz sXGP (Shared Extended Global Platform)

3.7.9.8 5G NR-U (NR in Unlicensed Spectrum)

3.7.10 Rapidly Deployable LTE & 5G Network Systems

3.7.10.1 NIB (Network-in-a-Box) Systems

3.7.10.2 Vehicular COWs (Cells-on-Wheels)

3.7.10.3 Aerial Cell Sites

3.7.10.4 Maritime Cellular Platforms

3.7.11 Direct Communications & Coverage Expansion

3.7.11.1 Sidelink for Direct Mode D2D Communications

3.7.11.2 UE-to-Network & UE-to-UE Relays

3.7.11.3 Indoor & Outdoor Small Cells

3.7.11.4 DAS (Distributed Antenna Systems)

3.7.11.5 IAB (Integrated Access & Backhaul)

3.7.11.6 Mobile IAB: VMRs (Vehicle-Mounted Relays)

3.7.11.7 MWAB (Mobile gNB With Wireless Access Backhauling)

3.7.11.8 NCRs (Network-Controlled Repeaters)

3.7.11.9 NTNs (Non-Terrestrial Networks)

3.7.11.10 ATG/A2G (Air-to-Ground) Connectivity

3.7.12 Cloud-Native, Software-Driven & Open Networking

3.7.12.1 Cloud-Native Technologies

3.7.12.2 Microservices & SBA (Service-Based Architecture)

3.7.12.3 Containerization of Network Functions

3.7.12.4 NFV (Network Functions Virtualization)

3.7.12.5 SDN (Software-Defined Networking)

3.7.12.6 Cloud Compute, Storage & Networking Infrastructure

3.7.12.7 APIs (Application Programming Interfaces)

3.7.12.8 Open RAN & Core Architectures

3.7.13 Network Intelligence & Automation

3.7.13.1 AI (Artificial Intelligence)

3.7.13.2 Machine & Deep Learning

3.7.13.3 Big Data & Advanced Analytics

3.7.13.4 SON (Self-Organizing Networks)

3.7.13.5 Intelligent Control, Management & Orchestration

3.7.13.6 Support for Network Intelligence & Automation in 3GPP Standards

4 Chapter 4: Key Vertical Industries & Applications

4.1 Cross-Sector & Enterprise Application Capabilities

4.1.1 Mobile Broadband

4.1.2 FWA (Fixed Wireless Access)

4.1.3 Voice & Messaging Services

4.1.4 High-Definition Video Transmission

4.1.5 Telepresence & Video Conferencing

4.1.6 Multimedia Broadcasting & Multicasting

4.1.7 IoT (Internet of Things) Networking

4.1.8 Wireless Connectivity for Wearables

4.1.9 Untethered AR/VR/MR (Augmented, Virtual & Mixed Reality)

4.1.10 Real-Time Holographic Projections

4.1.11 Tactile Internet & Haptic Feedback

4.1.12 Precise Positioning & Tracking

4.1.13 Industrial Automation

4.1.14 Remote Control of Machines

4.1.15 Connected Mobile Robotics

4.1.16 Unmanned & Autonomous Vehicles

4.1.17 BVLOS (Beyond Visual Line-of-Sight) Operation of Drones

4.1.18 Data-Driven Analytics & Insights

4.1.19 Sensor-Equipped Digital Twins

4.1.20 Predictive Maintenance of Assets

4.2 Vertical Industries & Specific Application Scenarios

4.2.1 Agriculture

4.2.1.1 Intelligent Monitoring of Crop, Soil & Weather Conditions

4.2.1.2 IoT & Advanced Analytics-Driven Yield Optimization

4.2.1.3 Sensor-Based Smart Irrigation Control Systems

4.2.1.4 Real-Time Tracking & Geofencing in Farms

4.2.1.5 Livestock & Aquaculture Health Management

4.2.1.6 Video-Based Remote Veterinary Inspections

4.2.1.7 Unmanned Autonomous Tractors & Farm Vehicles

4.2.1.8 Robots for Planting, Weeding & Harvesting

4.2.1.9 5G-Equipped Agricultural Drones

4.2.1.10 Connected Greenhouses & Vertical Farms

4.2.2 Aviation

4.2.2.1 Inflight Connectivity for Passengers & Cabin Crew

4.2.2.2 Connected Airports for Enhanced Traveler & Visitor Experience

4.2.2.3 Coordination of Ground Support Equipment, Vehicles & Personnel

4.2.2.4 ATM (Air Traffic Management) for Drones & Urban Air Mobility Vehicles

4.2.2.5 Wireless Upload of EFB (Electronic Flight Bag) & IFE (In-Flight Entertainment) Updates

4.2.2.6 Aircraft Data Offload for Operational & Maintenance Purposes

4.2.2.7 Video Surveillance of Airport Surface & Terminal Areas

4.2.2.8 5G-Enabled Remote Inspection & Repair of Aircraft

4.2.2.9 Navigation, Weather & Other IoT Sensors

4.2.2.10 Smart Baggage Handling

4.2.2.11 Asset Awareness & Tracking

4.2.2.12 Passenger Flow & Resource Management

4.2.2.13 Automation of Check-In & Boarding Procedures

4.2.2.14 Intelligent Airport Service Robots

4.2.3 Broadcasting

4.2.3.1 3GPP-Based PMSE (Program Making & Special Events)

4.2.3.2 Live AV (Audio-Visual) Media Production Using NPNs

4.2.3.3 Private 5G-Enabled Production in Remote Locations

4.2.3.4 Network Slicing for Contribution Feeds

4.2.3.5 Wire-Free Cameras & Microphones

4.2.3.6 Multicast & Broadcast Content Distribution

4.2.4 Construction

4.2.4.1 Wireless Connectivity for Construction Sites & Field Offices

4.2.4.2 Instantaneous Access to Business-Critical Applications

4.2.4.3 5G-Based Remote Control of Heavy Machinery

4.2.4.4 Autonomous Mobile Robots for Construction

4.2.4.5 IoT Sensor-Driven Maintenance of Equipment

4.2.4.6 Video Surveillance & Analytics for Site Security

4.2.4.7 Real-Time Visibility of Personnel, Assets & Materials

4.2.4.8 Aerial Surveying & Monitoring of Construction Sites

4.2.5 Education

4.2.5.1 Remote & Distance Learning Services

4.2.5.2 Mobile Access to Academic Resources

4.2.5.3 5G-Connected Smart Classrooms

4.2.5.4 Automation of Administrative Tasks

4.2.5.5 Personalized & Engaging Learning

4.2.5.6 AR/VR-Based Immersive Lessons

4.2.5.7 5G-Enabled Virtual Field Trips

4.2.5.8 Educational Telepresence Robots

4.2.6 Forestry

4.2.6.1 Wireless Connectivity for Forestry Operations & Recreation

4.2.6.2 5G-Facilitated Teleoperation of Forestry Equipment

4.2.6.3 Autonomous Harvesting & Milling Machinery

4.2.6.4 Real-Time Tracking of Equipment, Vehicles & Personnel

4.2.6.5 Cellular IoT Sensors for Biological & Environmental Monitoring

4.2.6.6 Wireless Cameras for Wildlife Observation, Conservation & Security

4.2.6.7 Early Wildfire Detection & Containment Systems

4.2.6.8 Drones for Search & Rescue Operations

4.2.7 Healthcare

4.2.7.1 5G-Connected Smart Hospitals & Healthcare Facilities

4.2.7.2 Wireless Transmission of Medical Imagery & Rich Datasets

4.2.7.3 Real-Time Monitoring of Patients in Acute & Intensive Care

4.2.7.4 Telehealth Video Consultations for Visual Assessment

4.2.7.5 Connectivity for AI-Based Healthcare Applications

4.2.7.6 AR Systems for Complex Medical Procedures

4.2.7.7 Remote-Controlled Surgery & Examination

4.2.7.8 Assisted Living & Rehabilitation Robotics

4.2.7.9 Immersive VR-Based Medical & Surgical Training

4.2.7.10 Connected Ambulances for EMS (Emergency Medical Services)

4.2.8 Manufacturing

4.2.8.1 Untethered Connectivity for Production & Process Automation

4.2.8.2 Wireless Motion Control & C2C (Control-to-Control) Communications

4.2.8.3 Cellular-Equipped Mobile Control Panels

4.2.8.4 Mobile Robots & AGVs (Automated Guided Vehicles)

4.2.8.5 Autonomous Forklifts & Warehouse Robotics

4.2.8.6 AR-Facilitated Factory Floor Operations

4.2.8.7 Machine Vision-Based Quality Inspection

4.2.8.8 Closed-Loop Process Control

4.2.8.9 Process & Environmental Monitoring

4.2.8.10 Precise Indoor Positioning for Asset Management

4.2.8.11 Remote Access & Maintenance of Equipment

4.2.9 Military

4.2.9.1 5G-Based Tactical Battlefield Communications

4.2.9.2 Smart Military Bases & Command Posts

4.2.9.3 ISR (Intelligence, Surveillance & Reconnaissance)

4.2.9.4 Command & Control of Weapon Systems

4.2.9.5 Remote Operation of Robotics & Unmanned Assets

4.2.9.6 AR HUD (Heads-Up Display) Systems

4.2.9.7 Wireless VR/MR-Based Military Training

4.2.9.8 Perimeter Security & Force Protection

4.2.10 Mining

4.2.10.1 Safety-Critical Communications in Remote Mining Environments

4.2.10.2 Wireless Control of Drilling, Excavation & Related Equipment

4.2.10.3 Automated Loading, Haulage & Train Operations

4.2.10.4 Video-Based Monitoring of Personnel & Assets

4.2.10.5 Underground Positioning & Geofencing

4.2.10.6 Smart Ventilation & Water Management

4.2.10.7 Real-Time Operational Intelligence

4.2.10.8 AR & VR for Mining Operations

4.2.11 Oil & Gas

4.2.11.1 Wireless Connectivity for Remote Exploration & Production Sites

4.2.11.2 Critical Voice & Data-Based Mobile Workforce Communications

4.2.11.3 Push-to-Video & Telepresence Conferencing for Field Operations

4.2.11.4 Cellular-Equipped Surveillance Cameras for Situational Awareness

4.2.11.5 IoT Sensor-Enabled Remote Monitoring & Automation of Processes

4.2.11.6 SCADA (Supervisory Control & Data Acquisition) Communications

4.2.11.7 Location Services for Worker Safety & Asset Tracking

4.2.11.8 AR Smart Helmets for Hands-Free Remote Assistance

4.2.11.9 Predictive Maintenance of Oil & Gas Facilities

4.2.11.10 Mobile Robots for Safety Hazard Inspections

4.2.12 Ports & Maritime Transport

4.2.12.1 Critical Communications for Port Workers

4.2.12.2 Automation of Port & Terminal Operations

4.2.12.3 5G-Connected AGVs for Container Transport

4.2.12.4 Remote-Controlled Cranes & Terminal Tractors

4.2.12.5 Video Analytics for Operational Purposes

4.2.12.6 Environmental & Condition Monitoring

4.2.12.7 Port Traffic Management & Control

4.2.12.8 AR & VR Applications for Port Digitization

4.2.12.9 Unmanned Aerial Inspections of Port Facilities

4.2.12.10 Private Cellular-Enabled Maritime Communications

4.2.12.11 Wireless Ship-to-Shore Connectivity in Nearshore Waters

4.2.12.12 5G-Facilitated Remote Steering of Unmanned Vessels

4.2.13 Public Safety

4.2.13.1 Mission-Critical PTT Voice Communications

4.2.13.2 Real-Time Video & High-Resolution Imagery

4.2.13.3 Messaging, File Transfer & Presence Services

4.2.13.4 Secure & Seamless Mobile Broadband Access

4.2.13.5 Location-Based Services & Enhanced Mapping

4.2.13.6 Multimedia CAD (Computer-Aided Dispatch)

4.2.13.7 Massive-Scale Video Surveillance & Analytics

4.2.13.8 Smart Glasses & AR Headgear for First Responders

4.2.13.9 5G-Equipped Police, Firefighting & Rescue Robots

4.2.13.10 5G MBS/5MBS in High-Density Environments

4.2.13.11 Sidelink-Based Direct Mode Communications

4.2.14 Railways

4.2.14.1 FRMCS (Future Railway Mobile Communication System)

4.2.14.2 Train-to-Ground & Train-to-Train Connectivity

4.2.14.3 Wireless Intra-Train Communications

4.2.14.4 Rail Operations-Critical Voice, Data & Video Services

4.2.14.5 ATO (Automatic Train Operation) & Traffic Management

4.2.14.6 Video Surveillance for Operational Safety & Security

4.2.14.7 Smart Maintenance of Railway Infrastructure

4.2.14.8 Intelligent Management of Logistics Facilities

4.2.14.9 Onboard Broadband Internet Access

4.2.14.10 PIS (Passenger Information Systems)

4.2.14.11 Smart Rail & Metro Station Services

4.2.15 Utilities

4.2.15.1 Multi-Service FANs (Field Area Networks)

4.2.15.2 Critical Applications for Field Workforce Communications

4.2.15.3 AMI (Advanced Metering Infrastructure)

4.2.15.4 DA (Distribution Automation) Systems

4.2.15.5 Microgrid & DER (Distributed Energy Resource) Integration

4.2.15.6 5G-Enabled VPPs (Virtual Power Plants)

4.2.15.7 Low-Latency SCADA Applications for Utilities

4.2.15.8 Teleprotection of Transmission & Distribution Grids

4.2.15.9 Video Monitoring for Critical Infrastructure Protection

4.2.15.10 Sensor-Based Detection of Water & Gas Leaks

4.2.15.11 AR Information Overlays for Repairs & Maintenance

4.2.15.12 Drone & Robot-Assisted Inspections of Utility Assets

4.2.15.13 Local Wireless Connectivity for Remote & Offshore Facilities

4.2.16 Warehousing & Other Verticals

5 Chapter 5: Spectrum Availability, Allocation & Usage

5.1 National & Local Area Licensed Spectrum

5.1.1 Low-Band (Sub-1 GHz)

5.1.1.1 200 – 400 MHz

5.1.1.2 410 & 450 MHz

5.1.1.3 600 MHz

5.1.1.4 700 MHz

5.1.1.5 800 MHz

5.1.1.6 900 MHz

5.1.2 Mid-Band (1 – 6 GHz)

5.1.2.1 1.4 GHz

5.1.2.2 1.6 GHz

5.1.2.3 1.7 GHz

5.1.2.4 1.8 GHz

5.1.2.5 1.9 GHz

5.1.2.6 2.1 GHz

5.1.2.7 2.3 GHz

5.1.2.8 2.4 GHz

5.1.2.9 2.5 GHz

5.1.2.10 2.6 GHz

5.1.2.11 3.4 GHz

5.1.2.12 3.5 GHz CBRS PAL Tier

5.1.2.13 3.7 – 3.8 GHz

5.1.2.14 3.8 – 4.2 GHz

5.1.2.15 4.6 – 4.9 GHz

5.1.2.16 Other Bands

5.1.3 Upper Mid-Band (7 – 24 GHz)

5.1.3.1 7 GHz

5.1.3.2 10 – 14 GHz

5.1.3.3 17 – 20 GHz

5.1.3.4 Other Bands

5.1.4 High-Band mmWave (Millimeter Wave)

5.1.4.1 26 GHz

5.1.4.2 28 GHz

5.1.4.3 37 GHz

5.1.4.4 Other Bands

5.2 License-Exempt (Unlicensed) Spectrum

5.2.1 Sub-1 GHz Bands (470 – 790/800/900 MHz)

5.2.2 1.8 GHz DECT Guard Band

5.2.3 1.9 GHz sXGP Band

5.2.4 2.4 GHz (2,400 – 2,483.5 MHz)

5.2.5 3.5 GHz CBRS GAA Tier

5.2.6 5 GHz (5,150 – 5,925 MHz)

5.2.7 6 GHz (5,925 – 7,125 MHz)

5.2.8 60 GHz (57 – 71 GHz)

5.2.9 Other Bands

5.3 North America

5.3.1 United States

5.3.2 Canada

5.4 Asia Pacific

5.4.1 Australia

5.4.2 New Zealand

5.4.3 China

5.4.4 Hong Kong

5.4.5 Taiwan

5.4.6 Japan

5.4.7 South Korea

5.4.8 Singapore

5.4.9 Malaysia

5.4.10 Indonesia

5.4.11 Philippines

5.4.12 Thailand

5.4.13 Vietnam

5.4.14 Laos

5.4.15 Myanmar

5.4.16 India

5.4.17 Pakistan

5.4.18 Bangladesh

5.4.19 Sri Lanka

5.4.20 Rest of Asia Pacific

5.5 Europe

5.5.1 United Kingdom

5.5.1.1 Great Britain

5.5.1.2 Northern Ireland

5.5.2 Republic of Ireland

5.5.3 France

5.5.4 Germany

5.5.5 Belgium

5.5.6 Netherlands

5.5.7 Switzerland

5.5.8 Austria

5.5.9 Italy

5.5.10 Spain

5.5.11 Portugal

5.5.12 Sweden

5.5.13 Norway

5.5.14 Denmark

5.5.15 Finland

5.5.16 Estonia

5.5.17 Latvia

5.5.18 Lithuania

5.5.19 Czech Republic

5.5.20 Poland

5.5.21 Hungary

5.5.22 Slovenia

5.5.23 Croatia

5.5.24 Türkiye

5.5.25 Cyprus

5.5.26 Greece

5.5.27 Bulgaria

5.5.28 Romania

5.5.29 Moldova

5.5.30 Ukraine

5.5.31 Belarus

5.5.32 Russia

5.5.33 Rest of Europe

5.6 Middle East & Africa

5.6.1 Saudi Arabia

5.6.2 United Arab Emirates

5.6.3 Qatar

5.6.4 Oman

5.6.5 Bahrain

5.6.6 Kuwait

5.6.7 Iraq

5.6.8 Jordan

5.6.9 Israel

5.6.10 Egypt

5.6.11 Algeria

5.6.12 Morocco

5.6.13 Tunisia

5.6.14 South Africa

5.6.15 Botswana

5.6.16 Zambia

5.6.17 Angola

5.6.18 Kenya

5.6.19 Ethiopia

5.6.20 Angola

5.6.21 Republic of the Congo

5.6.22 Gabon

5.6.23 Nigeria

5.6.24 Uganda

5.6.25 Ghana

5.6.26 Senegal

5.6.27 Rest of the Middle East & Africa

5.7 Latin & Central America

5.7.1 Brazil

5.7.2 Mexico

5.7.3 Argentina

5.7.4 Colombia

5.7.5 Chile

5.7.6 Peru

5.7.7 Ecuador

5.7.8 Bolivia

5.7.9 Dominican Republic

5.7.10 Bardados

5.7.11 Trinidad & Tobago

5.7.12 Suriname

5.7.13 Rest of Latin & Central America

6 Chapter 6: Standardization, Regulatory & Collaborative Initiatives

6.1 3GPP (Third Generation Partnership Project)

6.1.1 Releases 11-14: 3GPP-Based Critical Communications Features

6.1.2 Release 15: 5G eMBB, Network Slicing, Improvements for MTC/IoT & MCX Extensions

6.1.3 Release 16: 3GPP Support for NPNs, 5G URLLC, TSN, NR-U & Vertical Application Enablers

6.1.4 Release 17: NPN Enhancements, Edge Computing, TSC, Expansion of IIoT Features, RedCap & NTN Connectivity

6.1.5 Release 18: 5G-Advanced, Further NPN Refinements, DetNet, Intelligent Automation, Spectrum Flexibility & eRedCap

6.1.6 Release 19 & Beyond: 5G NR Femto Architecture, MWAB, IOPS Over 5G, ProSe in NPNs, Ambient IoT & Regenerative NTN

6.2 450 MHz Alliance

6.2.1 Promoting 3GPP Technologies in the 380 – 470 MHz Frequency Range

6.3 5G-ACIA (5G Alliance for Connected Industries and Automation)

6.3.1 Maximizing the Applicability of 5G Technology in the Industrial Domain

6.4 5GAIA (5G Applications Industry Array)

6.4.1 Advancing the Development of China's 5G Applications Industry

6.5 5G Campus Network Alliance

6.5.1 Supporting the Market Development of 5G Campus Networks in Germany

6.6 5GDNA (5G Deterministic Networking Alliance)

6.6.1 Industry Collaboration & Promotion of 5GDN (5G Deterministic Networking)

6.7 5GFF (5G Future Forum)

6.7.1 Accelerating the Delivery of 5G MEC (Multi-Access Edge Computing) Solutions

6.8 5G Forum (South Korea)

6.8.1 Expanding Convergence Between 5G Technology & Vertical Industries

6.9 5G Health Association

6.9.1 Interfacing 5G-Based Connectivity & Healthcare Applications

6.10 5G-MAG (5G Media Action Group)

6.10.1 5G-Based NPNs in Media Production

6.11 5GMF (Fifth Generation Mobile Communication Promotion Forum, Japan)

6.11.1 Initiatives Related to Local 5G Networks in Japan

6.12 5G-OT Alliance

6.12.1 Accelerating Private LTE/5G Adoption in OT (Operational Technology) Environments

6.13 5GSA (5G Slicing Association)

6.13.1 Addressing Vertical Industry Requirements for 5G Network Slicing

6.14 6G-IA (6G Smart Networks and Services Industry Association)

6.14.1 Private 5G-Related Projects & Activities

6.15 AGURRE (Association of Major Users of Operational Radio Networks, France)

6.15.1 Spectrum Access, Regulatory Framework & Industrial Ecosystem for Private Mobile Networks

6.16 APCO (Association of Public-Safety Communications Officials) International

6.16.1 Public Safety LTE/5G-Related Advocacy Efforts

6.17 ATIS (Alliance for Telecommunications Industry Solutions)

6.17.1 Deployment & Operational Requirements of 5G-Based NPNs

6.17.2 Shared HNI & IBN Administration for CBRS Spectrum

6.17.3 Other Private LTE & 5G-Related Initiatives

6.18 BEREC (Body of European Regulators for Electronic Communications)

6.18.1 Private 5G-Related Consultations & Analysis for European NRAs (National Regulatory Authorities)

6.19 BTG (Dutch Association of Large-Scale ICT & Telecommunications Users)

6.19.1 KMBG (Dutch Critical Mobile Broadband Users) Expert Group

6.20 B-TrunC (Broadband Trunking Communication) Industry Alliance

6.20.1 B-TrunC Standard for LTE-Based Critical Communications

6.21 CAMET (China Association of Metros)

6.21.1 Adoption of 3GPP Networks for Urban Rail Transit Systems

6.21.2 LTE-M (LTE Metro Communications System) Standard

6.21.3 Public-Private 5G Network Series of Specifications

6.22 CEPT (European Conference of Postal and Telecommunications Administrations)

6.22.1 Common Spectrum Policies for Local 4G/5G, PPDR Broadband & FRMCS

6.23 DSA (Dynamic Spectrum Alliance)

6.23.1 Promoting Unlicensed & Dynamic Access to Spectrum

6.24 Electricity Canada (Canadian Electricity Association)

6.24.1 PVNO & Dedicated Spectrum for Smart Grid Communications

6.25 ENTELEC (Energy Telecommunications and Electrical Association)

6.25.1 Policy Advocacy & Other Private LTE/5G-Related Activities

6.26 EPRI (Electric Power Research Institute)

6.26.1 Research & Guidelines in Support of 3GPP-Based Utility Communications

6.27 ERA (European Union Agency for Railways)

6.27.1 Evolution of Railway Radio Communication Project

6.28 ETSI (European Telecommunications Standards Institute)

6.28.1 Technical Specifications for FRMCS, PPDR Broadband, MCX & TETRA-3GPP Interworking

6.28.2 Other Work Relevant to Private LTE & 5G Networks

6.29 EU-Rail (Europe’s Rail Joint Undertaking)

6.29.1 FRMCS-Related Research & Innovation Activities

6.30 EUTC (European Utilities Telecom Council)

6.30.1 Addressing LTE & 5G-Related Requirements for European Utilities

6.31 EUWENA (European Users of Enterprise Wireless Networks Association)

6.31.1 Catalyzing the Wider Adoption of 3GPP-Based Private Networks

6.32 EWA (Enterprise Wireless Alliance)

6.32.1 Supporting the Private Wireless Industry in the United States

6.33 free5GC

6.33.1 Open-Source 5GC Software

6.34 GSA (Global Mobile Suppliers Association)

6.34.1 Advocacy for Private Mobile Networks

6.35 GSMA (GSM Association)

6.35.1 Guidelines for 5G Private & Dedicated Networks

6.36 GUTMA (Global UTM Association)

6.36.1 ACJA (Aerial Connectivity Joint Activity) Initiative

6.37 ITU (International Telecommunication Union)

6.37.1 International & Regional Harmonization of LTE/5G Spectrum

6.37.2 Defining the Role of IMT-2020 to Support Vertical Applications

6.38 JOTS (Joint Operators Technical Specification) Forum

6.38.1 NHIB (Neutral Host In-Building) Specification

6.39 JRC (Joint Radio Company)

6.39.1 Supporting LTE/5G-Based Smart Grid Initiatives

6.40 KRRI (Korea Railroad Research Institute)

6.40.1 Functional Testing & Certification of LTE-R (LTE-Based Railway Communications)

6.41 LF (Linux Foundation)

6.41.1 Magma Mobile Core Software Platform

6.41.2 LF Networking's 5G Super Blueprint

6.41.3 LF Edge's Akraino Private LTE/5G ICN (Integrated Cloud-Native) Blueprint

6.41.4 Other Projects Relevant to Private LTE & 5G Networks

6.42 MFA (Alliance for Private Networks)

6.42.1 Uni5G Technology Blueprints for Private 5G Networks

6.42.2 Network Identifier Program Supporting Private & Neutral Host Networks

6.42.3 MulteFire Specifications: LTE Operation in Unlicensed Spectrum

6.42.4 Certification Program for MulteFire Equipment

6.42.5 MulteFire OSU (Online Sign-Up) System

6.43 MSSA (Mobile Satellite Services Association)

6.43.1 Advancing the Global Direct-to-Device NTN Ecosystem

6.44 NGA (Next G Alliance)

6.44.1 Building the Foundation for North American Leadership in 6G

6.45 NGMN (Next-Generation Mobile Networks) Alliance

6.45.1 Work Related to Private 5G & Network Slicing

6.46 NSC (National Spectrum Consortium)

6.46.1 Enhancing Spectrum Superiority & 5G Capabilities for Federal Users

6.47 OCP (Open Compute Project) Foundation

6.47.1 Initiatives Aimed at Open Designs for Telco Hardware

6.48 one6G Association

6.48.1 Driving 6G Innovation & Development Across Vertical Industries

6.49 ONF (Open Networking Foundation)

6.49.1 Aether Private 5G Connected Edge Platform

6.49.2 SD-RAN, SD-Core, OMEC & Other Relevant Projects

6.50 OnGo Alliance

6.50.1 Promoting 4G & 5G OnGo Wireless Network Technology

6.50.2 Technical Specifications & Guidelines for 4G/5G-Based CBRS Networks

6.50.3 Product Certification Program Supporting Multi-Vendor Interoperability

6.51 OPC Foundation

6.51.1 OPC UA (Unified Architecture) Over 5G for Industry 4.0 Applications

6.52 Open RAN Policy Coalition

6.52.1 Promoting Policies to Drive the Adoption of Open RAN

6.53 Open5GCore

6.53.1 Vendor-Independent 5GC Implementation

6.54 Open5GS & NextEPC

6.54.1 Open-Source 5GC & EPC Software

6.55 OpenInfra (Open Infrastructure) Foundation

6.55.1 StarlingX Software Stack for Ultra-Low Latency Edge Applications

6.55.2 OpenStack Cloud Software & Other Projects

6.56 O-RAN Alliance

6.56.1 O-RAN Architecture Specifications

6.56.2 O-RAN SC (Software Community)

6.56.3 Testing & Integration Support

6.57 OSA (OpenAirInterface Software Alliance)

6.57.1 OAI (OpenAirInterface) 5G RAN, Core & MOSAIC5G Projects

6.58 PIA (PSBN Innovation Alliance)

6.58.1 PSBN (Public Safety Broadband Network) Governance in Canada's Ontario Province

6.59 PMeV (German Professional Mobile Radio Association)

6.59.1 Professional Broadband & 5G Campus Network-Related Activities

6.60 PSBTA (Public Safety Broadband Technology Association)

6.60.1 Public Safety LTE/5G-Related Activities

6.61 PSCE (Public Safety Communication Europe)

6.61.1 Public Safety Broadband-Related Standardization Activities

6.61.2 BroadX Projects: Pan-European Interoperable Mobile Broadband System for Public Safety

6.62 Safe-Net Forum

6.62.1 Technical & Policy Guidance for 3GPP-Based Critical Communications Networks

6.63 SCF (Small Cell Forum)

6.63.1 Reference Blueprints for Private 5G Networks

6.63.2 Neutral Hosting, Edge Computing & Other Relevant Work

6.64 Seamless Air Alliance

6.64.1 Leading Global Standards for Inflight Connectivity

6.65 SimpleRAN

6.65.1 Ensuring Interoperability & Transparency in the vRAN (Virtualized RAN) Ecosystem

6.66 srsRAN Project

6.66.1 Open-Source 4G & 5G Software Suites

6.67 TCA (Trusted Connectivity Alliance)

6.67.1 5G SIM/eSIM Recommendations for Private Networks

6.68 TCCA (The Critical Communications Association)

6.68.1 BIG (Broadband Industry Group)

6.68.2 CCBG (Critical Communications Broadband Group)

6.68.3 IWF Working Group

6.68.4 SCADA, Smart Grid & IoT Group

6.68.5 Future Technologies Group

6.69 techUK

6.69.1 SPF (Spectrum Policy Forum)

6.70 TIA (Telecommunications Industry Association)

6.70.1 Defining Requirements for LMR-3GPP Interworking & Critical Broadband Capabilities

6.71 TIP (Telecom Infra Project)

6.71.1 5G Private Networks Solution Group

6.71.2 NHIS (Neutral Host & Infra Sharing) Project Group

6.71.3 Neutral Host NaaS Solution Group

6.71.4 OpenRAN & Open Core Network Groups

6.71.5 Other Relevant Product & Solution Groups

6.72 TIWA (The In-Building Wireless Association)

6.72.1 Bridging Commercial Real Estate Development With Wireless Technology

6.73 TTA (Telecommunications Technology Association, South Korea)

6.73.1 Standardization Efforts for 3GPP-Based Public Safety, Railway & Maritime Communications

6.74 U.S. NIST (National Institute of Standards and Technology)

6.74.1 Public Safety Broadband & 5G-Related R&D Initiatives

6.75 U.S. NPSTC (National Public Safety Telecommunications Council)

6.75.1 Leadership for LMR-3GPP Interworking & Public Safety Broadband Communications

6.76 U.S. NTIA (National Telecommunications and Information Administration)

6.76.1 Wireless Innovation & Supply Chain Security

6.77 UBBA (Utility Broadband Alliance)

6.77.1 Championing the Advancement of Private Broadband Networks for Utilities

6.78 UIC (International Union of Railways)

6.78.1 FRMCS Program for the Replacement of GSM-R Networks

6.79 UK5G Innovation Network

6.79.1 Promoting Private 5G Adoption Projects, Testbeds & Trials

6.80 UNIFE (The European Rail Supply Industry Association)

6.80.1 UNITEL Committee: Development & Implementation of FRMCS

6.81 UTC (Utilities Technology Council)

6.81.1 Private LTE & 5G-Related Advocacy, Technology Development & Policy Efforts

6.82 UTCAL (Utilities Telecom & Technology Council América Latina)

6.82.1 Promoting Private LTE & 5G Networks for Latin American Utilities

6.83 VDMA (German Mechanical and Plant Engineering Association)

6.83.1 Guidelines for 5G in Mechanical & Plant Engineering

6.84 WBA (Wireless Broadband Alliance)

6.84.1 5G & Wi-Fi Convergence in Private 5G Networks

6.84.2 OpenRoaming for Private LTE/5G

6.85 WhiteSpace Alliance

6.85.1 Promoting the Use of 3GPP, IEEE & IETF Standards for TVWS Spectrum

6.86 WInnForum (Wireless Innovation Forum)

6.86.1 CBRS Standards for the Implementation of FCC Rulemaking

6.86.2 6 GHz Unlicensed Sharing & Other Committees

6.87 XGP (eXtended Global Platform) Forum

6.87.1 Development & Promotion of the sXGP Unlicensed LTE Service

6.88 Others

6.88.1 Vendor-Led Private LTE/5G Alliances

6.88.2 National Government Agencies & Regulators

6.88.3 Regional & Country-Specific Associations

6.88.4 Global Industry Initiatives & Organizations

7 Chapter 7: Review of Private LTE/5G Installations Worldwide

7.1 North America

7.1.1 United States

7.1.2 Canada

7.2 Asia Pacific

7.2.1 Australia

7.2.2 New Zealand

7.2.3 China

7.2.4 Hong Kong

7.2.5 Taiwan

7.2.6 Japan

7.2.7 South Korea

7.2.8 Singapore

7.2.9 Malaysia

7.2.10 Indonesia

7.2.11 Papua New Guinea

7.2.12 Philippines

7.2.13 Thailand

7.2.14 Vietnam

7.2.15 Laos

7.2.16 Myanmar

7.2.17 India

7.2.18 Pakistan

7.2.19 Sri Lanka

7.2.20 Bangladesh

7.2.21 Rest of Asia Pacific

7.3 Europe

7.3.1 United Kingdom

7.3.2 Republic of Ireland

7.3.3 France

7.3.4 Germany

7.3.5 Belgium

7.3.6 Luxembourg

7.3.7 Netherlands

7.3.8 Switzerland

7.3.9 Austria

7.3.10 Italy

7.3.11 Spain

7.3.12 Portugal

7.3.13 Sweden

7.3.14 Norway

7.3.15 Denmark

7.3.16 Finland

7.3.17 Estonia

7.3.18 Latvia

7.3.19 Lithuania

7.3.20 Czech Republic

7.3.21 Poland

7.3.22 Hungary

7.3.23 Slovakia

7.3.24 Slovenia

7.3.25 Croatia

7.3.26 Türkiye

7.3.27 Cyprus

7.3.28 Greece

7.3.29 Bulgaria

7.3.30 Romania

7.3.31 Serbia

7.3.32 Kosovo

7.3.33 Moldova

7.3.34 Ukraine

7.3.35 Belarus

7.3.36 Russia

7.3.37 Rest of Europe

7.4 Middle East & Africa

7.4.1 Saudi Arabia

7.4.2 United Arab Emirates

7.4.3 Qatar

7.4.4 Oman

7.4.5 Bahrain

7.4.6 Kuwait

7.4.7 Iraq

7.4.8 Jordan

7.4.9 Lebanon

7.4.10 Israel

7.4.11 Egypt

7.4.12 Algeria

7.4.13 Morocco

7.4.14 Tunisia

7.4.15 South Africa

7.4.16 Botswana

7.4.17 Zimbabwe

7.4.18 Zambia

7.4.19 Mozambique

7.4.20 Kenya

7.4.21 Ethiopia

7.4.22 Somalia

7.4.23 Madagascar

7.4.24 Mauritius

7.4.25 Seychelles

7.4.26 Angola

7.4.27 Republic of the Congo

7.4.28 Gabon

7.4.29 Central African Republic

7.4.30 Cameroon

7.4.31 Nigeria

7.4.32 Uganda

7.4.33 Ghana

7.4.34 Côte d'Ivoire

7.4.35 Mali

7.4.36 Senegal

7.4.37 Rest of the Middle East & Africa

7.5 Latin & Central America

7.5.1 Brazil

7.5.2 Mexico

7.5.3 Argentina

7.5.4 Uruguay

7.5.5 Colombia

7.5.6 Chile

7.5.7 Peru

7.5.8 Venezuela

7.5.9 Ecuador

7.5.10 Bolivia

7.5.11 Dominican Republic

7.5.12 Jamaica

7.5.13 Barbados

7.5.14 Trinidad & Tobago

7.5.15 Dutch Caribbean

7.5.16 Guyana

7.5.17 Suriname

7.5.18 Rest of Latin & Central America

8 Chapter 8: Private LTE/5G Case Studies

8.1 450connect: Nationwide 450 MHz LTE Network for the Digitization of German Energy & Water Utilities

8.1.1 Operational Model

8.1.2 Spectrum Type

8.1.3 Integrators & Suppliers

8.1.4 Deployment Summary

8.2 ABP (Associated British Ports): Shared Access License-Enabled Private 5G Network for Port of Southampton

8.2.1 Operational Model

8.2.2 Spectrum Type

8.2.3 Integrators & Suppliers

8.2.4 Deployment Summary

8.3 ADF (Australian Defence Force): Revamping Military Training Facilities With Private Cellular Networks

8.3.1 Operational Model

8.3.2 Spectrum Type

8.3.3 Integrators & Suppliers

8.3.4 Deployment Summary

8.4 Adif (Spanish Railway Infrastructure Administrator): Private 5G Infrastructure for Strategic Logistics Terminals

8.4.1 Operational Model

8.4.2 Spectrum Type

8.4.3 Integrators & Suppliers

8.4.4 Deployment Summary

8.5 ADNOC (Abu Dhabi National Oil Company): Private 5G Network for Remote Onshore & Offshore Connectivity

8.5.1 Operational Model

8.5.2 Spectrum Type

8.5.3 Integrators & Suppliers

8.5.4 Deployment Summary

8.6 Agnico Eagle Mines: Streamlining Mining Operations With Industrial-Grade Private 4G/5G Networks

8.6.1 Operational Model

8.6.2 Spectrum Type

8.6.3 Integrators & Suppliers

8.6.4 Deployment Summary

8.7 Airbus: Multi-Campus Private 5G Network for Global Aircraft Manufacturing Facilities

8.7.1 Operational Model

8.7.2 Spectrum Type

8.7.3 Integrators & Suppliers

8.7.4 Deployment Summary

8.8 Ameren: 900 MHz Private Communications Network for Grid Modernization

8.8.1 Operational Model

8.8.2 Spectrum Type

8.8.3 Integrators & Suppliers

8.8.4 Deployment Summary

8.9 ANA (All Nippon Airways): Local 5G-Enabled Digital Transformation of Aviation Training

8.9.1 Operational Model

8.9.2 Spectrum Type

8.9.3 Integrators & Suppliers

8.9.4 Deployment Summary

8.10 APM Terminals (Maersk): Optimizing Port & Terminal Logistics With Private 5G Networks

8.10.1 Operational Model

8.10.2 Spectrum Type

8.10.3 Integrators & Suppliers

8.10.4 Deployment Summary

8.11 Aramco Digital: Nationwide 450 MHz 5G-Ready Network for 50 Industrial Zones

8.11.1 Operational Model

8.11.2 Spectrum Type

8.11.3 Integrators & Suppliers

8.11.4 Deployment Summary

8.12 ArcelorMittal: 5G Steel Project for Industrial Digitization & Automation

8.12.1 Operational Model

8.12.2 Spectrum Type

8.12.3 Integrators & Suppliers

8.12.4 Deployment Summary

8.13 ASE Group: 28 GHz mmWave 5G Network for Semiconductor Manufacturing

8.13.1 Operational Model

8.13.2 Spectrum Type

8.13.3 Integrators & Suppliers

8.13.4 Deployment Summary

8.14 ASN (Alcatel Submarine Networks): Private 5G Networks for Calais & Greenwich Production Sites

8.14.1 Operational Model

8.14.2 Spectrum Type

8.14.3 Integrators & Suppliers

8.14.4 Deployment Summary

8.15 ASTRID: BLM (Blue Light Mobile) Secure MVNO Service for Belgian First Responders

8.15.1 Operational Model

8.15.2 Spectrum Type

8.15.3 Integrators & Suppliers

8.15.4 Deployment Summary

8.16 Australian Grand Prix Corporation: Private 5G Network for Albert Park Circuit

8.16.1 Operational Model

8.16.2 Spectrum Type

8.16.3 Integrators & Suppliers

8.16.4 Deployment Summary

8.17 BAM Nuttall: Accelerating Innovation at Construction Sites With Private 5G Networks

8.17.1 Operational Model

8.17.2 Spectrum Type

8.17.3 Integrators & Suppliers

8.17.4 Deployment Summary

8.18 Barcelona Port Authority: Standalone Private 5G Network for 500 Tenant Companies

8.18.1 Operational Model

8.18.2 Spectrum Type

8.18.3 Integrators & Suppliers

8.18.4 Deployment Summary

8.19 BASF: 5G Campus Networks for Real-Time Wireless Connectivity in Chemical Production Sites

8.19.1 Operational Model

8.19.2 Spectrum Type

8.19.3 Integrators & Suppliers

8.19.4 Deployment Summary

8.20 BBC (British Broadcasting Corporation): Portable 5G-Based NPN Solution for News Contribution

8.20.1 Operational Model

8.20.2 Spectrum Type

8.20.3 Integrators & Suppliers

8.20.4 Deployment Summary

8.21 BHP: Transitioning From Private LTE to Standalone 5G Networks for Advanced Digitization & Automation

8.21.1 Operational Model

8.21.2 Spectrum Type

8.21.3 Integrators & Suppliers

8.21.4 Deployment Summary

8.22 BlackRock: On-Premise Private 5G Network Installation for New York Global Headquarters

8.22.1 Operational Model

8.22.2 Spectrum Type

8.22.3 Integrators & Suppliers

8.22.4 Deployment Summary

8.23 BMW Group: Private 5G Networks for Autonomous Intralogistics in Production Plants

8.23.1 Operational Model

8.23.2 Spectrum Type

8.23.3 Integrators & Suppliers

8.23.4 Deployment Summary

8.24 Boston Children's Hospital: Scalable Hybrid Public-Private 5G Network for Connected Healthcare

8.24.1 Operational Model

8.24.2 Spectrum Type

8.24.3 Integrators & Suppliers

8.24.4 Deployment Summary

8.25 Brazilian Army: Leveraging Private LTE Infrastructure for National Defense Applications

8.25.1 Operational Model

8.25.2 Spectrum Type

8.25.3 Integrators & Suppliers

8.25.4 Deployment Summary

8.26 Bundeswehr (German Armed Forces): ZNV (Deployable Cellular Networks) Program

8.26.1 Operational Model

8.26.2 Spectrum Type

8.26.3 Integrators & Suppliers

8.26.4 Deployment Summary

8.27 Cal Poly (California Polytechnic State University): Converged Public-Private 5G Network

8.27.1 Operational Model

8.27.2 Spectrum Type

8.27.3 Integrators & Suppliers

8.27.4 Deployment Summary

8.28 China National Coal Group: Multi-Band 700 MHz & 2.6 GHz Private 5G Network for Dahaize Coal Mine

8.28.1 Operational Model

8.28.2 Spectrum Type

8.28.3 Integrators & Suppliers

8.28.4 Deployment Summary

8.29 City of Brownsville: Municipal Private 5G Network for Residents, Businesses & Public Services

8.29.1 Operational Model

8.29.2 Spectrum Type

8.29.3 Integrators & Suppliers

8.29.4 Deployment Summary

8.30 CJ Logistics: Bolstering Fulfillment Center Productivity Using Private 5G Network

8.30.1 Operational Model

8.30.2 Spectrum Type

8.30.3 Integrators & Suppliers

8.30.4 Deployment Summary

8.31 Cleveland Clinic: Private 5G Network for Mentor Hospital & Main Campus

8.31.1 Operational Model

8.31.2 Spectrum Type

8.31.3 Integrators & Suppliers

8.31.4 Deployment Summary

8.32 Cologne Bonn Airport: Revolutionizing Internal Operations With Private 5G Campus Network

8.32.1 Operational Model

8.32.2 Spectrum Type

8.32.3 Integrators & Suppliers

8.32.4 Deployment Summary

8.33 COMAC (Commercial Aircraft Corporation of China): 5G-Connected Intelligent Aircraft Manufacturing Factories

8.33.1 Operational Model

8.33.2 Spectrum Type

8.33.3 Integrators & Suppliers

8.33.4 Deployment Summary

8.34 ConocoPhillips: Private LTE Network for Curtis Island LNG (Liquefied Natural Gas) Facility

8.34.1 Operational Model

8.34.2 Spectrum Type

8.34.3 Integrators & Suppliers

8.34.4 Deployment Summary

8.35 Crystal Palace Football Club: Unlocking Accessibility for Visually Impaired Fans With Private 5G Network

8.35.1 Operational Model

8.35.2 Spectrum Type

8.35.3 Integrators & Suppliers

8.35.4 Deployment Summary

8.36 CSG (China Southern Power Grid): Harnessing Private Cellular Systems & 5G Network Slicing for Smart Grid Operations

8.36.1 Operational Model

8.36.2 Spectrum Type

8.36.3 Integrators & Suppliers

8.36.4 Deployment Summary

8.37 Cummins: Combined Neutral Host System & Private 5G Network for JEP (Jamestown Engine Plant)

8.37.1 Operational Model

8.37.2 Spectrum Type

8.37.3 Integrators & Suppliers

8.37.4 Deployment Summary

8.38 DB (Deutsche Bahn): Digitizing & Automating Rail Operations With 5G Campus Networks & FRMCS-Ready Cell Sites

8.38.1 Operational Model

8.38.2 Spectrum Type

8.38.3 Integrators & Suppliers

8.38.4 Deployment Summary

8.39 Delta Electronics: Private 5G Networks for Manufacturing Facilities in Taiwan & Thailand

8.39.1 Operational Model

8.39.2 Spectrum Type

8.39.3 Integrators & Suppliers

8.39.4 Deployment Summary

8.40 District of Ban Chang: 26 GHz mmWave Private 5G Network for Smart City Services

8.40.1 Operational Model

8.40.2 Spectrum Type

8.40.3 Integrators & Suppliers

8.40.4 Deployment Summary

8.41 Dongyi Group Coal Gasification Company: Hybrid Public-Private Network for Xinyan Coal Mine

8.41.1 Operational Model

8.41.2 Spectrum Type

8.41.3 Integrators & Suppliers

8.41.4 Deployment Summary

8.42 Dow: Modernizing Chemical Plant Maintenance With Private Cellular Networks

8.42.1 Operational Model

8.42.2 Spectrum Type

8.42.3 Integrators & Suppliers

8.42.4 Deployment Summary

8.43 EAN (European Aviation Network): Hybrid Satellite-A2G Network for Inflight Broadband

8.43.1 Operational Model

8.43.2 Spectrum Type

8.43.3 Integrators & Suppliers

8.43.4 Deployment Summary

8.44 East West Railway Company: ECH-R (England’s Connected Heartland Railways) Project

8.44.1 Operational Model

8.44.2 Spectrum Type

8.44.3 Integrators & Suppliers

8.44.4 Deployment Summary

8.45 Edesur Dominicana: Custom-Built 2.3 GHz LTE Network for Critical Grid Communications

8.45.1 Operational Model

8.45.2 Spectrum Type

8.45.3 Integrators & Suppliers

8.45.4 Deployment Summary

8.46 EDF: Private Mobile Networks for Enhanced Connectivity at Nuclear Power Plants & Wind Farms

8.46.1 Operational Model

8.46.2 Spectrum Type

8.46.3 Integrators & Suppliers

8.46.4 Deployment Summary

8.47 EHIME CATV: Gigabit-Grade FWA Service Using 28 GHz Local 5G Network

8.47.1 Operational Model

8.47.2 Spectrum Type

8.47.3 Integrators & Suppliers

8.47.4 Deployment Summary

8.48 Enel: Global 3GPP-Based Private Wireless Communications Platform for Utility Communications

8.48.1 Operational Model

8.48.2 Spectrum Type

8.48.3 Integrators & Suppliers

8.48.4 Deployment Summary

8.49 Equinor: 5G Coverage Upgrade for Offshore Platforms in the North Sea

8.49.1 Operational Model

8.49.2 Spectrum Type

8.49.3 Integrators & Suppliers

8.49.4 Deployment Summary

8.50 ESB Networks: 410 MHz National Radio Access Network for Smart Grid Applications

8.50.1 Operational Model

8.50.2 Spectrum Type

8.50.3 Integrators & Suppliers

8.50.4 Deployment Summary

8.51 ESN (Emergency Services Network): Great Britain's Critical Communications Broadband System

8.51.1 Operational Model

8.51.2 Spectrum Type

8.51.3 Integrators & Suppliers

8.51.4 Deployment Summary

8.52 Estonian Ministry of Defense: Private 5G Network for CR14 (Cyber Range 14)

8.52.1 Operational Model

8.52.2 Spectrum Type

8.52.3 Integrators & Suppliers

8.52.4 Deployment Summary

8.53 EUROGATE: 5G Campus Networks for the Digitization of Port Logistics

8.53.1 Operational Model

8.53.2 Spectrum Type

8.53.3 Integrators & Suppliers

8.53.4 Deployment Summary

8.54 Evergy: Facilitating Grid Modernization With Private Broadband Network

8.54.1 Operational Model

8.54.2 Spectrum Type

8.54.3 Integrators & Suppliers

8.54.4 Deployment Summary

8.55 EWA (Electricity and Water Authority, Bahrain): 410 MHz Private LTE Network

8.55.1 Operational Model

8.55.2 Spectrum Type

8.55.3 Integrators & Suppliers

8.55.4 Deployment Summary

8.56 EWG (East-West Gate) Intermodal Terminal: Private 5G Network for Smart Railway Logistics

8.56.1 Operational Model

8.56.2 Spectrum Type

8.56.3 Integrators & Suppliers

8.56.4 Deployment Summary

8.57 Ferrovial: Standalone Private 5G Network for Silvertown Tunnel Project

8.57.1 Operational Model

8.57.2 Spectrum Type

8.57.3 Integrators & Suppliers

8.57.4 Deployment Summary

8.58 FirstNet (First Responder Network): United States' Nationwide Public Safety Broadband Network

8.58.1 Operational Model

8.58.2 Spectrum Type

8.58.3 Integrators & Suppliers