5G Private Network Market Size & Share Analysis - Growth Trends & Forecasts (2025 - 2030)

Global 5G Private Network Market Trends and Insights

Mature 5G SA Core Availability for Enterprise SASE Integration

Cloud-native 5G Standalone cores now ship with built-in SASE functions, allowing enterprises to apply zero-trust policies across OT and IT domains from a single pane of glass. Ericsson and Google Cloud jointly run 5G Core-as-a-Service, giving manufacturers elastic scaling without on-site EPC specialists. Microsoft mirrors this model by embedding a full 5G core inside Azure Stack Edge so that regulated facilities can retain data on-prem while managing the network from the Azure portals. Unified identity, segmentation, and traffic optimisation cut integration time for multi-site factories and logistics hubs. Early adopters report faster rollout cycles and reduced maintenance overhead because policy updates propagate automatically to every site. Together, these efficiencies raise the attainable ROI threshold, broadening the addressable base for the 5G private network market.

700 MHz, CBRS & Local-Licence Spectrum Liberalisation

Shared and lightly licensed spectrum unlocks private networks for entities that do not own nationwide mobile concessions. The FCC’s expanded CBRS rules lengthen transmission windows and trim Dynamic Protection zones, giving utilities and campuses predictable radio conditions. Japan’s local 5G model has already issued 153 Sub-6 GHz licences, proving that simplified processes can fast-track enterprise networks. NTIA data show more than 270,000 new CBRS device activations since 2021, many in rural manufacturing clusters^{[1]National Telecommunications & Information Administration, “CBRS Deployment Data 2021-2024,” ntia.gov}. Access to affordable spectrum lowers total cost of ownership, pressures operators to offer wholesale slices, and propels the 5G private network market toward wider vertical adoption.

Falling Price of 5G-Industrial IoT Modules & Private-RAN Small Cells

High-volume chipsets now integrate RF, baseband, and security primitives on a single die, shrinking 5G IIoT module ASPs by double-digit percentages over two years. Sub-$150 industrial routers let mid-sized factories retrofit robotics without tearing out Ethernet runs. ZTE’s hospital pilot cut upgrade costs by 80% and installation time by 90%, demonstrating the capex impact of cheaper radios. While shortages linger for multimode SA/NSA chipsets, multi-sourcing and vendor-financed inventory buffers help maintain rollout schedules. Lower hardware cost widens addressable use cases, amplifying demand across the 5G private network market.

Edge-Native 5G Network-as-a-Service Offers from Hyperscalers

AWS, Microsoft, and Google now pre-integrate 5G cores with edge compute so enterprises can spin up private slices under a pay-per-use model. Verizon and NVIDIA demonstrate AI inference over such edge nodes, turning quality-of-service into a variable cost rather than a fixed asset. Consumption pricing lets seasonal industries like ports boost bandwidth during peak flows without stranded capex. Hyperscaler reach also standardises DevOps pipelines, enabling continuous application deployment across thousands of micro-cells. As a result, enterprises that once lacked radio expertise can outsource complexity and still meet latency or sovereignty mandates, fuelling long-run expansion of the 5G private network market.

Scarcity of Multi-Band Certified 5G Devices for Vertical-Specific Use Cases

Enterprises often require devices that roam across Sub-6 GHz and mmWave bands while meeting stringent safety or sterility norms. Yet only a handful of suppliers certify rugged tablets, cameras, or AR headsets across all target bands, forcing hybrid network designs that raise support costs. Healthcare deployments struggle even more because medical device approvals add another regulatory layer. Until broader certification coverage emerges, device scarcity will temper the pace at which new verticals join the 5G private network market.

Complex Systems-Integration Skill Gap at Mid-Tier Integrators

Private 5G converges RF planning, MEC, IT security, and OT automation. Most regional system integrators know Wi-Fi but lack spectrum engineering and core orchestration skills, leading enterprises to delay or down-scope projects. Specialist consultancies are scarce outside mature markets, inflating project costs for SMEs. Vendor-led turnkey models help but limit customisation. Persistent skill shortages therefore subtract a modest, but material drag on the 5G private network market growth outlook.

Segment Analysis

By Component: Services Expand as Integration Demands Rise

Hardware commanded 48% of the 5G private network market in 2024, reflecting the upfront spend on radios, evolved packet cores, and edge compute clusters. Yet, Services are projected to grow at a 45.22% CAGR, outpacing equipment sales as enterprises favour managed lifecycle models. Nokia finds 78% of customers achieve payback within six months when adopting a service-led rollout, thanks to faster commissioning and continuous optimisation. The shift also mirrors the spread of cloud-native orchestration, which moves value from boxes to software and support. As complexity rises, managed detection and response, performance tuning, and application onboarding become core revenue streams. Consequently, Services will narrow the revenue gap with Hardware by 2030, reshaping vendor monetisation across the 5G private network market.

Software sits between the two, providing policy control, network slicing, and digital twin analytics that translate radio data into business insights. Low-code orchestration lets OT engineers spin up slices for new production lines without ticketing an operator. Over time, Software margins are likely to exceed both Hardware and Services, but their growth pace will track platform adoption curves. Together, these dynamics ensure the 5G private network industry remains a multi-revenue-stream arena where integration value grows fastest.

Note: Segment shares of all individual segments available upon report purchase

By Frequency: Sub-6 GHz Dominates Coverage, mmWave Fuels Capacity

Sub-6 GHz held 62% share of the 5G private network market size in 2024 because one-kilometre cell radii suit large plants, mines, and campuses. Rugged handhelds and sensors also favour mid-band because antenna footprints stay small. mmWave, while confined to tens-of-metre footprints, posts a 44.67% CAGR as factories deploy high-definition machine vision and AR maintenance at workstations. Hybrid deployments emerge, mid-band provides blanket coverage, mmWave overlays pump gigabits to assembly cells. Open-RAN roadmaps that support dual-band radios promise to simplify such mixed topologies, boosting uptake.

This nuanced spectrum play widens vendor differentiation. RAN suppliers with beamforming optimisations for reflective indoor spaces win mmWave bids, whereas incumbents strong in macro radio planning dominate Sub-6 GHz tenders. Over the forecast horizon, mmWave’s share will rise yet remain below mid-band because many brownfield plants cannot justify dense small-cell grids. Even so, the combined spectrum toolkit cements private 5G as a superior upgrade path over Wi-Fi 7 for industrial digitalisation.

By Enterprise Size: SMEs Gain Ground via Opex-Friendly Models

Large enterprises retained 54% control of the 5G private network market in 2024, but SMEs are on track for a 44.38% CAGR through 2030. Vendor financing, consumption pricing, and prefabricated edge kits reduce entry pain for smaller factories and campuses. Comcast Business proves the neutral-host approach at the University of Virginia, where multiple carriers share a single CBRS infrastructure to lower total cost. Such models let SMEs secure deterministic coverage without becoming mobile operators.

At the same time, large multinationals push complexity boundaries by deploying private 5G across dozens of plants on three continents. They require global SIM lifecycle management, roaming governance, and zero-trust overlays. Consequently, solution providers must straddle both ends of the customer spectrum, delivering simplified starter kits for SMEs and hyper-scalable orchestration for Fortune 500 clients. This duality will define competitive positioning throughout the 5G private network market.

Note: Segment shares of all individual segments available upon report purchase

By Vertical: Manufacturing Leads, Healthcare Accelerates

Manufacturing commanded a 33% share of the 5G private network market in 2024, anchored by proven use cases such as AGV fleet optimisation and real-time quality inspection. Predictable ROI, cyber-hardened isolation, and ease of retrofitting keep factories at the forefront of adoption. However, Healthcare tops the growth chart with a 43.94% CAGR to 2030. Europe’s Oulu Hospital demonstrates latency-sensitive patient monitoring on a standalone private 5G core, validating mission-critical reliability. Regulatory moves toward remote surgery trials further stoke demand.

Energy & Utilities, Transportation & Logistics, and Defense follow close behind, each leveraging deterministic connectivity for safety-critical controls. Southern California Edison’s grid-modernisation blueprint shows how utilities integrate LTE relay layers with 5G micro-cells for fault isolation in milliseconds. Such cross-vertical momentum broadens solution portfolios, sustaining multi-decadal opportunity across the 5G private network market.

Geography Analysis

North America captured 31% of the 5G private network market in 2024, thanks to ready CBRS spectrum, early IIoT pilots, and strong federal funding for critical-infrastructure modernisation. Manufacturing clusters in the Midwest and Gulf Coast rapidly migrate from Wi-Fi because cellular provides interference-immune mobility for autonomous robots. Public-safety agencies also invest, with Verizon offering dedicated 5G slices for first responders across 29 cities, ensuring priority communications during congestion.

Asia-Pacific is forecast to record a 45.04% CAGR, narrowing the leadership gap by 2030. Japan’s regulator issues dedicated local-licence spectrum in both Sub-6 GHz and 4.7 GHz bands, prompting more than 150 enterprise networks within two years. China pilots 5.5G (5G-Advanced) features such as deterministic scheduling and RedCap devices, underpinning large-scale campus deployments in automotive and mining. Emerging economies like India ride the Production-Linked Incentive scheme to embed private 5G in new semiconductor fabs and logistics parks, further boosting regional momentum.

Europe follows with a slower but steady uptake as spectrum fees remain higher and industrial policy varies by member state. Nonetheless, initiatives like Germany’s Industrie 4.0 subsidies and France’s smart-city pilots keep demand rising. The Port of Riga’s private 5G for autonomous sea drones proves how EU maritime corridors can extend coverage 100 miles offshore, a feat unviable with Wi-Fi links. South America and the Middle East & Africa remain in nascent stages, yet early oil, gas, and mining proofs hint at rising demand once device availability widens. Taken together, regional dynamics ensure the 5G private network market gains depth as well as breadth over the forecast horizon.