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Without Saying So Directly, Nokia Asserts its Right to Play in Physical AI

Headshot of a man with short gray hair and a friendly smile, wearing a black jacket over a collared shirt, against a soft blue background.
John Marcus – Senior Principal Analyst, Enterprise Mobility and IoT Services.

Summary Bullets:

  • Nokia’s Cognitive Operations launch is less about another edge platform and more about staking a claim in physical AI, bringing intelligence and connectivity to real operational environments.
  • But “physical AI” is already getting crowded and cloud-led, with Nokia’s platform story at risk of being dismissed as repackaging connectivity plus analytics unless it leads to visible, scaled deployments.

Nokia didn’t use the term “Physical AI” in its announcement, but its new Cognitive Operations (CO) platform reads like a carefully constructed argument for why it belongs in that conversation. Physical AI is not just AI applied to industrial data; it is AI that perceives, decides, and supports action in the physical world, often in real time, often with incomplete connectivity, and often where failure carries operational, financial, or human consequences. This is the exact scope that Nokia is targeting with CO, initially for mining, construction, public safety, and defense. Specific examples of platform capabilities include vehicle-as-a-node, local inferencing (GPU/TPU), video/sensor analytics, safety interventions (driver fatigue/collision), and independent continuity (where operations continue despite disconnection).

The product story is straightforward and strategically on point: unify mission-critical communications, edge computing, and operational AI into a single platform that can be deployed in the field. From the point of view of its telecom heritage, the significance is that Nokia is moving up the stack without abandoning its core advantage in networks. CO is built around the idea that operational intelligence is only as reliable as the connectivity and assurance beneath it. The Cognitive Edge Node (CEN) extends this logic to vehicles and remote sites, combining multi-access connectivity (5G/LTE, Wi-Fi, satellite-ready links, LoRa, and mesh integration, where software picks the best connectivity for what is needed at the time) with local processing of data including video analytics, and AI acceleration. In effect, Nokia is selling the ability to keep operations connected and intelligent even in a harsh environment and when the cloud is unreachable.

The differentiation is not about the benefits of any particular wireless technology, rather it’s more about economics and risk. Many industrial organizations have assembled digital operations tools as a patchwork of separate asset tracking, network monitoring, video, device management, and incident coordination systems—usually from different vendors with separate interfaces and support contracts. Nokia’s promises offers a “common operational picture” instead: one operational view that fuses observability of digital twins, video analytics, predictive maintenance, and network/RF intelligence. If that promise holds true in real deployments, it will reduce downtime, speed up incident response, and limit the cost associated with a more fragmented approach.

A key element of Nokia’s “right to play” is credibility in the messy space between IT and the field. CO emphasizes deterministic behavior, SLA-driven device and traffic management, and the ability to operate when connectivity is degraded or intermittent. That’s a subtle but important argument against cloud-first industrial AI approaches that assume there will be stable backhaul connectivity and centralized processing. In mines, disaster scenes, and other contested or constrained environments, latency and reliability aren’t just “nice to have”. They are what decides whether a warning arrives in time, whether video analytics are usable, and whether communications get through when networks are congested.

But for Nokia, the “platform” narrative will only become credible when customers can point to repeatable deployments at scale. Cloud hyperscalers and industrial incumbents will argue they already deliver the AI layer, and they’ll try to make connectivity a feature, not the foundation. If Nokia can’t show rapid, production rollouts—beyond early reference pilots—its CO “platform” risks being perceived as a packaged bundle of edge hardware and dashboards rather than a new operational standard. Nokia’s decision to offer CO both on-prem (including air-gapped scenarios) and via Microsoft Azure Marketplace helps to counter that perception by giving a choice, but execution will matter when it comes to deployment timelines, integration effort, and partner-led solution breadth.

Nokia’s go-to-market packaging is notable. CO was launched with three vertical applications and a compelling concept for emergency services: “Vehicle as a Node,” where each equipped response vehicle becomes a self-organizing communications and intelligence node at the incident scene. This concept helps translate abstract edge/AI capabilities into recognizable buyer outcomes, which is how new product categories can win budget. (The other vertical applications are Cognitive Operations for Mining and Cognitive Operations for Defense.)

Physical AI will be crowded—hyperscalers, industrial automation giants, robotics firms, and private wireless vendors all want a piece of it. Nokia’s bid is to own a chunk of the operational edge layer where connectivity, compute, and assurance converge. Without explicity saying so, it’s asserting: if physical AI is going to work in the real world, it needs a network-native, field-hardened foundation. And that Nokia plans to be that foundation.

The post Without Saying So Directly, Nokia Asserts its Right to Play in Physical AI appeared first on IT Connection.

AT&T, T-Mobile, and Verizon Trade Wins in H1 2026 as 5G SA and Mid-band Shape Real-world Performance

John Marcus – Senior Principal Analyst, Enterprise Mobility and IoT Services.

Summary Bullets:

• AT&T, T-Mobile, and Verizon each improved in H1 2026, with distinct strengths across speed, reliability, and calls.

• Enterprises should evaluate 5G SA maturity, uplink capacity, and location-specific consistency—not just peak download speeds.

US mobile performance improved across the board in H1 2026, according to Ookla’s “State of the Mobile Union” reporting, drawing on RootMetrics testing. RootMetrics technicians ran over 3 million real-world tests from January to June 2026, driving 243,000 miles across all 50 states and 125 major metro markets to evaluate AT&T, T-Mobile and Verizon.

While each of the three carriers earned wins, the bigger story is that after more than half a decade, network investments are translating into more consistent, widely available 5G. That has direct consequences for mobile users and, especially, enterprises standardizing mobile connectivity for cloud apps, field operations, and AI-era workflows.

Key findings: shared speed leadership, different network strengths

AT&T earned five national RootScore Awards in H1 2026, including shares of awards for Overall Performance, Network Reliability, and Network Speed, and it won the US Call RootScore Award outright. The carrier also increased high-speed performance in cities, delivering median download speeds of at least 200 Mbps in 110 markets, up from 92 in H2 2025.

T-Mobile shared the national Network Speed award with AT&T and again led in 5G availability, posting 96.1%. It recorded 200+ Mbps median downloads in 123 of 125 major cities tested and took the most State Speed RootScore Awards (38)—demonstrating its strength in broad 5G reach and metro-area throughput.

Verizon earned the most awards overall across geographies, winning or sharing six national awards and leading with 321 State RootScore Awards and 756 Metro Area RootScore Awards. Verizon also won Best 5G Experience and Most Reliable 5G, and improved the number of major cities with 200+ Mbps median downloads from 104 in H2 2025 to 123 in H1 2026.

Verizon tops 5G experience, narrows gap on availability

In its 5G experience testing, RootMetrics cited strong performance for Verizon in both urban and rural testing. While it still trailed T-Mobile’s 5G availability, Verizon improved meaningfully—rising from 80.2% in H2 2025 to 89% in H1 2026. For users, that translates into fewer drops back to LTE and more predictable performance for video calls, collaboration tools, and cloud applications.

Performance gains are tied to spectrum and 5G architecture choices

In its report, Ookla researcher Mike Dano points to heavy carrier spending—such as AT&T’s spectrum deal with EchoStar, T-Mobile’s UScellular asset purchase, and Verizon’s AWS-3 auction activity—as a major driver behind improved outcomes. RootMetrics data indicates that overall mobile speeds on an aggregated nationwide basis increased from about 192 Mbps (H1 2024) to 334 Mbps (H1 2026), while the share of download tests running on 5G (SA or NSA) rose from about 84% to 93%.

Despite joint wins, each carrier is taking a distinct path

• AT&T is expanding mid-band capacity (including wider mid-band channel usage) and shows strong spectral efficiency. However, it continues to rely heavily on 5G NSA and, for some “lite data” tasks, leans on LTE more than rivals—potentially impacting responsiveness even when top-line speeds are improving.

• T-Mobile continues refining its extensive 5G SA footprint and leverages very large bandwidth in metro areas (often 200+ MHz total). It is also experimenting with additional spectrum layers in some markets and highlighting resilience efforts like satellite-based texting outside coverage, though usage in RootMetrics observations remained limited.

• Verizon is rapidly shifting toward 5G SA in metro testing and expanding C-band use while adding capacity features like more advanced carrier aggregation—including uplink improvements that matter as mobile use cases become more upload-heavy (video, telemetry, AI-driven apps). RootMetrics also noted some Voice over New Radio (VoNR)-related growing pains affecting call performance.
What it means for enterprises

For enterprise buyers, the report reinforces that “fastest” is less important than the best fit-to-use-case. Field service and logistics teams may prioritize coverage and 5G availability; headquarters and dense office environments may prioritize capacity and consistency; and organizations adopting real-time analytics, video, and AI workflows should pay closer attention to uplink performance and 5G SA maturity.

The bottom line is that US mobile networks are improving quickly, but in different ways. Enterprises should validate carrier performance where employees actually work—by region, indoor/outdoor mix, and application type—because competitive differences are increasingly about consistency of experience, architecture (SA vs. NSA), and how well each network handles the workloads businesses are transitioning to mobile.


The post AT&T, T-Mobile, and Verizon Trade Wins in H1 2026 as 5G SA and Mid-band Shape Real-world Performance appeared first on IT Connection.

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