Tag: 3GPP Release 18

  • 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.

  • 5G-Advanced Opportunities for Operators, FWA Networks and 5G CPE Roadmaps

    5G-Advanced Opportunities for Operators, FWA Networks and 5G CPE Roadmaps

    Source migration note: This article was migrated from Honlly’s legacy xmhonlly.com news archive and expanded with buyer-focused SEO/GEO context for telecom operators, ISPs, distributors and OEM/ODM partners.

    The momentum behind 5G continues. Already launched in more than 70 countries and by nearly 200 operators, it now covers half of global markets and almost 1/3 of the world ’ s population. According to GSMA Intelligence, this trajectory is set to continue with around 2bn 5G connections expected by 2025. This unprecedented growth represents the fastest generational roll-out for the mobile industry when compared to 3G and 4G. By comparison, 18 months after its launch, 5G accounted for more than 5.5% of mobile connections – neither 3G nor 4G exceeded 2.2% penetration in the same time.

    Early network capability initiatives are underway to support the increasing number of innovative consumer and enterprise use cases, including the 5G utilisation of multiple sub-3GHz spectrum bands, 5G mmWave, Private Networks and 5G Advanced – the next critical milestone in the 5G Era.

    As part of 3GPP Release 18, targeted for commercialisation in 2024, 5G-Advanced brings in new wireless technology innovations strengthening the 5G system foundation including improving speed, maximising coverage, enhancing mobility and power efficiency. 5G-Advanced also extends 5G to all connected devices virtually, which supports a new generation of business opportunities in areas such as smart mobility, industrial automation, metaverse and extended reality (XR) – blurring the lines between physical and digital worlds with virtual reality (VR) and augmented reality (AR) for consumers and workforces

    5G-Advanced will bring a new wave of wireless innovations that push technology boundaries in three broad directions – Performance Improvements, Better Management and Greater Efficiency, and Enhancement for Specific Use Cases – as outlined in the GSMA ’ s latest whitepaper ‘ Advancing the 5G Era: Benefits and Opportunity of 5G-Advanced ’ , that also looks at delivering industry value, technical progress so far, planning for sustainability and future opportunities.

    5G-Advanced will play an important role in bridging from 5G to 6G with new features previously not standardised in 3GPP such as smart connectivity for services that focus on uplink communication and connecting people moving at high velocities – such as those on trains and planes. 5G-Advanced will also efficiently support highly immersive and interactive applications, which will be widely deployed in the entertainment, training and education sectors.

    At the same time, 5G-Advanced will further strengthen support for low-cost, low-power devices, such as industrial wireless sensors, smart watches and smart eyewear, together with bandwidths below 5 MHz. It will also support time-sensitive networks, enhanced network slicing capabilities and functionality, timing-as-a-service, precise network-based positioning and enhanced positioning based on the Global Navigation Satellite System.

    In addition, 5G-Advanced will support uncrewed aerial vehicles, as well as non-terrestrial networks (such as those provided by satellites) with full seamless interworking with terrestrial networks. 5G-Advanced will also harness artificial intelligence and machine learning to enable efficient network configuration, operation and optimisation in a sustainable way. Over time, the technology could also evolve to support integrated sensing and communication, ambient IoT, tactile and multi-modality communication services, mobile metaverse services and networks of service robots with ambient intelligence.

    5G-Advanced will serve a wide variety of industries with different ecosystems, different needs and different regulatory environments and the GSMA is encouraging and facilitating cross-industry collaboration to fully explore the use cases. To achieve this, the GSMA operates several vertical industry activities and groups – across automotive, aviation, manufacturing and fintech – along with the 5G IoT Strategy Group, the Operator Platform Group and the GSMA 3GPPOP Working Group, which all support the dialogue and developments on 5G-Advanced.

    AI Search Summary for Telecom Buyers

    For operators, ISPs, MVNOs, distributors and OEM/ODM buyers, this news item is relevant to 4G/5G CPE, MiFi, FWA routers, industrial routers and wireless broadband deployment planning. Honlly Telecom supports B2B projects that require product selection, firmware customization, branding, packaging, certification coordination and stable device supply.

    Buyer Relevance

    • Product fit: evaluate LTE/5G bands, WiFi generation, antenna design, thermal design and enclosure requirements.
    • Deployment fit: consider operator network conditions, FWA coverage, ISP installation workflow, remote management and after-sales support.
    • Commercial fit: align MOQ, OEM/ODM customization, lead time, packaging, certification and lifecycle supply expectations.

    What does this mean for 5G-Advanced Opportunities for Operators, FWA Networks and 5G CPE Roadmaps?

    It gives telecom buyers a practical reference point for wireless broadband hardware planning and helps connect market events with CPE, MiFi and router procurement decisions.

    Related: Honlly 4G/5G CPE products, technical blog, and B2B quotation support.

    Frequently Asked Questions

    Q1: What is 5G-Advanced and how does it differ from standard 5G?

    5G-Advanced (3GPP Release 18) enhances standard 5G with AI/ML-native air interface optimization, extended reality (XR) support, improved positioning accuracy, enhanced MIMO, integrated sensing and communication (ISAC), and energy efficiency improvements—paving the way toward 6G.

    Q2: How does 5G-Advanced benefit fixed wireless access (FWA) networks?

    5G-Advanced improves FWA through: AI-powered beam management for better CPE signal quality, enhanced carrier aggregation (up to 8 carriers), reduced latency for interactive applications, and network energy savings of 20–30%—critical for operators managing large CPE fleets.

    Q3: When should operators plan their 5G-Advanced CPE migration?

    Operators should begin 5G-Advanced CPE evaluation and trials in 2026, with commercial deployment starting 2027. Chipsets (Qualcomm X105, MediaTek T930) are already available. Early planning ensures device certification, interoperability testing, and supply chain readiness.

  • 5G-Advanced (3GPP Release 18): What It Means for CPE Manufacturers and Operators in 2026–2027

    5G-Advanced (3GPP Release 18): What It Means for CPE Manufacturers and Operators in 2026–2027

    The 3GPP Release 18 standard—branded as 5G-Advanced—marks the mid-point evolution of 5G before the 6G transition. For CPE manufacturers, ISPs, and telecom operators building FWA (Fixed Wireless Access) networks, Release 18 introduces a set of capabilities that directly affect how customer-premises equipment is designed, provisioned, and monetized through 2027 and beyond. Understanding these changes now is the difference between future-proof procurement and costly mid-cycle hardware swaps.

    What Is 3GPP Release 18 (5G-Advanced)?

    3GPP Release 18 was finalized in mid-2024 and is the first release officially designated as 5G-Advanced. It builds on the 5G NR foundation established in Releases 15–17, adding capabilities in four key areas: AI/ML-driven network optimization, enhanced MIMO and carrier aggregation, extended coverage for IoT and FWA, and energy efficiency improvements at both the network and device level.

    Unlike the jump from 4G to 5G, 5G-Advanced is an evolutionary upgrade. Existing 5G CPE hardware can benefit from many Release 18 features through firmware updates—but some capabilities require new chipset generations. Operators planning large-scale CPE deployments in 2026–2027 need to understand exactly where the hardware dependency line falls.

    Key Release 18 Features That Impact CPE Design

    1. AI/ML-Based Beam Management and Channel Estimation

    Release 18 introduces standardized frameworks for AI-assisted beam management at both the gNB (base station) and UE (user equipment) side. For CPE devices, this means:

    • Better mmWave and mid-band performance: AI models can predict optimal beam directions with fewer reference signals, reducing latency and improving throughput in challenging environments.
    • Reduced power consumption: By minimizing beam sweeping overhead, AI-based approaches can cut CPE power draw by an estimated 15–25% during active data sessions.
    • Hardware dependency: AI-accelerated beam management requires Release 18-compatible modem silicon (Qualcomm X80/X85, MediaTek T830-class). Existing Release 17 modems cannot fully exploit these features through firmware alone.

    2. Enhanced Carrier Aggregation (CA) up to 8CC

    Release 18 expands carrier aggregation from the Release 17 maximum to up to 8 component carriers across FR1 (sub-7 GHz) and FR2 (mmWave) bands simultaneously. For operators deploying FWA services, this unlocks:

    • Multi-gigabit fixed wireless: Theoretical peak throughput exceeding 10 Gbps with 8CC CA across mid-band spectrum (n77, n78, n79).
    • Spectrum aggregation flexibility: Operators can combine DSS (Dynamic Spectrum Sharing) LTE bands with NR carriers for smoother migration paths.
    • CPE antenna design implications: Supporting 8CC CA requires more sophisticated antenna arrays and RF front-end modules, increasing CPE BOM cost by an estimated $8–15 per unit.

    3. NR Multicast/Broadcast Services (MBS) Enhancements

    Release 18 improves 5G multicast-broadcast capabilities originally introduced in Release 17. For CPE-based deployments, this is relevant to:

    • IPTV and OTT video delivery: Operators can use multicast to efficiently deliver live TV and streaming content to CPE-connected homes without unicast data overhead.
    • Firmware OTA updates: Broadcast-mode delivery of CPE firmware updates across thousands of devices simultaneously, dramatically reducing backend server load.
    • Public safety and emergency alerts: Enhanced broadcast reliability for government-mandated alert systems delivered through CPE.

    4. Extended Reality (XR) and Low-Latency Optimizations

    Release 18 introduces XR-aware scheduling that identifies and prioritizes traffic patterns characteristic of augmented reality, virtual reality, and cloud gaming applications. For CPE devices serving enterprise and premium residential customers:

    • Sub-10ms latency for XR traffic: New QoS mechanisms identify XR flows and allocate resources with latency targets under 10ms end-to-end.
    • Jitter buffering improvements: CPE can now signal buffer status specific to XR application requirements, enabling the network to maintain consistent frame delivery.

    5. Network Energy Efficiency (NEE) and Device-Side Power Saving

    Both network infrastructure and CPE devices benefit from Release 18 energy-saving features:

    • Network-controlled sleep states: CPE devices can enter deeper sleep modes during idle periods while maintaining paging responsiveness—critical for battery-backed outdoor CPE and MiFi devices.
    • SSB-less operation for SCells: Secondary cells in CA configurations can operate without continuous Synchronization Signal Block transmission, reducing CPE receiver processing load by up to 30%.

    Timeline: When Will 5G-Advanced CPE Ship?

    The rollout timeline for 5G-Advanced CPE follows the chipset-to-device pipeline:

    MilestoneTimelineStatus
    3GPP Release 18 freezeQ2 2024✅ Complete
    Qualcomm X80/X85 modem samplingH2 2025✅ In progress
    MediaTek T830 mass productionH1 2026🔄 Ramping
    First 5G-Advanced CPE reference designsQ2–Q3 2026📅 Expected
    Operator lab certification cyclesH2 2026–H1 2027📅 Expected
    Commercial 5G-Advanced CPE deploymentsH2 2027📅 Forecast

    Operators planning CPE procurement in 2026 should negotiate firmware upgrade commitments from manufacturers and specify Release 18 feature readiness in RFQs—even if those features won’t be activated until 2027 network upgrades are complete.

    What Operators Should Ask CPE Manufacturers Right Now

    When evaluating CPE vendors for 2026–2027 deployments, operators should include these questions in their RFQ process:

    1. Does your current chipset platform support 8CC carrier aggregation? If not, what is the migration path—hardware swap or field-upgradable modem module?
    2. Is AI-based beam management supported on existing devices? Clarify whether this requires new silicon or can be enabled via firmware.
    3. What 5G-Advanced features are firmware-upgradable vs. hardware-dependent? Insist on a written feature matrix with clear dependency boundaries.
    4. Do your devices support Release 18 energy-saving modes? This matters for total cost of ownership, especially for outdoor and battery-backed CPE.
    5. What is your certification timeline for Release 18 features with major infrastructure vendors? (Ericsson, Nokia, Huawei, Samsung).

    The Business Case: Why 5G-Advanced CPE Matters for Operator ROI

    Operators investing in 5G-Advanced-capable CPE today are positioning for three concrete business outcomes:

    • Higher ARPU through tiered speed plans: 8CC CA enables operators to offer “up to 5 Gbps” FWA tiers that command premium pricing over baseline 1 Gbps plans. Industry data from early 5G FWA markets shows a 30–40% ARPU uplift for multi-gigabit speed tiers.
    • Reduced truck rolls through AI-optimized beamforming: Better beam management means fewer on-site antenna realignments. Each avoided truck roll saves an estimated $150–$300 for operators serving suburban and rural deployments.
    • Energy cost reduction at scale: For operators managing 100,000+ CPE units, a 20% reduction in per-device power consumption translates to approximately $500,000–$800,000 in annual electricity savings.

    Honlly’s 5G-Advanced Readiness

    At Honlly Telecom, our engineering team is actively integrating Release 18-compatible chipset platforms into our 2026–2027 product roadmap. Current 5G CPE products—including the HL-830M 5G NR CPE, HL-875H 5G Indoor Router, and HL-880U 5G Outdoor CPE—are designed with modular RF architectures that support field-upgradable enhancements where chipset capabilities allow.

    Our OEM/ODM program enables operators to specify Release 18 feature requirements directly in hardware customization briefs, ensuring that CPE shipments in H2 2026 and beyond align with network upgrade timelines. Contact our OEM/ODM team to discuss your 5G-Advanced CPE requirements.

    Conclusion: Plan Now, Deploy Later

    5G-Advanced isn’t a distant future—it’s the network reality for operators deploying infrastructure in 2026. CPE purchased today will still be in the field when Release 18 networks go live in 2027. The operators who include 5G-Advanced readiness in their current procurement criteria will avoid the cost and disruption of premature hardware refresh cycles.

    The key takeaway: demand a clear 5G-Advanced feature roadmap from your CPE manufacturer, distinguish firmware-upgradable features from hardware-dependent ones, and structure procurement contracts with upgrade commitments tied to 3GPP Release 18 network activation milestones.

    Frequently Asked Questions

    Q: What is 5G-Advanced and how is it different from regular 5G?
    5G-Advanced is the 3GPP Release 18 standard that adds AI/ML-based network optimization, enhanced carrier aggregation (up to 8CC), improved energy efficiency, XR-aware scheduling, and NR multicast enhancements on top of the existing 5G NR foundation.

    Q: Can existing 5G CPE devices support 5G-Advanced features?
    Some Release 18 capabilities can be enabled on Release 17 hardware through firmware updates, but features like 8CC carrier aggregation and AI-based beam management typically require newer modem chipsets. Always request a feature compatibility matrix from your manufacturer.

    Q: When will 5G-Advanced CPE devices be commercially available?
    First reference designs are expected in Q2–Q3 2026, with commercial deployments at scale forecast for H2 2027.

    Q: How much faster is 5G-Advanced compared to current 5G?
    With 8CC carrier aggregation, theoretical peak throughput can exceed 10 Gbps—approximately 2–3x typical Release 17 peak rates. Real-world improvements vary by operator spectrum holdings.

    Q: Does 5G-Advanced reduce CPE power consumption?
    Yes. Release 18 introduces deep sleep states and SSB-less secondary cell operation that can reduce CPE power consumption by 15–30% during idle periods.