Tag: NR-Light

  • CPE Chipset Diversification Accelerates in 2026: How New Silicon Entrants Are Reshaping 4G/5G Router Supply Chains and Reducing Single-Vendor Dependency for Telecom Operators

    CPE Chipset Diversification Accelerates in 2026: How New Silicon Entrants Are Reshaping 4G/5G Router Supply Chains and Reducing Single-Vendor Dependency for Telecom Operators

    The 4G/5G CPE chipset landscape is undergoing its most significant structural shift since the transition from LTE to 5G NR. After years of concentration among a handful of dominant silicon vendors, 2026 is witnessing an accelerating diversification of the modem and SoC supply chain — a development with direct implications for telecom operators, ISPs, and enterprise buyers who depend on predictable CPE pricing, stable lead times, and multi-source procurement strategies.

    The Shifting Silicon Landscape

    For much of the past five years, the CPE chipset market has been heavily concentrated. Qualcomm’s SDX series and MediaTek’s T-series have dominated 5G FWA and mobile router designs, while legacy 4G CAT4/CAT6 CPE segments have been served primarily by MediaTek, Qualcomm, and a small number of secondary suppliers including UNISOC and ASR Microelectronics. This concentration created supply chain fragility that became painfully visible during the 2021–2023 semiconductor shortage, when CPE manufacturers faced 26–52 week lead times on critical modem components.

    By mid-2026, the picture has changed materially. Three structural forces are reshaping the CPE silicon supply chain:

    • New fab capacity coming online. TSMC’s expanded mature-node capacity (28nm–12nm) and SMIC’s growing domestic Chinese wafer output have meaningfully increased the total available manufacturing bandwidth for IoT and CPE-grade chipsets. These processes are ideal for cost-sensitive CAT4/CAT6 and entry-level 5G RedCap modems.
    • Second-wave 5G chipset entrants reaching production maturity. UNISOC’s Ivy 5G platform, ASR’s 5G NR modem portfolio, and Eigencomm’s cellular IoT SoCs have moved from sampling to volume production, giving CPE OEMs and ODMs credible multi-source options for the first time.
    • RedCap creating a new silicon category. 3GPP Release 17 NR-Light (RedCap) defines a streamlined 5G modem profile that reduces die area, power consumption, and cost versus full-spec 5G NR. This has attracted new silicon entrants who see RedCap as a lower-barrier entry point into the 5G CPE market, bypassing the massive R&D investment required for full-spec eMBB modem development.

    What Multi-Source Means for Telecom Buyers

    For operators and ISPs procuring CPE at scale, chipset diversification translates into three tangible procurement benefits:

    1. Reduced single-vendor dependency risk. The ability to qualify CPE devices built on multiple chipset platforms means a supply disruption at any one silicon vendor does not halt an operator’s entire subscriber acquisition pipeline. Several Tier-1 European operators now explicitly require dual-source chipset qualification in their CPE RFPs — a clause that was virtually unheard of in 2023.

    2. Improved pricing dynamics. Genuine silicon competition at the CAT6, CAT12, and entry-level 5G tiers is beginning to exert downward pressure on BOM costs. Industry analysts estimate that RedCap CPE BOM costs could fall below $45 by late 2026, down from $60–70 in 2024, driven largely by modem chipset competition and mature-node wafer cost improvements.

    3. Regional supply optionality. The emergence of domestic Chinese chipset vendors with full 4G/5G modem portfolios creates regional supply chain optionality. Operators in markets without US export control restrictions can now source CPE devices with locally manufactured chipsets, potentially reducing logistics complexity and tariff exposure.

    The RedCap Catalyst

    5G RedCap (NR-Light) deserves special attention as the catalyst for silicon diversification. Unlike full-spec 5G eMBB modems — which require complex RF front-end architectures supporting 4×4 MIMO across multiple bands, carrier aggregation across low/mid/high bands, and 256QAM/1024QAM modulation — RedCap strips the modem specification down to a more constrained but still highly useful profile: 2 receive antennas (versus 4), 1 or 2 transmit antennas, 256QAM in downlink, and simplified carrier aggregation with a single carrier in FR1 supporting up to 20 MHz bandwidth.

    This simpler specification reduces silicon die area by approximately 60–65% compared to full-spec 5G modems. The resulting cost structure makes RedCap commercially viable for chipset vendors who could not justify the R&D investment for full-spec 5G modem development. The GSMA now projects RedCap device shipments exceeding 80 million units annually by 2028, with CPE and FWA devices representing the largest single category.

    Qualification Considerations for Operators

    While chipset diversification is broadly positive for the CPE ecosystem, operators must approach multi-source qualification with structured evaluation criteria. Key considerations include:

    • Modem-RF interoperability validation. Each modem-plus-RF-front-end combination must be validated against the operator’s specific band plan, carrier aggregation combinations, and network feature set (VoLTE/VoNR, IMS, emergency calling). A chipset that performs well in lab conditions may exhibit unexpected behavior with a specific operator’s RAN vendor configuration.
    • Firmware maturity and update cadence. Newer chipset entrants may have less mature modem firmware with respect to power management, thermal throttling, and mobility handling (cell reselection, handover). Operators should request firmware release histories and field deployment references before committing to volume orders.
    • Regulatory certification coverage. Multi-source CPE procurement must verify that each chipset variant holds the necessary regulatory certifications for the operator’s target markets — FCC (US), CE (EU), Anatel (Brazil), SRRC/CCC (China), and others as required.
    • Long-term roadmap alignment. Does the chipset vendor have a credible roadmap to 3GPP Release 18 (5G-Advanced) features including AI-native air interface optimizations and enhanced positioning? Operators investing in network upgrades need CPE silicon that will support forthcoming RAN capabilities, not just today’s feature set.

    Strategic Implications for 2026–2027

    The CPE chipset supply chain is transitioning from a seller’s market to a more balanced — and in some segments, buyer-friendly — environment. For telecom operators and ISPs, the strategic implications are clear:

    • Now is the time to qualify second-source chipsets. Operators who initiate multi-source qualification programs in 2026 will have approved alternative silicon options available before the next supply disruption — not scrambling during it.
    • RedCap should feature in every CPE RFP issued in H2 2026. Whether as a primary requirement for cost-sensitive segments or as an optional alternative for specific deployment scenarios, RedCap represents a genuine new category of CPE silicon that operators should be evaluating.
    • Silicon diversity strengthens negotiation leverage. CPE OEMs and ODMs with multi-chipset design capability — like Honlly Telecom, which maintains design references across Qualcomm, MediaTek, UNISOC, and ASR platforms — offer operators genuine procurement flexibility rather than single-source lock-in.

    As the CPE ecosystem matures through 2026, chipset diversification will increasingly differentiate the supply chain capabilities of CPE manufacturers. Operators and ISPs who proactively build multi-source silicon requirements into their procurement frameworks will be better positioned to navigate the next phase of 5G network expansion — with more predictable costs, more resilient supply chains, and more competitive CPE portfolios.

    For more information about Honlly Telecom’s multi-chipset CPE portfolio and OEM/ODM capabilities, contact our sales team at sales@xmhonlly.com.

  • 5G RedCap for Cost-Effective CPE: What Operators Need to Know in 2026

    5G RedCap for Cost-Effective CPE: What Operators Need to Know in 2026

    As 5G networks mature globally, operators face a strategic question: how to serve mid-tier broadband and IoT markets without the cost burden of full-specification 5G CPE. The answer is 5G RedCap — officially known as NR-Light — a 3GPP Release 17 specification designed to bring 5G capabilities to devices that do not need gigabit throughput, massive MIMO, or ultra-low latency. For CPE manufacturers like Honlly Telecom, RedCap represents one of the most significant cost-structure shifts in the 5G device ecosystem since the initial NR rollout.

    What Is 5G RedCap (NR-Light)?

    5G RedCap is a reduced-capability version of 5G NR defined in 3GPP Release 17 and enhanced in Release 18. It strips away the complexity that drives up the cost of full 5G chipsets while keeping the essential 5G advantages: native 5G core integration, improved spectral efficiency, network slicing support, and better power management than LTE.

    The key technical simplifications include:

    • Fewer RX antennas: 1 or 2 receive antennas instead of 4, reducing RF front-end complexity and cost
    • Narrower bandwidth: 20 MHz in FR1 (sub-7 GHz) versus 100 MHz for full 5G eMBB devices
    • Half-duplex FDD option: Eliminates the duplexer, a significant cost component in RF design
    • Lower modulation order: Optional 256QAM support instead of mandatory 256QAM, simplifying baseband processing

    These simplifications collectively reduce the chipset and RF bill of materials by an estimated 40–60 percent compared to equivalent full-specification 5G CPE devices, while still supporting downlink throughput in the 150–220 Mbps range.

    Why RedCap Matters for the CPE Market

    The global CPE market is not a single market. It spans premium 5G FWA deployments in North America and Europe, mid-tier fixed wireless in Southeast Asia and Latin America, entry-level broadband in Sub-Saharan Africa, and industrial IoT gateways worldwide. Each segment has different throughput, cost, and feature requirements.

    Full-specification 5G NR CPE — with 4×4 MIMO, carrier aggregation across multiple 100 MHz channels, and support for millimeter wave in some regions — addresses the premium segment well. But for operators deploying tens or hundreds of thousands of CPE units in price-sensitive markets, the per-unit cost of full 5G CPE limits addressable market size and return on investment.

    RedCap changes the equation. A RedCap CPE can deliver 5G core benefits — including network slicing, improved security architecture, and 5G SA mode operation — at a device cost closer to LTE Cat-6 or Cat-12 CPE. For operators, this means:

    • Lower subscriber acquisition cost: Deploy 5G CPE at LTE price points, improving the business case for mass-market FWA
    • Smoother migration path: Move subscribers from LTE to 5G without a cost cliff, phasing the transition over multiple budget cycles
    • Unified network management: All devices operate on the 5G core, eliminating the operational overhead of maintaining parallel LTE and 5G network management systems
    • Better spectrum efficiency: Even at reduced capability, 5G NR delivers approximately 20–30 percent better spectral efficiency than LTE in equivalent bandwidth

    RedCap vs LTE Cat-6/Cat-12: A Practical Comparison

    Parameter LTE Cat-6 LTE Cat-12 5G RedCap
    Max Downlink 300 Mbps 600 Mbps 150–220 Mbps
    Max Bandwidth 20+20 MHz CA 20+20+20 MHz CA 20 MHz (single carrier)
    RX Antennas 2 2–4 1–2
    5G Core Support No No Yes (SA mode)
    Network Slicing No No Yes
    Power Efficiency Moderate Moderate Better (eDRX, WUS)
    Relative Device Cost Low Medium Low–Medium

    The comparison highlights an important insight: RedCap does not win on raw throughput. Cat-12 LTE CPE with 3× carrier aggregation can deliver higher peak speeds than a single-carrier RedCap device. RedCap wins on network architecture — giving operators a unified 5G core, better power management, and a future-proof migration path to full 5G as chipset costs continue to decline.

    Chipset Availability: The RedCap Ecosystem in 2026

    The RedCap chipset ecosystem reached commercial maturity in early 2026. Key platforms now available include:

    • Qualcomm Snapdragon X35 5G Modem-RF: The first commercial NR-Light modem, shipping in volume since late 2025. Supports both SA and LTE fallback, making it suitable for global CPE deployments.
    • MediaTek T300: MediaTek’s RedCap platform targeting mid-tier FWA and industrial CPE, with integrated application processor for edge computing use cases.
    • ASR Microelectronics: Chinese fabless vendor with competitive RedCap solutions targeting the Asia-Pacific and African CPE markets at aggressive price points.

    For CPE manufacturers and operators evaluating RedCap, chipset availability is no longer a bottleneck. The question has shifted from “when can we source RedCap chipsets?” to “which RedCap platform best matches our target markets and price segments?”

    Use Cases: Where RedCap CPE Fits in 2026

    1. Mid-Tier Fixed Wireless Access

    In markets where operators need to deploy FWA at scale — Southeast Asia, Africa, rural Latin America — RedCap CPE provides 5G connectivity at LTE price levels. A typical RedCap FWA CPE with integrated WiFi 6 delivers 150+ Mbps to the home, sufficient for streaming, video calls, and cloud applications for a family of four.

    2. Industrial IoT Gateways

    Factory floors, logistics hubs, and smart grid deployments need reliable 5G connectivity without the cost of eMBB-class hardware. RedCap industrial CPE bridges sensors, PLCs, and edge computers to the 5G core, with network slicing ensuring dedicated quality of service.

    3. Entry-Level Enterprise Branch CPE

    Small retail locations, pop-up sites, and temporary offices benefit from 5G connectivity but rarely need gigabit throughput. RedCap branch CPE with SD-WAN integration provides a managed connectivity solution at a fraction of full 5G CPE cost.

    4. Vehicle-Mounted and Portable CPE

    Buses, trains, maritime, and temporary field deployments can use RedCap for reliable always-on connectivity. The lower power consumption and reduced antenna count simplify integration into space-constrained designs.

    What Operators Should Evaluate Before Deploying RedCap CPE

    RedCap is not a universal upgrade over LTE. Operators should evaluate five factors before committing to a RedCap CPE procurement:

    1. 5G SA core readiness: RedCap requires a standalone 5G core. Operators still running NSA mode need to complete the SA transition first.
    2. Spectrum allocation: RedCap operates on existing 5G NR bands. Operators should verify coverage and capacity in their target deployment areas.
    3. Subscriber throughput expectations: For subscribers needing more than 200 Mbps consistently, RedCap may underdeliver. A tiered CPE strategy — RedCap for mass market, full 5G for premium — is often optimal.
    4. Device certification: RedCap CPE must pass GCF/PTCRB certification for global markets. Work with manufacturers who have completed the certification process for your target regions.
    5. LTE fallback behavior: In areas where 5G SA coverage is still building, LTE fallback performance matters. Evaluate RedCap CPE that handles the 5G-to-LTE handover cleanly.

    Honlly’s RedCap CPE Roadmap

    Honlly Telecom is integrating 5G RedCap across its mid-tier CPE portfolio in 2026, targeting operators and distributors serving price-sensitive broadband markets. Initial products include an indoor RedCap CPE with integrated WiFi 6 and an outdoor RedCap unit with IP67 rating for rural FWA deployments. Both models support TR-069/TR-369 remote management, making them compatible with existing operator ACS and USP platforms.

    For operators evaluating RedCap as part of their CPE strategy, contact Honlly’s solutions team for detailed specifications, sample availability, and volume pricing.

    Frequently Asked Questions

    What is the difference between 5G RedCap and full 5G eMBB?

    5G RedCap uses fewer antennas (1–2 RX vs 4), narrower bandwidth (20 MHz vs 100 MHz), and optional half-duplex FDD to reduce device cost by 40–60%. Full 5G eMBB delivers gigabit speeds for premium use cases; RedCap targets 150–220 Mbps for mid-tier broadband and IoT.

    Can RedCap CPE work with existing 4G LTE networks?

    RedCap requires a 5G standalone (SA) core for native operation. However, most RedCap chipsets include LTE fallback, allowing the CPE to connect to LTE networks when 5G SA coverage is unavailable. This makes RedCap CPE suitable for markets where 5G coverage is still expanding.

    Is RedCap CPE cost-competitive with LTE Cat-12 CPE?

    In 2026, RedCap CPE BOM costs are approaching parity with mid-to-high-end LTE Cat-12 CPE. The simplified RF design — fewer antennas, narrower bandwidth, half-duplex option — offsets the chipset cost premium. At scale, RedCap CPE is expected to be 10–20 percent more expensive than Cat-12, with the gap narrowing through 2027.

    Which operators are deploying RedCap CPE today?

    As of mid-2026, China Mobile, China Telecom, and several European Tier-1 operators have launched RedCap commercial services. Operators in Southeast Asia, the Middle East, and Africa are running trials, with commercial deployments expected to accelerate in H2 2026 and 2027 as 5G SA core rollouts complete.

    Does Honlly offer RedCap CPE samples for operator evaluation?

    Yes. Honlly Telecom provides RedCap CPE engineering samples for qualified operators, ISPs, and distributors. Contact gerard@xmhonlly.com to request specifications and sample availability for your target deployment region.