5G Market

The 5G market, measured as infrastructure, is worth USD 40,764.0 million in 2025 and reaches USD 63,723.3 million by 2035, compounding at 4.57% a year. The figure is built bottom-up: roughly 1.58 million 5G base-station equivalents deployed globally in 2025 across radio access, core, transport and private networks, at a blended realised value of USD 25,800 per unit, triangulated against operator capital spending, vendor disclosures and deployment statistics. Deployment volume grows 5.2% a year as standalone networks, mid-band coverage and private networks expand, while value per unit falls 0.6% a year as radio hardware prices decline and open, software-based architectures spread.

What is the core judgment on 5G infrastructure?

5G is the technology that arrived faster than the business case. Operators built coverage at record speed after 2019, especially in China, South Korea and the United States, but consumer revenue per user barely moved, and by 2023 and 2024 operators cut capital spending sharply, sending radio-access vendors into a steep downturn with layoffs and restructuring. The market that emerges from the slump is smaller than early hype suggested but structurally healthier. Standalone 5G cores, network slicing and 5G-Advanced features standardised in 3GPP Release 18 give operators new enterprise services to sell; fixed wireless access has become a real broadband business; and private 5G networks in factories, ports and mines grow steadily. Vendor structure is shifting too: AT&T’s December 2023 decision to move its radio network to open, interoperable equipment with Ericsson, a deal valued at about USD 14 billion over five years, signalled that Open RAN has moved from experiment to mainstream procurement, while European governments pushed operators to remove high-risk vendors, with Germany agreeing in 2024 to phase Huawei and ZTE components out of its core and radio networks. This report models the market deployment by deployment with falling unit prices explicit, and the exclusive chapter maintains the operator capex and Open RAN transition tracker the vendor base depends on.

What counts as the 5G market here?

This study measures 5G infrastructure: radio access network equipment and software, 5G core, transport and fronthaul, and private 5G networks for enterprises, at vendor realised value. Operator service revenue, devices and spectrum costs sit outside the boundary, which the methodology states precisely because service-inclusive 5G figures are many times larger. The category sits within our telecom and networks coverage.

Why did operators cut spending, and what brings it back?

Because coverage came before revenue. Early 5G was mostly non-standalone radio layered on 4G cores, which improved speed but offered few new services consumers would pay extra for. With high interest rates and flat revenue, operators trimmed capital spending in 2023 and 2024, and vendors saw radio sales fall. What restarts investment is not more coverage but capability: standalone cores enable slicing, low latency and enterprise services; 5G-Advanced adds efficiency and new use cases; fixed wireless access monetises spare capacity; and mid-band densification serves growing traffic. The model therefore grows deployments from standalone, densification and private-network builds rather than consumer hype, and carries declining radio prices explicitly.

What drives 5G infrastructure demand?

The first driver is standalone and 5G-Advanced upgrades: operators move from non-standalone to standalone cores and add Release 18 features, supporting core and software spending.

The second driver is emerging-market rollout: India’s rapid 5G build since 2022 and deployments across Southeast Asia, the Middle East, Latin America and Africa add radio volume.

The third driver is private networks: factories, ports, mines and campuses deploy private 5G for reliable wireless connectivity, a steadily growing segment.

The fourth is fixed wireless access and traffic growth: rising data use and home broadband over 5G require capacity additions.

What holds 5G spending back?

Three restraints are modelled. Weak monetisation leads: without new revenue, operators limit spending, and the downside scenario applies a longer capex slump. Price deflation is second: radio hardware prices fall with competition and open architectures, reducing value per unit. Third is geopolitics: restrictions on high-risk vendors raise costs and slow deployments in some markets while shielding others.

Which segments carry the value?

Radio access network equipment and software leads with 58% of 2025 revenue, USD 23,643.1 million. The 5G core holds 16%, USD 6,522.2 million, transport and fronthaul 14%, USD 5,707.0 million, and private 5G networks 12%, USD 4,891.7 million, the fastest-growing segment. Each segment is modelled with unit and value tables through 2035.

Where is 5G built?

Asia Pacific leads with 48% of 2025 revenue, USD 19,566.7 million, on China’s scale and India’s rollout, growing 4.8% a year. North America holds 24%, USD 9,783.4 million, at 4.0%, and Europe 18%, USD 7,337.5 million, at 4.2% as standalone deployment and vendor replacement progress. The Middle East contributes USD 2,038.2 million at 5.6%, Latin America USD 1,222.9 million at 5.2%, and Africa USD 815.3 million and grows fastest at 6.0%. Six regional models sum to the global figure, with country tables in the Excel model.

Who supplies 5G networks?

Huawei remains the largest supplier globally, dominant in China and many emerging markets but restricted in several Western countries. Ericsson and Nokia are the leading suppliers outside China, with Nokia expanding optical transport through its 2025 acquisition of Infinera, ZTE is a major Chinese supplier, and Samsung Networks is a leading Open RAN and virtualised-RAN vendor. Around them sit Open RAN specialists, chipmakers and cloud providers offering core and edge platforms. The competitive chapter profiles each vendor’s share, Open RAN strategy and geopolitical exposure.

How is 5G priced?

Blended value averages USD 25,800 per base-station equivalent in 2025, including radio, core, transport and software attributed per site. Radio hardware prices decline over time, software and services rise, and large operators negotiate multi-year frame agreements. The pricing chapter publishes value bands by segment and region, price-decline trends and the cost of Open RAN versus traditional deployments.

How do the scenarios connect 2035?

The base case carries 5.2% deployment growth and a 0.6% annual decline in value per unit for a 4.57% revenue CAGR and USD 63,723.3 million in 2035. The prolonged-slump scenario, with weak operator spending and faster price declines, sets the legs at 4.0% and minus 1.4%, landing near USD 52,400 million. The recovery scenario, with standalone, 5G-Advanced and private networks driving new spending, lifts the legs to 6.1% and 0.0%, carrying the market past USD 73,600 million. Each 1-point change in deployment growth moves the 2035 figure by roughly USD 6,100 million. Published 5G forecasts vary enormously depending on whether services are counted; ours measures infrastructure only.

Which policies shape 5G?

Three policy layers matter. Spectrum first: auctions and licences for mid-band and millimetre-wave spectrum set deployment timing and cost. Security second: high-risk vendor restrictions under the EU 5G toolbox, national laws in the United States and elsewhere, and Germany’s 2024 phase-out agreement shape vendor choice. Industrial policy third: government support for Open RAN and domestic manufacturing influences procurement. The regulatory chapter maps these by market with dates.

How does Open RAN actually work?

Open RAN works by splitting the radio access network into parts with open interfaces so that an operator can buy radios from one supplier and the baseband software from another, instead of buying an integrated system from a single vendor. The radio unit at the mast, the distributed unit and the centralised unit communicate through standardised interfaces defined by industry groups, and much of the processing runs as software on general-purpose servers. The promise is more competition, lower cost and faster innovation; the difficulty is integration, because someone must make multi-vendor combinations work reliably, which is why many deployments end up led by a single large vendor anyway. The most significant commitment came in December 2023, when AT&T agreed a deal with Ericsson worth about USD 14 billion over five years to move a large share of its network to open, interoperable equipment, a decision that moved Open RAN from trials to mainstream procurement. Japanese operators have also deployed at scale. The model treats Open RAN as an architectural shift that changes who supplies what rather than as a separate market, and tracks its share of deployments in the exclusive chapter.

What is network slicing worth to operators?

Network slicing lets an operator run several virtual networks on one physical network, each with its own performance guarantees, which is one of the main reasons to deploy a standalone 5G core. A slice for an emergency service could guarantee priority and low latency, a slice for a factory could guarantee reliability, and a slice for a broadcaster could guarantee uplink capacity during an event. Operators have launched commercial slices for public safety, events and enterprise customers, but revenue so far is modest compared with the investment, because enterprises often find dedicated private networks or ordinary connectivity sufficient. Slicing also requires end-to-end automation, which operators are still building. For this market, slicing matters because it justifies standalone core deployment, which is the fastest-growing infrastructure segment, and the model links core spending to standalone rollout rather than to slicing revenue.

How do private 5G networks get built?

Private 5G networks get built either by an operator on dedicated spectrum, by a systems integrator, or directly by the enterprise where regulators allocate local spectrum. Germany, Japan, the United Kingdom and others have set aside spectrum bands for local licences, allowing factories, ports, mines, hospitals and campuses to run their own networks. The equipment is usually a small core, a handful of radios and devices such as sensors, cameras, robots and handhelds, and the attraction is reliable coverage, predictable latency and control over data that Wi-Fi sometimes cannot guarantee in large industrial spaces. Adoption has been steady rather than explosive, because Wi-Fi is cheaper and familiar, and projects need integration expertise. Ports, mining sites and automotive plants are the clearest adopters. The model grows private networks faster than macro infrastructure from a small base and treats spectrum policy as the key variable by country.

What does 5G-Advanced add?

5G-Advanced is the next phase of 5G standards, defined in 3GPP Release 18 and later releases, which adds capabilities rather than replacing the technology. It improves energy efficiency, which matters because radio networks are a major electricity cost for operators, adds better positioning, supports reduced-capability devices for industrial sensors and wearables, improves uplink performance for video and extended reality, and introduces more automation and artificial intelligence in network management. For operators, it offers a way to increase capacity and reduce cost on existing sites through software and targeted hardware upgrades. For vendors, it drives a steady stream of upgrades and new radios. The model treats 5G-Advanced as support for the value line and for continued spending after the initial coverage build.

How does fixed wireless access change the business case?

Fixed wireless access changes the business case by giving operators a way to sell home broadband over their 5G networks, turning spare mobile capacity into revenue that competes with cable and fibre. American operators added millions of fixed wireless subscribers, and the service has grown in India, Europe, the Middle East and Africa, particularly where fibre is expensive to deploy. Because each home uses far more data than a phone, fixed wireless forces operators to add capacity through mid-band spectrum, more radios and denser sites, which supports equipment demand. The risk is that heavy usage degrades mobile service if capacity is not managed. The model links part of capacity-driven equipment spending to fixed wireless growth by market.

What do satellite direct-to-device services mean for networks?

Satellite direct-to-device services allow ordinary phones to connect to satellites for messaging and, increasingly, basic data where there is no terrestrial coverage. Operators have partnered with satellite companies to offer such services, and regulators have created frameworks to allow satellites to use mobile spectrum in rural areas. For network equipment, the effect is limited but real: it reduces pressure to build towers in the most remote and least economic locations, while adding ground infrastructure and core integration work. The model does not treat satellite as a substitute for terrestrial networks within the forecast, but notes it as a factor limiting rural site growth.

How are vendors coping with the downturn?

Vendors have coped with the 2023 and 2024 downturn through cost cutting, restructuring and diversification. The largest suppliers reduced headcount, consolidated research sites and focused on software and services, while trying to protect research spending in areas such as Open RAN and 5G-Advanced. Some expanded into enterprise networking, private networks and optical transport, where Nokia’s acquisition of Infinera, completed in 2025, is an example of building scale in optical systems. Chinese vendors, restricted in several Western markets, have concentrated on China and emerging markets. Suppliers have also pushed to sell software upgrades to the large installed base rather than relying on new hardware. The model reflects this in a growing share of software and services within vendor revenue.

Douglas Exclusive: the operator capex and Open RAN transition tracker

Vendor revenue follows operator spending and architecture choices, so this report tracks both: capital spending by major operator group, standalone and 5G-Advanced rollout status, Open RAN contracts and deployments, and high-risk vendor replacement programmes. Licence holders receive it as a maintained tab in the Excel model, updated each edition.

The tracker records capital spending and guidance for the largest operator groups, the share of their networks running standalone cores, announced Open RAN contracts and deployment volumes, high-risk vendor replacement programmes with deadlines, and spectrum auctions that typically precede equipment orders by one to two years. Because vendor revenue is concentrated among a small number of buyers, these indicators give an early read on whether the next year’s radio market grows or shrinks, and which suppliers are best placed to win the spending that does occur.

It also tracks private 5G licences and deployments by country, since local spectrum policy is the clearest predictor of where enterprise networks will be built, and notes major fixed wireless subscriber additions, which drive capacity upgrades on existing sites rather than new coverage.

For investors, the tracker translates these indicators into a simple question: how much of the announced spending is genuinely new build, how much is replacement of restricted vendors, and how much is software upgrades on existing sites, since each carries very different revenue and margin profiles for suppliers.

It is refreshed each edition with quarterly vendor results and operator capital-spending guidance, which together have historically signalled turning points in radio equipment demand two to three quarters in advance.

Methodology and receipts

The model is built bottom-up from deployments: 5G base-station equivalents by region and segment from operator and vendor data, valued at realised prices, with services, devices and spectrum excluded. Every figure carries a numbered source and a confidence grade in the fact sheet above, and the working model ships with every licence. The full method follows the published Douglas Insights methodology. The next scheduled review of this study is September 2027, with material changes published in the edition change log.