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小型基地台5G 网路 -市场占有率分析、产业趋势/统计、成长预测 (2025-2030)

Small Cell 5G Network - Market Share Analysis, Industry Trends & Statistics, Growth Forecasts (2025 - 2030)

出版日期: 2025年01月05日 | 出版商:

Mordor Intelligence | 英文 120 Pages | 商品交期: 2-3个工作天内

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简介目录

预计小型基地台5G 网路市场在预测期内将以 37% 的复合年增长率成长

主要亮点

小型基地台有望成为未来全球 5G 网路的基础。透过产业合作，可以在全球范围内以必要的速度大规模部署 5G小型基地台，并使 5G 成为现实。 5G 预计更便宜、更快，但需要透过小型基地台扩展无线网路。
小型基地台在当今的环境中至关重要，特别是对于需要更多频宽和连接设备数量不断增加的应用而言。例如，Cisco预测，到 2030 年，将有 5,000 亿台设备连网。此外，5G通讯业者正专注于在较低频段安装小型基地台，以便为客户提供更好的覆盖范围。
行动资料流量的增加正在推动市场成长。根据思科视觉网路指数（VNI）的数据，从 2017 年到去年，全球行动资料流量的复合年增长率为 46%，达到每月 77.5Exabyte。根据思科的研究，去年 5G 连线产生的流量是典型 4G 连线的大约 2.6 倍。
小型基地台部署是各通讯业者的首要任务，60%的通讯业者将小型基地台视为其4G服务的关键要素。沃达丰、AT&T和Softbank Corporation等主要通讯业者除了宏网路外，还部署了小型基地台技术。例如，Verizon 在美国多个城市安装了小型基地台，包括纽约、芝加哥、亚特兰大和旧金山。
此外，虽然 5G 可以部署在现有的蜂窝无线电频率上，但运营商很可能能够使用更高的无线电频率（20GHz 及以上）进行操作，尤其是行动服务。然而，这些频率的部署只能在有限的区域内进行，且讯号穿透力也受到限制，因为它们不能穿墙。因此，越来越多地采用在建筑物内使用的小型基地台，这些蜂窝对于智慧型手机和物联网设备具有出色的连接性。
COVID-19 的疫情对行动领域产生了重大影响。短期内，我们预计多个市场的 5G 推出将进一步推迟，其中服务受到的打击最为严重。小型基地台5G 设备仍被视为利基市场，因此消费者可能无法负担。根据 GSMA（行动通讯协会）情报消费者调查，大多数受访者对升级到 5G 服务的兴趣有限。例如，报告发现近80%的英国消费者没有升级计画。

小型基地台5G网路市场趋势

电讯细分市场预计将大幅成长

小型基地台为行动宽频和物联网用户提供高资料速率，并且能够处理密集的低速、低功耗设备，是 5G 部署的理想选择。此属性可实现毫秒延迟、每平方英里 100 万台设备和超高速。因此，世界各地的通讯业者主要使用小型基地台技术来部署 5G 技术。据物联网公司 Telit 称，美国主要通讯业者计划严重依赖小型基地台技术来实现全国 5G 覆盖。
为了推动向消费者提供 5G 覆盖的倡议，台湾最大的通讯业者中华电信 (CHT) 与诺基亚合作，采用该公司小型基地台产品组合中的产品。在台湾，中华电信是第一家部署 5G 非独立 (NSA)小型基地台的通讯业者，可在包括商业设施和旅游目的地在内的多个地点提供即时5G 覆盖。
诺基亚为 CHT 提供高度适应性的 AirScale 室内无线电 (ASiR) 解决方案和适用于室外和都市区热点的 AirScale micro RRH，以提高室内覆盖范围和容量。除了CHT目前涵盖的2500多组4G小型基地台之外，这两种解决方案将有助于营运商满足5G网路的室内覆盖和緻密化需求。
此外，为所有人提供行动基础设施解决方案的通讯业者协会小型基地台论坛 (SCF) 宣布推出适用于 5G 的 PHY API，并宣布推出适用于 5G小型基地台硬体、软体和设备供应商的新PHY API，从而引发了一个竞争性的生态系统。随着资料使用量和对更快资料的需求的增加，对 5G 网路的需求不断增加，通讯业者正从 SCF 的竞争生态系统中受益。
对于 5G 技术和网络，通讯业者正在探索全新的定价模式，该模式可能取决于互通性以及开放和竞争的环境。随着网路变得更加分散，用于无线电功能的分散式单元 (DU) 与用于通讯协定堆迭和基频功能的集中式单元 (CU) 之间的去程传输成为关键介面。

预计北美将占据较大市场占有率

由于5G等先进技术的广泛使用，北美被认为是关键市场之一。在美国，通讯业者正在利用小型基地台台来密集化 5G 网路并降低成本，尤其是在大都会圈。 Sprint、AT&T、Verizon、T-Mobile等主要通讯业者积极推动5G网路商用，三星、爱立信、诺基亚、华为、中兴等网路设备製造商正与网路设备製造商合作打造10亿美元市场。设施的合约。
美国无线网路营运商正在大力拥抱小型基地台。产业组织 CTIA 预测，到 2026 年，美国小型基地台数量将超过 80 万个，高于 2018 年的约 86,000 个。 T-Mobile US 收购 Sprint 后，两家公司总共持有约 7 万个小型基地台。该公司计划将大量频谱输送到美国最大、最密集的无线网路。但 Verizon 的小型基地台策略与 T-Mobile 不同。该公司预计毫米波最终将处理 50% 的都市区交通，并计划在未来几年内继续部署约 14,000 个小型基地台，以扩大整体覆盖范围。
根据爱立信行动报告，到 2024 年，5G 用户预计将占北美所有行动用户的 55%。预计市场将受益于预测期内 5G 用户数量的增加。
2021年6月，高通科技公司在美国宣布推出第二代高通小型蜂巢5G RAN平台（FSM200xx）。该平台旨在扩展移动 5G 毫米波覆盖范围和功率效率，支援毫米波中的 1 GHz频宽、更宽的 200MHz 载波频宽以及跨 FDD 和 TDD 的 200MHz MHz Sub-6 GHz频谱聚合，提供高达 8 Gbps 的资料资料并交付。它还支援 eURLLC 等技术，提供对工厂自动化以及设备和机械的关键任务控制至关重要的低延迟和链路可靠性。
爱立信也小型基地台，爱立信将为加拿大通讯和媒体公司罗杰斯通讯公司的5G网路独家供应5G无线接取网路（RAN）和5G核心网路（5GC）以及Massive MIMO无线电，MINI-LINK微波技术也是其中的一部分。这项技术。罗杰斯的 5G 网路最初将使用 2.5GHz 频段，并计划随着服务扩展到其他市场而扩展到 600MHz 5G 频谱。

小型基地台 5G 网路产业概况

小型基地台5G网路市场适度整合。市场上现有的主要供应商包括诺基亚网路公司、思科系统公司、Telefonaktiebolaget LM Ericsson 和高通技术公司。这些公司从事产品开发、策略伙伴关係关係以及併购以推出新产品。然而，许多新供应商（例如 Baicells Technologies）正在进入市场，并且在整个预测期内竞争格局可能会发生变化。

2023 年 10 月，三星解锁了其创新的「Strand Small Cell」。该平檯面向有兴趣利用其现有的基础设施和频谱扩大基于 5G 的蜂窝服务范围的有线通讯供应商。这一一体化平台于去年与 Comcast 合作推出，是该公司计划透过与 Verizon 签订的 MVNO（虚拟行动服务业者）协议来补充其蜂窝服务的计划的核心。现在所有相关人员都可以使用它。

2023 年 10 月，沃达丰和诺基亚宣布加强合作伙伴关係，并计划在义大利进行首个商用 5G 开放无线接取网路(RAN) 测试营运。全球最大的 RAN 供应商之一诺基亚与沃达丰无与伦比的泛欧洲网路的结合为更多独立软体供应商和本地企业使用开放 API 参与提供了一个平台。这将促进竞争和创新，提高欧洲竞争力，并在更具弹性的供应链支持下加强数位自主权。

其他好处

Excel 格式的市场预测 (ME) 表
3 个月分析师支持

Key Highlights

Small cells are expected to be the foundation of future global 5G networks. The deployment of 5G small cells at a large scale and required speed worldwide is made possible by industry coordination, making 5G a reality. Although 5G promises to be cheaper and faster, it requires expanding the wireless network using small cells.
Small cells are essential in the current environment, particularly for applications that demand more bandwidth and the growing number of connected devices. For example, Cisco Systems Inc predicts that 500 billion devices will be online by 2030. Additionally, 5G telecom providers are focused on installing small cells in low-frequency bands to provide customers better coverage.
The increasing mobile data traffic is driving the market growth. According to the Cisco Visual Networking Index (VNI), global mobile data traffic increased at a CAGR of 46% from 2017 to last year, reaching 77.5 exabytes per month. In the previous year, a 5G connection produced around 2.6 times as much traffic as the typical 4G connection, according to Cisco's study.
Small cell deployment is a top priority for various operators, with 60% of operators believing them to be a crucial component of their 4G services. Leading carriers such as Vodafone, AT&T, and Softbank have already implemented small-cell technologies in addition to their macro networks. For example, Verizon has installed small cells in several US cities, including New York, Chicago, Atlanta, and San Francisco.
In addition, 5G can be deployed on existing cellular radio frequencies but may enable operators to use higher radio frequencies (over 20 GHz) to make it operable, especially for mobile services. However, deployment at these frequencies is only possible in constrained areas, and signal penetration is restricted as it does not go through walls. This increases the adoption of small cells for in-building applications, with excellent connectivity for smartphones and IoT devices.
The COVID-19 outbreak had a significant impact on the mobile sector. In the short term, the 5G rollout in several markets will be further delayed, and its services will be the hardest hit. Consumers may be unable to spend on small cell 5G devices as it is still considered a niche market. According to Groupe Speciale Mobile Association (GSMA) Intelligence's consumer survey, most respondents had limited interest in upgrading to 5G services. For instance, according to the report, nearly 80% of consumers in the United Kingdom did not plan to upgrade.

Small Cell 5G Network Market Trends

Telecom Operators Segment is Expected to Grow Significantly

Small cells are equipped to handle large data rates for mobile broadband and IoT users and dense populations of low-speed and low-power devices, making them ideal for the 5G rollout. This characteristic offers millisecond latencies, a million devices per square mile, and extremely high speeds. As a result, telecom operators worldwide are mainly using small cell technology to bring out 5G technology. According to IoT company Telit, major US telecom companies plan to rely heavily on small cell technology for 5G coverage nationwide.
To boost the initiative of providing 5G coverage to consumers, Taiwan's largest telecom operator, Chunghwa Telecom (CHT), teamed up with Nokia for products from its small cells portfolio. In Taiwan, CHT was the first operator to roll out 5G non-standalone (NSA) small cells, providing instant 5G coverage in several places, including commercial and tourism locations.
Nokia will provide CHT with its adaptable AirScale indoor Radio (ASiR) solution and its AirScale micro RRH for outdoor and urban hotspots to improve interior coverage and capacity. In addition to CHT's current base of more than 2,500 sets of 4G small cells, these two solutions will help operators meet the needs of a 5G network's indoor coverage and densification.
Furthermore, the Small Cell Forum (SCF), a telecoms organization that makes mobile infrastructure solutions available to everyone, issued a PHY API for 5G, which has sparked a competitive ecosystem for suppliers of 5G small cell hardware, software, and equipment. Telecom providers benefit from the competitive ecosystem of the SCF by driving up the demand for the 5G network as the demand for data usage and high-speed data rises.
For 5G technologies and networks, telecom operators are searching for a fundamentally new pricing model that might rely on interoperability and an open, competitive environment. As networks get decentralized, the front haul between a distributed unit (DU) for radio functions and a centralized unit (CU) for protocol stacks and baseband functions is a crucial interface.

North America is Expected to Hold a Significant Market Share

North America is considered one of the leading markets due to its widespread use of advanced technology like 5G. In the United States, telecom operators are leveraging small cells to densify their 5G network, particularly in metropolitan areas, while reducing costs. Major operators like Sprint, AT&T, Verizon, and T-Mobile have shown a positive approach toward commercializing 5G networks, with billion-dollar agreements made with network equipment manufacturers such as Samsung, Ericsson, Nokia, Huawei, and ZTE to develop their 5G network infrastructure.
Wireless network operators in the United States are largely embracing small cells. CTIA, the trade association, has forecasted that by 2026, there will be more than 800,000 small cells in the United States, up from about 86,000 in 2018. After the acquisition of Sprint Corporation by T-Mobile US, they have about 70,000 small cells together. The company plans to pour significant amounts of spectrum onto the biggest and densest wireless network in the United States. However, Verizon's small cell strategy differs from T-Mobile's. It expects mmWave to handle 50% of urban traffic eventually and aims to continue deploying around 14,000 small cells over the next few years to expand the overall coverage.
According to the Ericsson Mobility Report, by 2024, 5G subscriptions are anticipated to make up 55% of all mobile subscriptions in the North American region. The market is expected to benefit from the increase in 5G subscriptions over the projected period.
In June 2021, Qualcomm Technologies Inc. launched its second-generation Qualcomm 5G RAN Platform for Small Cells (FSM200xx) in the United States. The platform is designed to expand mobile 5G mmWave coverage and power efficiency, providing data speeds of up to 8 Gbps with bandwidth support of 1 GHz on mmWave, wider 200MHz carrier bandwidth support, and 200 MHz of Sub-6 GHz spectrum aggregation across FDD and TDD, providing data rates of up to 4 Gbps. It also supports technologies like eURLLC to provide low latency and link dependability essential for factory automation and mission-critical control of equipment and machines.
Ericsson has also collaborated with Rogers Communications Inc., a Canadian communication and media company, to install 5G across its network in Canada. The 5G radio access network (RAN) and 5G core (5GC) for Rogers' 5G network are exclusively supplied by Ericsson, and small cells, conventional and Massive MIMO radios, and MINI-LINK microwave technologies are also part of the technology. The Rogers 5G network is initially using a 2.5 GHz band and will expand to operate on the 600 MHz 5G spectrum as the service expands to other markets.

Small Cell 5G Network Industry Overview

The market for small cell 5G networks is moderately consolidated. Some of the key existing vendors in the market include Nokia Networks, Cisco Systems Inc., Telefonaktiebolaget LM Ericsson, and Qualcomm Technologies Inc., among others. These companies implement product development, strategic partnerships, and mergers & acquisitions to launch new products. However, many new vendors, such as Baicells Technologies Co. Ltd, have entered the market, which may change the competitive landscape throughout the forecast period.

In October 2023, Samsung unlocked access to its innovative "Strand Small Cell," which is targeted at cable telecommunication providers interested in expanding the reach of their 5G-based cellular services using already owned infrastructure and spectrum holdings. The all-in-one platform was initially unveiled last year in partnership with Comcast as core to the cable giant's plans to supplement cellular services through a mobile virtual network operator (MVNO) agreement with Verizon. It's now available to all interested parties.

In October 2023, Vodafone and Nokia announced a strengthening of their partnership with plans to run a commercial 5G Open radio access network (RAN) pilot in Italy for the first time. Bringing together Nokia, one of the world's largest RAN providers, and Vodafone's unrivaled pan-European network will provide a platform for more independent software providers and local companies to enter the fray using open APIs. This will encourage competition and innovation, boosting Europe's competitiveness and giving it greater digital autonomy underpinned by a more resilient supply chain.

Additional Benefits:

The market estimate (ME) sheet in Excel format
3 months of analyst support

1 INTRODUCTION

1.1 Study Assumptions and Market Definition
1.2 Scope of the Study

2 RESEARCH METHODOLOGY

3 EXECUTIVE SUMMARY

4 MARKET INSIGHTS

4.1 Market Overview
4.2 Industry Attractiveness - Porter's Five Forces Analysis
- 4.2.1 Bargaining Power of Suppliers
- 4.2.2 Bargaining Power of Consumers
- 4.2.3 Threat of New Entrants
- 4.2.4 Threat of Substitutes
- 4.2.5 Intensity of Competition
4.3 Impact of COVID-19 on the Market

5 MARKET DYNAMICS

5.1 Market Drivers
- 5.1.1 Growing Mobile Data Traffic
- 5.1.2 Evolution of Network Technology and Connectivity Devices
5.2 Market Restraints
- 5.2.1 Poor Backhaul Connectivity

6 TECHNOLOGY SNAPSHOT

6.1 Femtocell
6.2 Picocell
6.3 Microcell
6.4 Metrocell

7 MARKET SEGMENTATION

7.1 By Operating Environment
- 7.1.1 Indoor
- 7.1.2 Outdoor
7.2 By End-User Vertical
- 7.2.1 Telecom Operators
- 7.2.2 Enterprises
- 7.2.3 Residential
7.3 By Geography
- 7.3.1 North America
- 7.3.2 Europe
- 7.3.3 Asia Pacific
- 7.3.4 Rest of the World

8 COMPETITIVE LANDSCAPE

8.1 Company Profiles
- 8.1.1 Airspan Networks Inc.
- 8.1.2 Telefonaktiebolaget LM Ericsson
- 8.1.3 Qualcomm Technologies Inc.
- 8.1.4 Nokia Networks
- 8.1.5 Huawei Technologies Co. Ltd
- 8.1.6 ZTE Corporation
- 8.1.7 CommScope Inc.
- 8.1.8 Cisco Systems Inc.
- 8.1.9 Qucell Inc.
- 8.1.10 Samsung Electronics Co. Ltd
- 8.1.11 NEC Corporation
- 8.1.12 Baicells Technologies Co. Ltd

9 INVESTMENT ANALYSIS

10 FUTURE OPPORTUNITIES

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License/价格

小型基地台5G 网路 -市场占有率分析、产业趋势/统计、成长预测 (2025-2030)

Small Cell 5G Network - Market Share Analysis, Industry Trends & Statistics, Growth Forecasts (2025 - 2030)