1NCE's $1-Per-Year IoT Connectivity Cuts Enterprise OPEX by 6–12x Over MNO Tariffs

1NCE undercuts traditional cellular IoT by routing around MNO pricing

IoT connectivity provider 1NCE expanded its satellite partnership with Eutelsat OneWeb to cover terrestrial dead zones for NB-IoT and LTE-M devices in industrial, logistics, and utilities sectors. The company's core commercial model—$10 for 10 years per device, covering 500 MB and 250 SMS—translates to $1 per year for connectivity that traditional M2M SIMs charge $0.50 to $1.50 per month. For enterprises deploying 100,000+ low-bandwidth sensors, the delta compounds to 6–12x lower OPEX over a decade.

The math matters because cellular IoT now represents 21% of the 18.8 billion connected IoT devices projected for end-2024, according to IoT Analytics. That share is rising as 2G and 3G sunsets force enterprises off legacy networks. 1NCE's multi-IMSI eSIM architecture lets devices roam across 168 countries via agreements with Deutsche Telekom, SoftBank, and other Tier-1 MNOs, then fall back to Eutelsat OneWeb's LEO constellation above 55° latitude where terrestrial NB-IoT coverage breaks down. The result is global coverage without per-country SIM swaps or renegotiating roaming fees.

Compare this to direct MNO offers from Vodafone, Telefónica, AT&T, and Verizon. Those carriers now bundle LTE-M and NB-IoT roaming but structure tariffs around usage tiers, overage charges, and regional zones. Enterprises with predictable low-bandwidth requirements—tank-level sensors in remote oilfields, soil-moisture probes in agriculture, asset trackers on shipping containers—face budget unpredictability when devices occasionally spike usage or roam into expensive countries. 1NCE's prepaid 10-year model eliminates the invoice variability, letting finance teams treat connectivity as a fixed asset rather than a variable cost.

The satellite backstop also reduces the need to invest in proprietary LPWAN infrastructure. Companies that deployed private LoRaWAN gateways primarily to cover remote sites can now use 3GPP-standard radios and outsource the last-mile problem to 1NCE's hybrid terrestrial-satellite stack. That shifts capex from gateway hardware and backhaul to application software and device security, where differentiation actually lives.

Wi-Fi 7 formalization forces refresh-cycle decisions in high-density IoT environments

The IEEE finalized 802.11be (Wi-Fi 7) ratification in 2024, and enterprise-grade access points from Cisco, HPE Aruba, and others are now orderable with Wi-Fi 7 chipsets. The timing pressures enterprises planning 3–5 year Wi-Fi refresh cycles. Wi-Fi, Bluetooth, and cellular together account for the majority of the 18.8 billion IoT devices active in 2024. Wi-Fi 7's Multi-Link Operation and 320 MHz channel widths target environments with more than 10,000 IoT endpoints per building—smart manufacturing floors, hospital campuses, convention centers.

Vendor design guides suggest Wi-Fi 7 can cut AP counts by 20–30% in new builds compared to Wi-Fi 6E, because higher throughput and better scheduling let one AP handle more concurrent IoT streams. That reduction cascades: fewer APs means fewer PoE switch ports, less cabling, and lower installation labor. For a greenfield facility, the capex delta can justify delaying a Wi-Fi 6E rollout and waiting six months for Wi-Fi 7 gear to hit volume pricing.

The strategic decision is whether to deploy Wi-Fi 6E now and accept a shorter amortization period, or delay and consolidate more workloads—BLE beacons, video analytics, environmental sensors—onto a single Wi-Fi 7 overlay. Enterprises with latency-sensitive applications like real-time location systems or autonomous mobile robots see the clearest ROI from Wi-Fi 7's deterministic scheduling. Those without tight jitter requirements can extract another 12–18 months from Wi-Fi 6 and avoid stranded capex.

RFPs for IoT devices in smart-building and campus deployments are starting to require Wi-Fi 6 support today with explicit forward compatibility to Wi-Fi 7. Device vendors that cannot roadmap dual-band 6 GHz radios and MLO support risk losing bids to competitors that can, even if the enterprise does not plan to activate Wi-Fi 7 features until 2026.

Cellular IoT's rising share changes the connectivity decision tree

Cellular IoT—LTE-M, NB-IoT, 4G, and 5G—now accounts for 21% of global IoT connections, up from negligible share five years ago. The 16.6 billion IoT devices active at end-2023 grew 13% to 18.8 billion by end-2024, according to IoT Analytics. That growth is not evenly distributed. Cellular is gaining share in verticals where devices are mobile, geographically dispersed, or require secure, managed connectivity without deploying gateway infrastructure.

The shift shows up in operator capex. MNOs are building out LTE-M and NB-IoT coverage specifically to capture industrial IoT use cases that used to run on 2G or proprietary LPWAN. Enterprises see this as both opportunity and risk. The opportunity is avoiding the operational overhead of private LoRa or Sigfox networks. The risk is vendor lock-in and the eventual repeat of 2G/3G sunsets, where carriers deprecate older IoT standards and force device swaps.

1NCE's model—and similar offerings from Hologram, Kore Wireless, Soracom, and Eseye—mitigates that risk by abstracting the MNO relationship behind a multi-IMSI eSIM. Enterprises can switch operators without touching devices. That optionality becomes a negotiating lever: if an MNO raises prices or announces a standard deprecation, the enterprise can failover to another network in software rather than initiating a truck roll.

The connectivity mix is converging toward Wi-Fi for high-density stationary endpoints, cellular for mobile and dispersed devices, and Bluetooth for ultra-low-power edge sensors. Enterprises that locked into single-protocol strategies three years ago—all LoRa, all NB-IoT, all Wi-Fi—are now paying integration tax to add the other two. New deployments should assume a heterogeneous connectivity stack from day one and budget for the orchestration layer that manages it.

What to watch

Track MNO pricing responses to MVNOs like 1NCE. If traditional carriers do not match the $1-per-year economics, enterprise IoT buyers will continue migrating to aggregators, and MNOs will cede the connectivity layer to focus on private 5G and edge compute where margins remain. Watch for Wi-Fi 7 price compression in Q2 2025 as second-generation chipsets ship. Early adopters paying premium prices today will see 30–40% price drops within 12 months, shortening payback periods for refresh projects. Finally, monitor NB-IoT and LTE-M roaming agreements. The technology works, but commercial terms between MNOs remain inconsistent, creating invoice surprises for enterprises that assumed global pricing parity.