Category: News

Industry news and company announcements

  • 5G-Advanced (3GPP Release 18) Commercial Readiness Accelerates: What Telecom Buyers Need to Know About AI-Native RAN, FeMIMO, and NR Multicast for CPE Procurement in 2026

    5G-Advanced (3GPP Release 18) Commercial Readiness Accelerates: What Telecom Buyers Need to Know About AI-Native RAN, FeMIMO, and NR Multicast for CPE Procurement in 2026

    The 3GPP Release 18 specification freeze in mid-2024 formally inaugurated the 5G-Advanced era. Now, in mid-2026, the first wave of Release 18-compliant infrastructure and chipset platforms is reaching commercial maturity — with direct consequences for CPE procurement across the telecom supply chain. For ISPs, mobile operators, MVNOs, and enterprise buyers evaluating next-generation customer premises equipment, understanding which 5G-Advanced features will materialize in shipping CPE silicon over the next 12–18 months is becoming a critical sourcing competency.

    What 5G-Advanced Changes for CPE

    5G-Advanced is not a generational leap like the 4G-to-5G transition. Rather, Release 18 layers intelligence, efficiency, and new service capabilities onto the existing 5G NR foundation. Three feature groups carry the most weight for CPE design and procurement:

    1. AI/ML-Native Air Interface (AI4RAN)

    Release 18 introduces standardized frameworks for AI/ML-based channel state information (CSI) feedback compression, beam management, and positioning accuracy enhancement. For CPE, this translates into modem-side inference capability. Qualcomm’s Snapdragon X80 and MediaTek’s T830 platforms — both sampling in 2026 — integrate dedicated AI tensor accelerators alongside the 5G baseband. The practical outcome for operators: up to 15–25% improvement in cell-edge throughput and 10–18% reduction in handover latency in multi-cell deployments, based on early vendor field trials reported at MWC 2026.

    Procurement implication: RFPs issued in H2 2026 should explicitly request AI-native modem capability with Rel-18 CSI compression support. CPE without this capability will underperform in dense urban and cell-edge scenarios by 2027.

    2. Further Enhanced MIMO (FeMIMO)

    Release 18 extends multi-TRP (multi-transmission reception point) operation with coherent joint transmission across up to 4 TRPs, and increases the number of supported SRS ports for uplink MIMO to 8. For fixed wireless access CPE — particularly outdoor units with directional antenna arrays — FeMIMO enables more granular beam refinement in non-line-of-sight suburban and rural deployments. Early testing by a Tier-1 European operator demonstrated 30–40% downlink throughput gains at 3.5 GHz using 8-layer FeMIMO CPE prototypes compared to Rel-17 4-layer configurations.

    3. NR Multicast-Broadcast Services (NR MBS)

    Release 18 evolves NR MBS with service continuity across gNB boundaries and dynamic resource allocation between unicast and multicast traffic. For CPE vendors, this opens a new product category: hybrid unicast-multicast gateways capable of receiving broadcast IPTV and OTT video streams over 5G infrastructure while simultaneously serving unicast enterprise traffic. Operators in South Korea and Germany have already announced MBS-based IPTV trials using prototype CPE, targeting commercial launch in early 2027.

    Chipset and CPE Roadmap: 2026–2027

    The commercial timeline is consolidating around three phases:

    • H2 2026: First Rel-18 modem samples (Qualcomm X80, MediaTek T830, Samsung Exynos 5400). CPE reference designs available to ODM partners. Early operator lab trials begin.
    • H1 2027: Rel-18 CPE in carrier certification cycles. Commercial-grade FWA and enterprise CPE products reach general availability from Tier-1 ODMs.
    • H2 2027: Volume shipments. Rel-18 features become table stakes for premium-tier FWA CPE. Rel-17 devices begin price-down cycle for cost-sensitive segments.

    What Telecom Buyers Should Do Now

    Telecom procurement teams do not need to wait for 2027 to act. Five near-term actions add immediate value:

    1. Update CPE technical specifications to include Rel-18 readiness clauses — even if delivery is scheduled for 2027, requiring Rel-18 modem architecture in RFP responses ensures vendors commit to the upgrade path.
    2. Request AI/ML modem capability roadmaps from incumbent CPE suppliers. Differentiate between software-upgradable Rel-17 modems and hardware-dependent Rel-18 features.
    3. Evaluate FeMIMO antenna configurations for outdoor FWA CPE. The jump from 4-layer to 8-layer MIMO requires physical antenna array changes that cannot be retrofitted via firmware.
    4. Monitor NR MBS service launches in your target markets. Operators planning IPTV-over-5G will need MBS-capable CPE — creating a first-mover advantage for early adopters.
    5. Align procurement cycles with the H1 2027 certification window. Issuing RFPs in Q3–Q4 2026 positions operators to receive Rel-18 CPE shipments aligned with carrier approval timelines.

    Market Outlook

    ABI Research projects that 5G-Advanced CPE will account for 22% of total FWA CPE shipments by 2028, driven primarily by operator demand for AI-enhanced spectral efficiency and MBS-enabled service differentiation. The transition is incremental rather than disruptive — but for procurement teams, the window to secure Rel-18 roadmap commitments from CPE vendors is narrowing. Operators that embed 5G-Advanced requirements into their 2026 RFPs will be positioned to deploy differentiated services in 2027, while those that wait risk a 12–18 month procurement lag behind early movers.

    Frequently Asked Questions

    What is 5G-Advanced and how is it different from 5G?

    5G-Advanced is the 3GPP designation for Releases 18, 19, and 20 — the mid-life evolution of 5G NR. Unlike the 4G-to-5G transition, 5G-Advanced introduces incremental but commercially significant enhancements including AI-native air interface optimization, enhanced MIMO (FeMIMO), NR multicast-broadcast, and extended reality (XR) optimizations, all within the existing 5G NR framework.

    When will 5G-Advanced CPE be commercially available?

    First commercial-grade 5G-Advanced CPE products are expected to reach general availability in H1 2027, following modem sampling in H2 2026 and carrier certification cycles. Volume shipments are projected for H2 2027.

    Should I delay CPE procurement to wait for 5G-Advanced?

    Not necessarily. Rel-17 CPE remains the appropriate choice for current deployments through mid-2027. However, RFPs issued from Q3 2026 onward should include Rel-18 readiness requirements to ensure vendors commit to the 5G-Advanced upgrade path for deliveries scheduled in 2027 and beyond.

    Which 5G-Advanced features matter most for FWA CPE?

    AI/ML-based CSI compression and beam management offer the most tangible near-term throughput and reliability gains. FeMIMO (8-layer) substantially improves cell-edge and NLOS performance for outdoor CPE. NR MBS creates new service revenue opportunities for operators offering IPTV or multicast content delivery.

    Does Honlly Telecom offer 5G-Advanced ready CPE?

    Honlly Telecom’s 5G CPE product roadmap aligns with the 3GPP Release 18 commercial timeline. Our engineering team is actively engaged with leading chipset vendors on Rel-18 reference designs. Contact our solutions team to discuss your 5G-Advanced CPE requirements and procurement timeline.

    Ready to plan your 5G-Advanced CPE procurement strategy?
    Contact Honlly Telecom’s solutions team for a confidential consultation on Rel-18 roadmap alignment, chipset selection, and custom CPE development.
    Talk to Our Engineering Team →

  • Honlly Launches Global Mobile WiFi for Portable Connectivity Anywhere

    Honlly Launches Global Mobile WiFi for Portable Connectivity Anywhere

    Honlly Telecom has released a new Global Mobile WiFi solution for users and business partners who need simple, portable and private internet access outside fixed broadband environments. The product is designed around a clear idea: people want to stay connected anywhere, any place and any time, without carrying heavy equipment or depending on public WiFi.

    The new Global Mobile WiFi is a small and refined portable hotspot device that can be carried in a pocket, backpack, travel bag or business case. For end users, it provides a personal WiFi network for phones, tablets, laptops and other wireless devices. For operators, MVNOs, travel connectivity providers and distributors, it creates a flexible device platform for regional data packages, roaming services, tourism products, short-term rental programs and branded mobile broadband bundles.

    The demand for mobile internet has changed quickly in recent years. Travelers use navigation, mobile payment, video calls and messaging as soon as they arrive in a new city. Remote workers often need a backup connection outside the office. Families may want to share one mobile broadband connection during holidays, road trips or temporary stays. Small teams also need a reliable option when fixed-line internet is not available or when installation takes too long. A compact Mobile WiFi device answers these needs in a practical way because it turns a mobile network connection into a local private WiFi hotspot.

    Honlly developed the Global Mobile WiFi for these real use cases. The device is lightweight, easy to store and simple to operate. Users can power it on, connect their devices to the WiFi network, and start using mobile internet through the available data service. Compared with using an unknown public hotspot in an airport, hotel, cafe or exhibition hall, a private Mobile WiFi network gives users more control over who connects to the network. This is especially useful for people who handle email, online banking, cloud documents or business communication while traveling.

    Portability is one of the most important design points. The Global Mobile WiFi is made for daily movement, not only for desks. It can be used at home, in a car, at a temporary office, in a hotel room, at a trade show booth, on a business trip or during outdoor activities where mobile coverage is available. The product is small enough for travel, but still designed as a dedicated connectivity device rather than a temporary phone hotspot. This helps users avoid draining a smartphone battery while sharing internet with several devices.

    The device also supports the kind of multi-device experience that modern users expect. A traveler may connect a phone and tablet. A remote worker may connect a laptop and phone at the same time. A family may share one hotspot across several phones during a trip. A small business team may use it as a temporary internet solution during events, pop-up stores or field work. This shared access model makes Global Mobile WiFi useful for both consumer-facing service packages and B2B distribution projects.

    For telecom operators and MVNOs, Honlly sees Global Mobile WiFi as more than a single device. It can become part of a complete service offer. A partner can combine the hardware with prepaid data, pay-as-you-go top-up, local network access, international roaming packages or seasonal travel bundles. Depending on project requirements, Honlly can support OEM and ODM customization, including housing color, logo printing, packaging, firmware interface, default SSID rules, language settings and operator-specific configuration.

    The product direction also fits the growing need for flexible wireless broadband. Fixed broadband remains important, but it does not cover every scenario. Students move between dormitories and rented apartments. Business travelers move between airports, hotels and meetings. Field staff may work from vehicles or temporary locations. Retailers may need quick network access for payment terminals. Families may need a simple connection during vacations. Global Mobile WiFi gives these users a portable bridge between the mobile network and their everyday WiFi devices.

    Ease of use is another focus. Many users do not want complicated setup steps, long contracts or technical configuration before they can get online. A well-designed Mobile WiFi product should be clear, direct and ready for quick deployment. Honlly’s approach is to make the device simple for end users while keeping enough flexibility for service providers and distributors behind the scenes. This balance matters in overseas markets where buyers may need different frequency bands, certification paths, local packaging, SIM rules and after-sales documentation.

    The product is suitable for several target markets. Travel connectivity companies can use it for international visitor packages. MVNOs can use it to sell portable broadband plans without fixed installation. Operators can use it for entry-level mobile broadband programs, short-term users or backup internet service. Distributors can supply it to retail channels, online stores, telecom shops and business buyers. Enterprise customers can use it for temporary offices, field service teams, exhibitions and emergency connectivity.

    Honlly’s manufacturing experience in 4G and 5G wireless products gives the company a strong base for Global Mobile WiFi development. The company works with CPE routers, MiFi devices, industrial routers and outdoor wireless broadband equipment for international customers. This background helps Honlly understand what overseas buyers care about: stable supply, practical hardware design, market-ready packaging, firmware flexibility, certification planning, reliable communication and clear product documentation.

    With the launch of Global Mobile WiFi, Honlly is responding to a simple but powerful market need. Internet access is no longer tied to one room, one cable or one location. Users expect a connection when they travel, work, study, shop, meet customers or move between cities. A compact Mobile WiFi device gives them a familiar WiFi experience through a portable wireless broadband product.

    Honlly will continue to support partners who want to build mobile broadband services for travel, home backup, remote work and operator-branded connectivity projects. The Global Mobile WiFi solution is available for product consultation, sample discussion and OEM/ODM cooperation.

    For more information about Global Mobile WiFi devices, custom branding, firmware options, frequency band planning or distributor cooperation, please contact Honlly Telecom.

    Frequently Asked Questions

    Q1: What does Honlly’s Global Mobile WiFi solution offer for portable connectivity?

    Honlly’s Global Mobile WiFi (MiFi) portfolio includes 4G LTE and 5G NR portable hotspots with multi-band support, eSIM capability for international roaming, all-day battery life (3000+ mAh), up to 32 simultaneous device connections, and compact pocket-sized designs for travelers and remote workers.

    Q2: Who benefits most from portable mobile WiFi solutions?

    Key user groups include: international travelers needing seamless roaming, remote/hybrid workers requiring reliable backup internet, field service teams (utilities, insurance, emergency response), students in accommodation without fixed broadband, and event organizers needing temporary connectivity.

    Q3: What connectivity features does Honlly’s portable WiFi support for global use?

    Devices support: 15+ 4G bands and 8+ 5G NR bands for global compatibility, eSIM with multi-profile switching for local data plans in 100+ countries, Wi-Fi 6 (AX1800) for local connections, VPN pass-through for corporate security, and USB tethering for zero-configuration laptop connectivity.

  • Network Slicing Enters Commercial CPE Deployments in 2026: How URSP-Enabled Devices Are Powering Multi-Service Operator Networks

    Network Slicing Enters Commercial CPE Deployments in 2026: How URSP-Enabled Devices Are Powering Multi-Service Operator Networks

    The telecom industry is entering a new phase of network monetization in 2026, and network slicing stands at the center of it. For operators, ISPs, and MVNOs deploying fixed wireless access (FWA) services, the ability to deliver multiple virtualized network services over a single physical CPE device is transforming the economics of last-mile connectivity.

    3GPP-defined network slicing — formally introduced in Release 15 and matured through Release 18 — enables operators to partition a single 5G physical network into multiple isolated logical networks. Each slice can be optimized for a distinct service profile: ultra-reliable low-latency communications (URLLC) for industrial IoT, enhanced mobile broadband (eMBB) for residential broadband, or massive machine-type communications (mMTC) for smart metering. What changed in 2026 is that this capability has moved from core network trials into commercial CPE silicon.

    URSP: The CPE-Side Enabler of Network Slicing

    The critical CPE-side mechanism for network slicing is the UE Route Selection Policy (URSP), standardized in 3GPP TS 23.503. URSP rules, provisioned by the 5G core network to the CPE device, instruct the modem on how to route application traffic to specific Protocol Data Unit (PDU) sessions — each mapped to a different network slice identified by its Single Network Slice Selection Assistance Information (S-NSSAI).

    In practical terms, a single 5G CPE deployed at an enterprise branch office can simultaneously:

    • Route mission-critical SCADA traffic through a URLLC slice with sub-10ms latency guarantees
    • Deliver enterprise internet access through a standard eMBB slice
    • Terminate a private enterprise APN through a dedicated slice with enhanced security policies
    • Support IoT sensor backhaul through an mMTC slice optimized for low-power devices

    This is not speculative. Qualcomm’s Snapdragon X80 and MediaTek’s T830 modem platforms, shipping in 2026 CPE designs, include hardware-accelerated URSP rule processing with support for up to 8 simultaneous PDU sessions across 4 network slices. Huawei’s Balong 5000-series and Samsung’s Exynos Modem 5400 offer comparable slicing capabilities.

    Commercial Deployment Patterns in 2026

    Several deployment models have emerged across different operator segments:

    Tier-1 Operator Multi-Service FWA: Deutsche Telekom and NTT Docomo have launched commercial FWA tiers that use slicing-aware CPE to differentiate service levels. A single outdoor CPE installation can deliver a base 100 Mbps residential broadband slice alongside a premium 500 Mbps business-grade slice with SLA-backed latency, all provisioned and billed separately through the operator’s BSS/OSS.

    MVNO Slice-as-a-Service: In the US and European markets, MVNOs are leveraging slicing-capable CPE to offer “network-as-a-service” to enterprise customers. The MVNO leases slice capacity from the host MNO and deploys URSP-configured CPE at customer premises, creating a fully virtualized private network without spectrum ownership or RAN infrastructure.

    Private 5G Hybrid Slicing: System integrators serving manufacturing and logistics verticals are deploying CPE that bridges a local private 5G NPN slice with a public MNO slice on the same device. This eliminates the dual-CPE architecture previously required for hybrid private/public deployments.

    CPE Procurement Implications for Operators

    For operators and ISPs evaluating CPE for slicing-capable networks in 2026, several technical requirements have become non-negotiable:

    1. URSP rule capacity: The CPE must support a minimum of 8 URSP rules with traffic descriptor matching at IP 5-tuple, Application ID (OSId/OSAppId), and DNN levels. Devices limited to IP-based routing only will not meet operator requirements for application-aware slicing.
    2. Multi-PDU session concurrency: At least 4 simultaneous PDU sessions, each independently addressable by the CPE’s internal routing table, with per-session QoS flow mapping.
    3. S-NSSAI configuration interface: Operators need a standardized management interface — TR-369 USP or a vendor MQTT-based API — to push S-NSSAI to DNN mappings to deployed CPE fleets without requiring firmware updates.
    4. Per-slice throughput enforcement: The CPE must enforce per-slice rate limiting at the IP forwarding layer to prevent one slice from consuming another slice’s guaranteed bandwidth.
    5. Slice isolation verification: Operators increasingly require CPE that can generate slice-level performance telemetry (latency, jitter, packet loss per S-NSSAI) for SLA compliance reporting.

    Market Outlook

    ABI Research estimates that slicing-capable 5G CPE will represent approximately 22% of total 5G FWA CPE shipments in 2026, growing to over 50% by 2028. The driver is not technology push but operator business pull: slicing transforms CPE from a cost center into a revenue multiplier, enabling a single customer premises installation to generate multiple recurring revenue streams.

    For CPE manufacturers, supporting URSP and multi-slice architectures is no longer optional for Tier-1 and Tier-2 operator RFPs. The procurement language is shifting from “5G NR capable” to “3GPP Release 18 slicing compliant with URSP support verified through GCF/PTCRB certification.”

    Frequently Asked Questions

    What is network slicing in 5G CPE?

    Network slicing in 5G CPE enables a single physical router to connect to multiple virtualized 5G network slices simultaneously, each optimized for different service requirements — such as ultra-low latency for industrial control, high bandwidth for internet access, and massive IoT connectivity for sensor networks.

    What is URSP and why does it matter for CPE procurement?

    UE Route Selection Policy (URSP) is the 3GPP-standardized mechanism that governs how a 5G CPE routes application traffic to specific network slices. For operators, URSP support in CPE is essential for delivering differentiated, SLA-backed services over a single device — enabling multi-revenue-stream business models from one customer installation.

    How many network slices can a 2026 CPE support simultaneously?

    Leading 2026 5G CPE platforms based on Qualcomm X80 and MediaTek T830 modems support up to 8 simultaneous PDU sessions across 4 distinct network slices, with per-slice QoS enforcement and isolated throughput management.

    Explore Honlly Telecom’s 5G CPE portfolio designed for carrier-grade slicing deployments. Contact our solutions team to discuss URSP-compliant CPE for your network slicing roadmap.

  • eSIM Technology Reshapes Fixed Wireless Access: How eUICC-Enabled CPE Is Simplifying Global Operator Deployments in 2026

    eSIM Technology Reshapes Fixed Wireless Access: How eUICC-Enabled CPE Is Simplifying Global Operator Deployments in 2026

    The fixed wireless access (FWA) market has matured rapidly over the past three years, with global 5G FWA subscriptions now exceeding 20 million. Behind this growth lies a less visible but equally significant shift: the transition from traditional removable SIM cards to embedded SIM (eSIM) and eUICC (embedded Universal Integrated Circuit Card) technology in customer premises equipment (CPE).

    For telecom operators, ISPs, and MVNOs managing multi-country deployments, eUICC-enabled CPE represents more than a hardware simplification. It is a logistics multiplier that can reduce time-to-market, eliminate physical SIM handling, and enable remote subscriber provisioning (RSP) across different mobile network operators (MNOs).

    The eUICC Advantage in FWA Deployments

    Traditional FWA CPE relies on physical SIM cards that must be manufactured, shipped, inserted, and activated for each device. In a large-scale deployment involving tens of thousands of units across multiple countries, the operational friction is substantial. eUICC technology eliminates this physical dependency.

    With GSMA-compliant RSP, operators can provision SIM profiles over-the-air (OTA) after the CPE has been installed at the end-user location. This means a single SKU can serve multiple markets, with the appropriate operator profile downloaded based on geographic location, signal quality, or commercial agreement. For distributors and system integrators managing inventory across regions, this dramatically simplifies warehousing and logistics.

    Key Deployment Scenarios

    Several operators in Europe and Asia-Pacific have begun deploying eUICC FWA CPE in production networks. The primary use cases include:

    • Multi-IMSI Roaming: CPE devices pre-loaded with multiple international mobile subscriber identities (IMSI) can switch between partner networks based on signal strength or cost optimization, ensuring service continuity for enterprise customers.
    • Cross-Border Deployments: For operators serving border regions or multinational enterprise clients, eSIM allows a single device model to connect to different MNOs on either side of a border without hardware changes.
    • MVNO Enablement: Mobile virtual network operators can rapidly onboard subscribers by remotely provisioning their own profiles onto eUICC CPE without negotiating physical SIM distribution agreements.
    • IoT and Private 5G Integration: Fixed wireless gateways serving industrial IoT or private 5G networks benefit from eSIM flexibility when transitioning between public and private network identities.

    Market Momentum and Standards

    The GSMA SGP.22 (M2M) and SGP.32 (IoT) specifications have matured to support consumer and industrial eSIM profiles. In parallel, chipset vendors including Qualcomm and MediaTek have integrated eUICC support into their 5G modem platforms — the same platforms powering modern FWA CPE from OEM/ODM manufacturers in Asia.

    According to industry data, eSIM-capable device shipments are projected to exceed 3.5 billion units annually by 2027, with FWA CPE comprising a growing share. The GSMA estimates that over 400 mobile operators worldwide now support eSIM services, creating a broad ecosystem for eUICC-enabled fixed wireless equipment.

    OEM Readiness and Supply Chain Implications

    For the OEM/ODM manufacturing sector — particularly in Shenzhen and Xiamen, where a significant portion of global FWA CPE is produced — eUICC integration is becoming a standard requirement in RFQs from tier-1 operators. Manufacturers that have pre-certified their designs with major eUICC platform providers (such as Thales, G+D, and IDEMIA) hold a competitive advantage in operator tenders.

    Honlly Telecom has observed a 40% increase in operator inquiries specifying eSIM-ready CPE over the past twelve months, with particular demand from European operators preparing for multi-country 5G FWA rollouts under the Digital Decade 2030 framework. The ability to ship a single hardware variant configurable for any target market is becoming a procurement requirement rather than a nice-to-have feature.

    Challenges and Considerations

    Despite clear advantages, eUICC adoption in FWA is not without challenges. Interoperability testing between eUICC profiles and modem firmware requires close collaboration between chipset vendors, CPE manufacturers, and SIM platform providers. Regulatory frameworks for permanent roaming and cross-border profile switching vary by jurisdiction, and operators must navigate these carefully.

    Additionally, the per-unit BOM cost increase for eUICC integration — typically $2–5 USD depending on the secure element implementation — must be weighed against logistics savings and operational flexibility. For large-scale deployments exceeding 100,000 units, the logistics savings alone typically justify the hardware premium within the first year of operation.

    FAQ

    What is the difference between eSIM and eUICC?

    eSIM refers to the physical embedded SIM hardware soldered onto the device PCB. eUICC is the software architecture that enables remote SIM profile management — downloading, enabling, disabling, and deleting operator profiles OTA. A device can have an eSIM that is not eUICC-compliant, though most modern implementations combine both.

    Can existing FWA CPE be retrofitted with eSIM?

    Generally no. eSIM requires dedicated hardware (soldered secure element) and modem firmware support. Retrofitting would require hardware redesign. However, some manufacturers offer dual-SIM designs (one physical SIM slot + one eSIM) for transitional deployments.

    How does eUICC affect certification timelines?

    eUICC CPE must undergo additional GCF/PTCRB certification for the eSIM component. However, because a single hardware design can serve multiple operators, the total certification burden across markets is often lower compared to maintaining separate SKUs with different physical SIM configurations.

    Which operators are leading eSIM FWA deployments?

    European operators including Deutsche Telekom, Vodafone, and Orange have active eSIM FWA programs. In North America, T-Mobile has deployed eSIM-capable FWA CPE for its 5G Home Internet service. Multiple operators in Japan, Australia, and the Middle East are following with commercial launches planned for late 2026.

    Looking for eSIM-ready 5G FWA CPE for your network deployment? Honlly Telecom offers eUICC-enabled fixed wireless access devices with multi-IMSI support and GSMA-compliant remote SIM provisioning. Contact our team today to discuss your requirements.

  • Global MVNO Market Surpasses $100 Billion Valuation in 2026: CPE Customization Requirements for Virtual Network Operators Scaling Enterprise Services

    Global MVNO Market Surpasses $100 Billion Valuation in 2026: CPE Customization Requirements for Virtual Network Operators Scaling Enterprise Services

    The global Mobile Virtual Network Operator (MVNO) market has crossed the $100 billion valuation threshold in 2026, driven by enterprise digital transformation, IoT connectivity demand, and the expanding 5G wholesale access market. For CPE manufacturers, this milestone signals a fundamental shift in device requirements: MVNOs need customizable, brand-ready customer premises equipment that can be rapidly deployed across multiple host operator networks.

    The MVNO Growth Trajectory: $100B and Accelerating

    According to GSMA Intelligence and multiple industry analyst reports, the global MVNO market reached an estimated $102 billion in revenue during the first half of 2026, with a compound annual growth rate exceeding 8.5% since 2023. Key growth drivers include:

    • Enterprise MVNOs: Large corporations launching private-branded mobile services for employees and IoT fleets, requiring customized CPE with enterprise-grade management features.
    • IoT-Focused MVNOs: Specialized operators serving smart metering, fleet telematics, and industrial sensor networks, demanding ruggedized routers with low-power wide-area connectivity.
    • 5G Wholesale Expansion: MNOs increasingly opening 5G Standalone (SA) cores to MVNO partners, enabling differentiated network slicing and QoS-tiered CPE offerings.
    • Regulatory Support: Markets including the EU, Southeast Asia, and Latin America continue mandating MVNO access as a competition-enhancing measure.

    CPE Implications: What MVNO Buyers Need from Device Suppliers

    Unlike traditional MNOs that order CPE in standardized, carrier-branded configurations, MVNOs present distinct device requirements that CPE manufacturers must address:

    1. Multi-IMSI and Multi-PLMN Support

    MVNOs frequently operate across multiple host networks and geographies. CPE must support multi-IMSI profiles — ideally with eSIM/eUICC capability — allowing devices to switch between host operator profiles based on coverage, cost, or service-level agreements. This requires modem firmware flexibility and GSMA SGP.02/SGP.22 compliant eSIM architectures.

    2. White-Label Branding and Customizable UI

    MVNOs sell under their own brand identity, not the host MNO’s. CPE must support white-label device firmware with customizable web UI branding, logo placement, SSID defaults, and packaging design. Manufacturers offering OEM/ODM flexibility with low minimum order quantities for branded firmware gain significant competitive advantage in the MVNO segment.

    3. Remote Provisioning and Zero-Touch Deployment

    MVNOs typically lack the field engineering resources of MNOs. CPE must support TR-069/TR-369 auto-configuration server (ACS) integration, allowing subscriber devices to be provisioned remotely upon first power-on. Zero-touch onboarding reduces operational costs and subscriber churn — critical metrics for margin-sensitive MVNOs.

    4. Flexible APN and PDP Context Configuration

    MVNOs often use their own Access Point Name (APN) configurations that route traffic through MVNO core network elements before reaching the host MNO’s packet gateway. CPE must support multiple APN profiles, dynamic PDP context activation, and VLAN tagging for service differentiation — features that enable MVNOs to offer tiered data plans and managed SD-WAN services.

    5. Cost-Optimized Hardware Platforms

    MVNOs operate on thinner margins than facility-based operators. CPE hardware must balance performance with aggressive BOM cost targets. Cat-4 and Cat-6 LTE platforms remain dominant in MVNO deployments, with Cat-12 gaining traction in markets where 5G wholesale access remains cost-prohibitive. Modular RF design — allowing the same enclosure to serve 4G and 5G variants — is increasingly valued.

    Regional Hotspots for MVNO CPE Demand

    • Europe: Mature MVNO ecosystem; eSIM-capable CPE demand driven by cross-border IoT and roaming-intensive enterprise services.
    • Southeast Asia: Rapidly growing MVNO segment in Indonesia, Philippines, and Thailand; demand for affordable LTE Cat-4/Cat-6 fixed wireless CPE.
    • Latin America: Regulatory-driven MVNO expansion in Brazil and Mexico; need for multi-band LTE routers supporting regional frequency bands (B2, B4, B5, B7, B28).
    • Middle East & Africa: MVNOs serving migrant communities and enterprise connectivity; demand for portable MiFi and desktop CPE with long battery life.

    Strategic Outlook for CPE Manufacturers

    The MVNO segment represents a high-volume, recurring-revenue opportunity for CPE suppliers. To capture this market, manufacturers should invest in: flexible firmware platforms supporting multi-tenant branding, eSIM-ready hardware designs, simplified TR-069/TR-369 provisioning profiles, and SKU rationalization that serves both MNO and MVNO requirements from common hardware platforms. As 5G SA wholesale access matures through 2027-2028, MVNOs will increasingly demand 5G CPE with network slicing awareness — a capability that early-moving manufacturers can build into their product roadmaps today.

    Frequently Asked Questions

    What types of CPE do MVNOs typically purchase?

    MVNOs primarily purchase LTE Cat-4 and Cat-6 fixed wireless CPE, portable MiFi devices, and USB dongles. Enterprise-focused MVNOs also procure industrial-grade routers with multi-WAN failover. The common requirement across all categories is support for multiple host operator profiles and remote device management.

    How does MVNO CPE differ from standard MNO CPE?

    The key differences are: white-label branding capability, multi-IMSI/eSIM support for host operator switching, simplified zero-touch provisioning, and cost-optimized hardware designs. MVNOs also require more flexible APN and data routing configurations than single-operator MNOs.

    What is the minimum order quantity for MVNO-branded CPE?

    Minimum order quantities vary by manufacturer. Honlly Telecom offers flexible OEM/ODM programs with competitive MOQs for MVNO customers, including customized firmware branding and packaging. Contact our sales team for a project-specific quotation.

    Looking for MVNO-optimized CPE solutions? Contact Honlly Telecom to discuss your device requirements — from customized firmware to flexible order quantities. Get in touch with our team →

  • Wi-Fi 7 SoC Shipments Surge in H1 2026: CPE Manufacturers Accelerate Multi-Link Operation Integration for Carrier-Grade Gateways

    Wi-Fi 7 SoC Shipments Surge in H1 2026: CPE Manufacturers Accelerate Multi-Link Operation Integration for Carrier-Grade Gateways

    The Wi-Fi 7 silicon market is experiencing an extraordinary growth trajectory in the first half of 2026, with system-on-chip (SoC) shipments more than tripling compared to the same period in 2025. Industry analysts at ABI Research and Counterpoint report that combined shipments from Qualcomm, Broadcom, MediaTek, and MaxLinear exceeded 180 million units in H1 2026, driven primarily by carrier-grade CPE (Customer Premises Equipment) design wins and enterprise access point refresh cycles.

    The Silicon Race: Qualcomm, Broadcom, and MediaTek Battle for CPE Design Wins

    Qualcomm’s Networking Pro 1620 and 1220 platforms have secured over 400 CPE design wins globally as of Q2 2026, according to the company’s latest earnings disclosures. The San Diego-based chipmaker has seen particularly strong traction in the North American FWA (Fixed Wireless Access) segment, where operators including T-Mobile and Verizon have begun qualifying Wi-Fi 7-capable CPE for their 5G Home Internet services. Qualcomm’s multi-link operation (MLO) implementation supports simultaneous 5 GHz + 6 GHz link aggregation, delivering sustained throughput exceeding 5 Gbps in real-world operator trials.

    Broadcom’s BCM6765 and BCM4777 platforms, announced at CES 2026, have captured significant share in the European carrier CPE market. Deutsche Telekom and BT Group have both included Wi-Fi 7 as a mandatory requirement in recent FWA CPE RFPs. Broadcom’s strength lies in its integrated PON + Wi-Fi 7 SoC solutions, which allow operators to deploy a single gateway platform across both fiber and FWA access technologies.

    MediaTek’s Filogic 880 and Filogic 380 chipsets continue to gain ground in the Asia-Pacific and Latin American markets, where cost-optimized Wi-Fi 7 CPE is critical for price-sensitive operator deployments. MediaTek’s reference designs have enabled second-tier CPE ODMs to bring Wi-Fi 7 gateways to market at price points approximately 25-30% below comparable Qualcomm-based solutions.

    Multi-Link Operation: The Killer Feature Driving Carrier Adoption

    Multi-Link Operation (MLO) — the defining technical feature of the IEEE 802.11be standard — has emerged as the primary differentiator driving operator interest in Wi-Fi 7 CPE. MLO enables simultaneous transmission and reception across multiple frequency bands (2.4 GHz, 5 GHz, and 6 GHz), delivering both aggregate throughput gains and latency reductions critical for carrier-grade service delivery.

    In operator lab testing conducted by the Broadband Forum in Q1 2026, Wi-Fi 7 CPE with MLO enabled demonstrated a 72% reduction in 99th-percentile latency compared to Wi-Fi 6E devices under multi-client load conditions. For operators delivering latency-sensitive services such as cloud gaming, enterprise VPN, and real-time video conferencing over FWA, this improvement represents a compelling business case for accelerated Wi-Fi 7 CPE deployment.

    Operator Deployment Momentum in Europe and North America

    The European telecommunications landscape has seen several significant Wi-Fi 7 CPE announcements in 2026. Vodafone Group launched its “Pro II” Wi-Fi 7 gateway across seven European markets in February 2026, with the device manufactured by Sagemcom using a Qualcomm Networking Pro 1220 platform. Proximus Belgium and KPN Netherlands followed with similar announcements in March and April respectively, both selecting Broadcom-based Wi-Fi 7 gateways for their fiber and FWA subscriber bases.

    In North America, the cable MSO segment has been particularly aggressive in Wi-Fi 7 adoption. Comcast’s XB10 gateway, powered by Broadcom’s Wi-Fi 7 silicon, began volume deployment in January 2026 and has now reached over 4 million households. Charter Communications and Cox Communications have both announced Wi-Fi 7 gateway roadmaps with expected volume shipments commencing in Q3 2026.

    The FWA segment presents a particularly interesting Wi-Fi 7 CPE opportunity. As 5G-Advanced networks with downlink speeds approaching 10 Gbps come online in 2026-2027, Wi-Fi 6E gateways become the bottleneck in the end-to-end service delivery chain. Wi-Fi 7’s theoretical maximum throughput of 46 Gbps ensures that the indoor access link no longer constrains the 5G WAN connection — an architectural requirement that is increasingly being written into operator CPE specifications.

    ODM Manufacturing Implications: Time-to-Market Pressure Intensifies

    For CPE ODMs, the Wi-Fi 7 transition presents both opportunity and challenge. Reference designs from Qualcomm and Broadcom have matured significantly since the initial Wi-Fi 7 silicon launched in 2024, reducing typical design-to-production cycles from 18 months to approximately 9-12 months. However, the complexity of MLO antenna design, 6 GHz regulatory compliance testing, and thermal management for multi-radio platforms continue to require significant RF engineering investment.

    Honlly Telecom’s engineering team reports that Wi-Fi 7 CPE designs with 4×4 MIMO on 6 GHz, 4×4 MIMO on 5 GHz, and 2×2 MIMO on 2.4 GHz — a triband 10-stream configuration increasingly specified by European operators — require approximately 40% more PCB real estate and 35% higher power budget compared to equivalent Wi-Fi 6E designs. Effective thermal design, including heatsink engineering and ventilation optimization, has become a critical competency for ODM partners seeking Wi-Fi 7 CPE design wins.

    Industry Outlook: H2 2026 and Beyond

    Looking ahead, industry analysts project that Wi-Fi 7 SoC shipments will exceed 500 million units for the full year 2026, representing approximately 12% of total Wi-Fi chipset shipments. The Wi-Fi Alliance reports that over 1,200 devices have received Wi-Fi 7 certification as of May 2026, up from approximately 400 devices at the end of 2025.

    For telecom operators and ISPs evaluating their CPE roadmaps, the key strategic question is no longer whether to adopt Wi-Fi 7, but how quickly to transition. With Wi-Fi 7 silicon pricing now within 15-20% of comparable Wi-Fi 6E solutions at volume, the economic case for direct-to-Wi-Fi-7 CPE procurement is compelling — particularly for operators launching new FWA services where the CPE represents the subscriber’s primary broadband experience.

    The convergence of 5G-Advanced WAN capacity with Wi-Fi 7 indoor coverage represents a generational shift in fixed wireless broadband architecture. CPE manufacturers and ODMs that can deliver production-ready, carrier-certified Wi-Fi 7 gateways today are positioned to capture significant market share as the operator upgrade cycle accelerates through 2026 and into 2027.

    Frequently Asked Questions

    What is driving Wi-Fi 7 SoC shipment growth in 2026?

    Three primary factors are driving growth: (1) Carrier CPE refresh cycles as operators upgrade from Wi-Fi 6/6E to Wi-Fi 7 gateways for FWA and fiber services; (2) enterprise access point replacement cycles with Wi-Fi 7 models supporting Multi-Link Operation; and (3) declining silicon costs making Wi-Fi 7 economically viable for mid-range CPE segments.

    How does Multi-Link Operation (MLO) improve CPE performance?

    MLO enables simultaneous data transmission across multiple frequency bands (2.4 GHz, 5 GHz, and 6 GHz), providing three key benefits: higher aggregate throughput by combining bandwidth across bands; reduced latency through simultaneous link redundancy; and improved reliability via dynamic band switching when interference is detected on one channel.

    Which chipset vendors lead the Wi-Fi 7 CPE market?

    Qualcomm (Networking Pro series) leads in FWA and premium operator gateway designs; Broadcom (BCM6765/BCM4777) dominates in cable MSO and integrated PON+Wi-Fi gateways; MediaTek (Filogic 880/380) captures share in cost-optimized and APAC-focused CPE designs.

    When should operators transition CPE procurement from Wi-Fi 6E to Wi-Fi 7?

    Operators launching new FWA or fiber services in 2026 should procure Wi-Fi 7 CPE directly, as silicon pricing is now within 15-20% of Wi-Fi 6E equivalents and the performance gap is substantial. Operators with existing large Wi-Fi 6E installed bases may adopt a phased transition, prioritizing Wi-Fi 7 for premium service tiers and new subscriber acquisitions.

    Looking for Wi-Fi 7 CPE solutions for your operator network? Honlly Telecom offers carrier-grade Wi-Fi 7 gateways with Qualcomm and MediaTek platforms, supporting MLO, 320 MHz channels, and 4K-QAM. Contact our engineering team today to discuss your CPE requirements.

  • TR-369 User Services Platform Gains Traction in 2026 Carrier CPE Deployments: The Transition Away from TR-069 for Next-Generation Device Management

    TR-369 User Services Platform Gains Traction in 2026 Carrier CPE Deployments: The Transition Away from TR-069 for Next-Generation Device Management

    The Broadband Forum’s TR-369 User Services Platform (USP) is experiencing its steepest adoption curve to date in 2026, as telecommunications operators across Europe, North America, and Asia-Pacific accelerate their migration away from the aging TR-069 (CWMP) protocol. With over 40 million USP-capable CPE devices now in active deployment globally, the industry is reaching a decisive inflection point in device management architecture.

    TR-069 served the broadband industry capably for nearly two decades, providing basic provisioning, firmware updates, and diagnostics for residential gateways. But as operator networks evolve toward virtualized, multi-service, and AI-driven operations, CWMP’s limitations—synchronous request-response architecture, limited security model, and inability to support complex IoT and multi-tenant scenarios—have become untenable at scale.

    What Makes TR-369 Fundamentally Different

    TR-369 USP represents a complete architectural redesign rather than an incremental upgrade. Built around a microservices-oriented, event-driven architecture, USP uses a message bus paradigm where devices, controllers, and applications communicate asynchronously through a common data model derived from TR-181 Device:2. This enables operators to push configuration changes simultaneously across thousands of devices, receive real-time telemetry without polling, and implement zero-touch provisioning at wire speed.

    Key technical advantages over TR-069 include: native TLS 1.3 encryption with mutual certificate-based authentication; MQTT and WebSocket transport protocols replacing unreliable HTTP sessions; multi-controller support allowing a single CPE to be managed by both the operator and enterprise IT simultaneously; and a subscription-notification mechanism that eliminates the bandwidth overhead of periodic CWMP Inform messages.

    Carrier Adoption Milestones in 2026

    Several Tier-1 operators have made public commitments to full USP migration in 2026. Deutsche Telekom has mandated USP support in all new CPE procurement tenders for its European subsidiaries. BT Group’s Openreach network now requires USP compliance for any FTTP CPE connecting to its wholesale fiber platform. In North America, three major cable MSOs have begun USP field trials for their next-generation DOCSIS 4.0 gateways, targeting production deployment by Q4 2026.

    For CPE manufacturers, this shift carries significant implications. Devices must now support the full USP 1.3 agent specification, including the Software Module Management (SMM) service for containerized application deployment and the IoT data model extensions standardized in TR-181. Carriers are increasingly evaluating CPE vendors not just on radio performance and price, but on the maturity of their USP implementation—including certification status from BBF.067 compliance testing.

    Market Implications for CPE Procurement

    Industry analysts project that USP-capable CPE will account for 65% of all new carrier gateway shipments by 2027. The immediate procurement impact is twofold: operators must dual-stack their ACS (Auto Configuration Server) environments to support both TR-069 and TR-369 during the multi-year transition, while CPE manufacturers face increased software development costs to implement, test, and certify USP agents across their product lines.

    For operators still in the RFP stage for 5G FWA and next-gen broadband CPE, USP compliance should be a mandatory line item in technical specifications. The protocol’s support for bulk provisioning, real-time performance monitoring, and multi-tenancy directly influences operational OPEX and customer experience KPIs. Waiting until 2027 to mandate USP risks deploying a fleet of devices that will require costly software upgrades or premature replacement within 18-24 months.

    The TR-369 ecosystem continues to mature rapidly. Open-source USP agent implementations are now available from prpl Foundation and RDK-B, reducing integration barriers. Commercial ACS/controller platforms from Axiros, Friendly Technologies, and Incognito have all released production-grade USP support. The industry consensus at Broadband World Forum 2025 was unambiguous: TR-069 is in its final chapter, and the operators moving fastest on USP adoption will gain measurable operational advantages in device lifecycle management, security posture, and service agility.

    Frequently Asked Questions

    Q: What is TR-369 USP and how does it differ from TR-069?

    TR-369 User Services Platform (USP) is the Broadband Forum’s next-generation device management protocol that replaces TR-069 (CWMP). Unlike TR-069’s synchronous HTTP-based request-response model, USP uses an asynchronous message bus architecture with MQTT/WebSocket transport, TLS 1.3 encryption, multi-controller support, and real-time telemetry subscriptions. It enables operators to manage devices more efficiently at scale and supports modern use cases like IoT, multi-tenancy, and containerized application deployment.

    Q: When should operators mandate USP support in CPE RFPs?

    Operators should include USP 1.3 compliance as a mandatory requirement in all new CPE procurement tenders starting in 2026. Major carriers including Deutsche Telekom and BT Group have already done so. Delaying USP requirements until 2027-2028 risks deploying devices that will require premature replacement or costly software upgrades within the typical 3-5 year CPE lifecycle.

    Q: Can USP and TR-069 coexist during the transition period?

    Yes. Operators typically dual-stack their ACS/controller environment to support both protocols simultaneously during the multi-year migration. Many CPE vendors now offer devices with both TR-069 and USP agents, allowing gradual fleet migration. The USP specification also defines a proxy mechanism for managing legacy TR-069 devices through a USP controller.

    Contact Honlly Telecom for CPE Solutions →
  • TR-369 User Services Platform Gains Traction in 2026 Carrier CPE Deployments: The Transition Away from TR-069 for Next-Generation Device Management

    TR-369 User Services Platform Gains Traction in 2026 Carrier CPE Deployments: The Transition Away from TR-069 for Next-Generation Device Management

    The Broadband Forum’s TR-369 User Services Platform (USP) is experiencing its steepest adoption curve to date in 2026, as telecommunications operators across Europe, North America, and Asia-Pacific accelerate their migration away from the aging TR-069 (CWMP) protocol. With over 40 million USP-capable CPE devices now in active deployment globally, the industry is reaching a decisive inflection point in device management architecture.

    TR-069 served the broadband industry capably for nearly two decades, providing basic provisioning, firmware updates, and diagnostics for residential gateways. But as operator networks evolve toward virtualized, multi-service, and AI-driven operations, CWMP’s limitations—synchronous request-response architecture, limited security model, and inability to support complex IoT and multi-tenant scenarios—have become untenable at scale.

    What Makes TR-369 Fundamentally Different

    TR-369 USP represents a complete architectural redesign rather than an incremental upgrade. Built around a microservices-oriented, event-driven architecture, USP uses a message bus paradigm where devices, controllers, and applications communicate asynchronously through a common data model derived from TR-181 Device:2. This enables operators to push configuration changes simultaneously across thousands of devices, receive real-time telemetry without polling, and implement zero-touch provisioning at wire speed.

    Key technical advantages over TR-069 include: native TLS 1.3 encryption with mutual certificate-based authentication; MQTT and WebSocket transport protocols replacing unreliable HTTP sessions; multi-controller support allowing a single CPE to be managed by both the operator and enterprise IT simultaneously; and a subscription-notification mechanism that eliminates the bandwidth overhead of periodic CWMP Inform messages.

    Carrier Adoption Milestones in 2026

    Several Tier-1 operators have made public commitments to full USP migration in 2026. Deutsche Telekom has mandated USP support in all new CPE procurement tenders for its European subsidiaries. BT Group’s Openreach network now requires USP compliance for any FTTP CPE connecting to its wholesale fiber platform. In North America, three major cable MSOs have begun USP field trials for their next-generation DOCSIS 4.0 gateways, targeting production deployment by Q4 2026.

    For CPE manufacturers, this shift carries significant implications. Devices must now support the full USP 1.3 agent specification, including the Software Module Management (SMM) service for containerized application deployment and the IoT data model extensions standardized in TR-181. Carriers are increasingly evaluating CPE vendors not just on radio performance and price, but on the maturity of their USP implementation—including certification status from BBF.067 compliance testing.

    Market Implications for CPE Procurement

    Industry analysts project that USP-capable CPE will account for 65% of all new carrier gateway shipments by 2027. The immediate procurement impact is twofold: operators must dual-stack their ACS (Auto Configuration Server) environments to support both TR-069 and TR-369 during the multi-year transition, while CPE manufacturers face increased software development costs to implement, test, and certify USP agents across their product lines.

    For operators still in the RFP stage for 5G FWA and next-gen broadband CPE, USP compliance should be a mandatory line item in technical specifications. The protocol’s support for bulk provisioning, real-time performance monitoring, and multi-tenancy directly influences operational OPEX and customer experience KPIs. Waiting until 2027 to mandate USP risks deploying a fleet of devices that will require costly software upgrades or premature replacement within 18-24 months.

    The TR-369 ecosystem continues to mature rapidly. Open-source USP agent implementations are now available from prpl Foundation and RDK-B, reducing integration barriers. Commercial ACS/controller platforms from Axiros, Friendly Technologies, and Incognito have all released production-grade USP support. The industry consensus at Broadband World Forum 2025 was unambiguous: TR-069 is in its final chapter, and the operators moving fastest on USP adoption will gain measurable operational advantages in device lifecycle management, security posture, and service agility.

    Frequently Asked Questions

    Q: What is TR-369 USP and how does it differ from TR-069?

    TR-369 User Services Platform (USP) is the Broadband Forum’s next-generation device management protocol that replaces TR-069 (CWMP). Unlike TR-069’s synchronous HTTP-based request-response model, USP uses an asynchronous message bus architecture with MQTT/WebSocket transport, TLS 1.3 encryption, multi-controller support, and real-time telemetry subscriptions. It enables operators to manage devices more efficiently at scale and supports modern use cases like IoT, multi-tenancy, and containerized application deployment.

    Q: When should operators mandate USP support in CPE RFPs?

    Operators should include USP 1.3 compliance as a mandatory requirement in all new CPE procurement tenders starting in 2026. Major carriers including Deutsche Telekom and BT Group have already done so. Delaying USP requirements until 2027-2028 risks deploying devices that will require premature replacement or costly software upgrades within the typical 3-5 year CPE lifecycle.

    Q: Can USP and TR-069 coexist during the transition period?

    Yes. Operators typically dual-stack their ACS/controller environment to support both protocols simultaneously during the multi-year migration. Many CPE vendors now offer devices with both TR-069 and USP agents, allowing gradual fleet migration. The USP specification also defines a proxy mechanism for managing legacy TR-069 devices through a USP controller.

    Contact Honlly Telecom for CPE Solutions →
  • Private 5G (NPN) Deployments Accelerate in 2026: CPE Requirements for Enterprise Industrial Networks

    Private 5G (NPN) Deployments Accelerate in 2026: CPE Requirements for Enterprise Industrial Networks

    Private 5G — formally defined in 3GPP as Non-Public Network (NPN) — is moving from pilot projects to production deployments across manufacturing, logistics, mining, and utilities in 2026. According to industry analysts, the global private 5G market is projected to exceed USD 12 billion by 2027, driven by enterprises seeking deterministic wireless connectivity that Wi-Fi cannot deliver in demanding industrial environments.

    The 2026 Acceleration: What’s Driving It

    Three trends are converging in 2026 to accelerate NPN adoption:

    • Spectrum availability: Regulators in Germany (3.7\u20133.8 GHz), the UK (n77 band), Japan (4.6\u20134.9 GHz), and the US (CBRS 3.55\u20133.7 GHz) now offer dedicated enterprise spectrum, removing the dependency on mobile operator partnerships for private deployments.
    • Device ecosystem maturity: Qualcomm, MediaTek, and UNISOC now offer chipsets with native NPN support, meaning CPE vendors can deliver NPN-capable devices without expensive customization.
    • Industry 4.0 ROI cases: Early adopters in automotive manufacturing and logistics are reporting measurable outcomes — 30\u201350% reduction in production line reconfiguration time, sub-10 ms latency for AGV (Automated Guided Vehicle) control, and 99.999% reliability in harsh RF environments.

    What NPN Means for CPE Requirements

    Enterprise-grade NPN CPE must meet requirements that differ significantly from consumer or even standard carrier-grade devices:

    • Standalone NPN (SNPN) support: The CPE must operate on an isolated 5G core without connecting to a public network. This requires SNPN-capable firmware with support for Network Identifier (NID) and manual PLMN selection restricted to the enterprise designated network.
    • URLLC (Ultra-Reliable Low-Latency Communication): For industrial control applications, the CPE must support 3GPP Release 16/17 URLLC features including mini-slot scheduling, configured grant transmission, and PDCP duplication — delivering consistent sub-10 ms latency.
    • Time-Sensitive Networking (TSN) integration: In factory environments, 5G must interwork with existing IEEE 802.1 TSN Ethernet infrastructure. NPN CPE acting as a TSN bridge requires 5G-to-TSN translator functionality and support for IEEE 802.1AS timing synchronization.
    • Industrial protocol compatibility: The CPE Ethernet interface should support PROFINET, EtherCAT, and Modbus TCP pass-through without packet loss or timing jitter that industrial controllers would reject.
    • Ruggedized form factor: Unlike office CPE, industrial NPN devices operate on factory floors with vibration, dust, and temperature swings. DIN-rail mounting, IP40+ ingress protection, and extended temperature range (\u221220\u00b0C to +60\u00b0C) are baseline requirements.

    System Integrator Considerations

    For system integrators designing NPN solutions, CPE selection should prioritize three factors:

    1. Certified interoperability: The CPE must be tested against the specific 5G core (Ericsson, Nokia, Druid, or open-source platforms like free5GC) and RAN (small cell or distributed antenna system) chosen for the deployment. Interoperability gaps discovered during commissioning are expensive to fix.

    2. Centralized device management: NPN deployments often span multiple factory sites with hundreds of CPE units each. TR-369 USP or SNMP-based remote management, zero-touch provisioning, and firmware-over-the-air (FOTA) update capability are essential for ongoing operations.

    3. Security certification: Industrial NPNs carry higher security requirements than public networks. CPE should support SIM-based authentication (SUCI encryption), IPsec tunnel termination, and ideally, compliance with IEC 62443 for industrial control system security.

    Outlook

    As NPN spectrum becomes available in more markets and the CPE ecosystem matures, enterprises have a growing window of opportunity to deploy private 5G for use cases that Wi-Fi 6E/7 cannot reliably serve. The CPE — as the network edge device connecting machines, sensors, and controllers — will play a defining role in whether these deployments deliver on their performance and reliability promises.

    FAQ

    What is the difference between SNPN and PNI-NPN?

    SNPN (Standalone NPN) operates a completely independent 5G network with its own core and RAN, identified by a unique NID. PNI-NPN (Public Network Integrated NPN) is a private slice within a public operator network, identified by a CAG (Closed Access Group) ID. CPE for SNPN must support NID-based network selection, which is not required for PNI-NPN.

    Can existing 5G CPE be firmware-upgraded for NPN?

    Some existing 5G CPE with 3GPP Release 16+ chipsets can add SNPN support through firmware updates. However, URLLC and TSN features require hardware-level support in the modem — a firmware update alone cannot add them if the baseband was designed for Release 15 eMBB only.

    Planning a private 5G NPN deployment? Contact Honlly Telecom to discuss NPN-capable CPE requirements and explore our industrial-grade 5G device portfolio.