Executive Summary

4.1 USD Billion in 2025, the Private 5G Networks Market is expected to grow at a CAGR of 40.5% to reach 122.9 USD Billion by 2035. The trajectory spans 2025-2035 and marks one of the steepest ramps in enterprise networking infrastructure, as private cellular shifts from pilot projects to production-scale rollouts across industrial and campus environments.

Enterprises in manufacturing, logistics and mining are deploying private cellular to secure deterministic latency and interference-protected spectrum that shared Wi-Fi cannot guarantee. The FCC’s Citizens Broadband Radio Service framework and comparable shared-spectrum allocations opened by regulators across Europe and Asia Pacific have lowered the barrier for non-telecom enterprises to build and directly operate their own networks.

North America held 40.0% of the market in 2025, ahead of Asia Pacific at 30.0% and Europe at 22.0%. Hardware led component demand with 44.7% share, as radio units, edge servers and gateways anchor early builds, while licensed spectrum accounted for 46.2% on enterprise requirements for controlled connectivity.

Integration with existing OT and IT estates, combined with a shortage of RF and core-network engineering skills, continues to slow rollouts beyond pilot scale. The vendor base spans telecom equipment makers, hyperscalers, systems integrators and specialist private-network providers, competing on deployment speed and total cost of ownership.

Key Takeaways

• A CAGR of 40.5% carries the market from USD 4.10 Billion in 2025 to USD 122.90 Billion in 2035.
• On component, the leading category is Hardware.
• On spectrum, the leading category is Licensed Spectrum.
• The largest region is North America, at 40.0% in 2025.
• 10 suppliers are profiled.

Market Definition and Scope

The Private 5G Networks Market covers dedicated cellular infrastructure, comprising RAN equipment, core network hardware, transport equipment and user-premises devices, plus the orchestration, security and analytics software and the professional and managed services used to design, deploy and operate standalone or hybrid networks. Networks run on licensed, shared CBRS or unlicensed spectrum within a single enterprise site or campus, serving manufacturing, logistics, mining, ports, utilities and defense workloads that require dedicated tenancy and deterministic latency.

The boundary excludes public macro 5G networks operated by mobile carriers for consumer subscribers, and general enterprise Wi-Fi or wired LAN spend, since neither carries the site-specific spectrum tenancy and single-tenant network ownership that define a private 5G deployment.

Market Trends

Shared and Licensed Spectrum Access Is Widening the Private 5G Buyer Base Beyond Telecom Operators

The FCC’s Citizens Broadband Radio Service framework and comparable local-licensing schemes advanced by Ofcom in the UK and by regulators in Germany and Japan let enterprises acquire spectrum directly rather than lease capacity from a mobile network operator. This is changing who buys: manufacturers, port authorities and mining operators are now commissioning networks through systems integrators rather than as a managed bundle inside a carrier contract. Licensed spectrum still holds 46.2% share where interference protection is mandatory for safety-critical operations. Shared and unlicensed options are lowering the entry threshold for mid-sized sites, and that mix shift is expected to widen the addressable buyer base through 2035 as more enterprises self-provision.

Edge Computing Convergence Is Pulling Private 5G Into Latency-Bound Industrial Automation

Multi-access edge compute nodes are increasingly colocated with RAN equipment rather than housed in a central data center, a pattern GSMA has tracked across manufacturing and logistics deployments. 3GPP’s Release 17 RedCap profile, aimed at lightweight IoT and sensor traffic, is extending viable use cases to lower-cost devices that earlier releases could not support economically. Automotive, electronics and warehouse operators running AI-based vision inspection and autonomous guided vehicles are the primary adopters, since these workloads cannot tolerate the round-trip latency of centralized cloud inferencing. Demand is shifting toward integrated RAN-edge packages, pulling spend into transport network equipment and orchestration software over hardware alone.

Zero-Trust Security Architecture Is Replacing Perimeter Models Inside Private Cellular Cores

Regulation (EU) 2024/2847, the Cyber Resilience Act, requires vendors of products with digital elements to build in secure-by-design controls, maintain technical documentation and report actively exploited vulnerabilities within set timelines. That obligation is pushing core-network software vendors toward identity-based segmentation and continuous monitoring rather than perimeter isolation alone. Defense, utilities and healthcare operators, which carry the highest compliance exposure, are the first to add network security software layered onto existing core deployments. The effect extends software and services share of total spend, as vulnerability handling and compliance documentation become recurring managed-service items rather than one-time integration cost through 2035.

Growth Drivers and Restraints

Industrial Automation Programs Are Redirecting Connectivity Capex From Wired Networks to Dedicated Cellular

Manufacturers upgrading production lines for autonomous guided vehicles, robotic assembly and machine vision need mobility and deterministic latency that fixed Ethernet and shared Wi-Fi cannot provide on a moving factory floor. That requirement is transmitting directly into RAN and core equipment budgets, since a private cell must be engineered to the site rather than purchased as a managed service. 3GPP’s Release 16 introduced Ultra-Reliable Low-Latency Communication profiles specifically to support factory automation, giving equipment vendors a standardized target to build against. GSMA’s private network initiative has documented a widening base of manufacturing and logistics operators moving from trial to multi-site rollout. Large enterprises with multiple production sites absorb most of this spend, concentrating demand in the Hardware component and its RAN and core equipment sub-segments.

The EU Cyber Resilience Act Is Making Security Software a Standing Line Item in Core Builds

Regulation (EU) 2024/2847 requires products with digital elements to undergo cybersecurity risk assessment, meet secure-by-design and vulnerability-handling obligations, and report severe incidents within mandated windows, placing new compliance weight directly on core network and orchestration software vendors. The EU’s NIS2 Directive extends similar security and incident-reporting obligations to operators of essential services, a category that captures utilities, healthcare and transport enterprises running private cellular for operational continuity. Together these two regulations are transmitting demand from one-time integration projects toward recurring network security software subscriptions and managed monitoring services. European enterprises in regulated verticals absorb the largest share of this effect, since compliance deadlines apply regardless of deployment size.

Shared-Spectrum Licensing Is Cutting the Time Enterprises Need to Acquire Dedicated Airwaves

Acquiring exclusive licensed spectrum has historically required a direct regulatory application or a lease negotiated with an incumbent mobile operator, a process that can take months and adds legal and administrative cost before a network is even designed. The FCC’s Citizens Broadband Radio Service Priority Access License tier and Ofcom’s local licensing framework in the UK compress that timeline by letting enterprises apply for shared or site-specific spectrum directly from the regulator. That shortened acquisition path is transmitting into faster project approval cycles for mid-sized enterprises that previously could not justify the lead time of a licensed-spectrum negotiation, expanding the Shared/CBRS and Unlicensed Spectrum segments’ addressable base alongside the currently dominant Licensed Spectrum tier.

Integration With Legacy OT, Wi-Fi and SCADA Estates Raises Cost Above Greenfield Deployments

Hardware carries 44.7% of component spend and licensed spectrum 46.2% of spectrum spend in 2025, a mix that reflects enterprises paying upfront for controlled, high-reliability connectivity rather than adopting lower-cost shared alternatives. Retrofitting that infrastructure into an existing production environment, where legacy programmable logic controllers, SCADA systems and Wi-Fi access points must keep operating during and after migration, adds integration engineering cost that a greenfield site does not carry. NIST’s guidance on industrial control system security requires segmentation and access controls during any network change touching operational technology, extending the design and testing phase for brownfield sites. Mid-sized manufacturing and utility operators with older facilities absorb most of this cost, which slows the pace at which private 5G can be extended beyond flagship sites.

A Shortage of RF and 5G Core Engineering Talent Is Slowing Rollouts Beyond Pilot Scale

Designing and commissioning a private cellular network requires RF planning, spectrum coordination and 5G core configuration skills that sit outside the traditional enterprise IT and network engineering skill set, and GSMA has flagged this talent gap as a recurring constraint across private network deployments it has tracked. Enterprises without an in-house telecom engineering function must contract systems integrators for design, deployment and ongoing support, adding a services dependency and lead time that a pure hardware or software purchase would not carry. This constraint falls hardest on mid-sized enterprises outside the telecom, defense and heavy-industry sectors that have historically employed RF specialists, and it is expected to keep the Professional Services and Managed Services segments growing faster than self-managed deployment through the forecast period.

Segment Analysis

By Component

• Hardware (largest) – The physical infrastructure of a private 5G network, including small cells, radio units, edge servers, gateways, and user equipment such as routers and modems

• RAN Equipment
• Core Network Equipment
• Transport Network Equipment
• User Equipment/CPE
• Software – Network management, orchestration, core network, and network slicing platforms that configure, virtualize, and operate a private 5G deployment

• Network Management & Orchestration Software
• Network Security Software
• Network Analytics Software
• Services – Professional and managed offerings covering network design, site deployment, integration, spectrum licensing support, monitoring, and ongoing maintenance for private 5G systems
• Professional Services

• Design & Consulting
• Deployment & Integration
• Support & Maintenance
• Managed Services

Hardware led the Private 5G Networks Market with a 44.7% share in 2025. Enterprises building private 5G networks still spend first on radio access network equipment, edge servers, gateways, and on-premises core hardware, the physical footprint required before any orchestration or security layer can run. Capital budgets for greenfield industrial and campus deployments weight toward this upfront buildout, and multi-vendor RAN and core hardware remain the largest line item in a private network business case. Software is expected to grow fastest through 2035. As deployments move from pilot to multi-site rollout, network management, orchestration, and network-slicing platforms take a larger share of spend, and enterprises increasingly license software separately from the hardware it runs on to avoid single-vendor lock-in.

By Spectrum

• Licensed Spectrum (largest) – Frequency bands exclusively assigned by a regulator to an operator or enterprise, used in private 5G deployments requiring guaranteed, interference-protected connectivity

• Dedicated Licensed Spectrum
• Leased Licensed Spectrum
• Shared/CBRS Spectrum – A tiered-access framework, such as the Citizens Broadband Radio Service, letting multiple parties use designated bands under coordinated rules for private 5G

• Incumbent Access
• Priority Access License (PAL)
• General Authorized Access (GAA)
• Unlicensed Spectrum – Publicly available frequency bands requiring no regulatory license, used for private 5G deployments alongside Wi-Fi and other unlicensed radio technologies

Licensed spectrum led the Private 5G Networks Market with a 46.2% share in 2025. Dedicated and leased licensed bands give enterprises interference-protected capacity and predictable latency, a requirement for mission-critical industrial automation, port, and mining operations where connectivity failures carry direct safety or production cost. Regulators in most markets still restrict shared and unlicensed bands to lower power and shorter range, reinforcing licensed spectrum’s hold on large-campus deployments. Shared and CBRS-model spectrum is expected to grow fastest through 2035. Tiered access frameworks let enterprises deploy without holding a dedicated license, and Priority Access License and General Authorized Access tiers are lowering the cost of entry for mid-sized manufacturers and logistics operators that could not previously justify a licensed private network.

Regional Analysis

North America

Revenue of USD 1.64 Billion in 2025 makes this the largest regional market, on 40.0% of the total.

Asia Pacific

Asia Pacific is the second-largest regional market, at 30.0% of 2025 revenue and USD 1.23 Billion.

Europe

Europe held 22.0% of the market in 2025, worth USD 0.90 Billion.

Competitive Landscape

The Private 5G Networks Market is led by a group of established telecom-equipment and networking vendors rather than a single dominant supplier. Competition centers on integration effort: how much a vendor’s RAN, core, and orchestration stack reduces the work of connecting a private 5G deployment into existing enterprise IT and operational-technology systems. Spectrum licensing support is a second axis, since enterprises without in-house radio expertise depend on vendors and systems integrators to navigate licensed, CBRS, and unlicensed band requirements. Portfolio breadth also separates competitors: full-stack telecom-equipment suppliers compete against specialist private-network vendors offering narrower, cloud-native cores built for faster time-to-value. Pricing model flexibility is increasingly decisive as buyers weigh perpetual licensing against consumption-based and managed-service contracts that shift network operations onto the vendor. Channel and systems-integrator partnerships determine which vendors reach mid-market manufacturers and logistics operators that lack dedicated wireless engineering teams.

Key players include Nokia Corporation, Telefonaktiebolaget LM Ericsson, Huawei Technologies Co., Ltd., Samsung Electronics Co., Ltd., Cisco Systems, Inc., NEC Corporation, Fujitsu Limited, Mavenir Systems, Inc., Celona, Inc., and Verizon Communications Inc.

Strategic Outlook

Shared and CBRS-style spectrum access is the clearest whitespace: it lets mid-market manufacturers, logistics operators, and venues deploy private 5G without holding a dedicated license, extending the addressable base beyond large campuses. Specialist vendors and neutral-host integrators stand to benefit most, provided regulators in additional markets extend tiered shared-access frameworks beyond their current few jurisdictions.

By 2035, spend is expected to shift from hardware-heavy initial buildout toward software and managed services, as orchestration, slicing, and analytics platforms mature and enterprises favor consumption-based licensing and outsourced operations over in-house wireless engineering teams.

Private 5G Networks Market Report Scope