AI PCs explained: NPUs TOPS Copilot+ and the new buying calculus

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PCMag’s “All About AI” framing arrives at a moment when the PC market is redefining itself around on‑device intelligence, and the result is a new purchasing calculus: raw CPU/GPU numbers still matter, but NPUs, TOPS, and Copilot+ integration now shape which machines deliver genuinely different experiences for productivity, creativity, and privacy-sensitive workflows.

Laptop screen showcasing AI tools: Copilot, 40 TOPS, Live Captions, with a glowing NPU indicator.Overview​

PCs have historically evolved in discrete leaps: faster CPUs, integrated GPUs, then powerful discrete graphics for gaming and content creation. The most recent leap is the addition of a third, AI‑specialist co‑processor—the Neural Processing Unit (NPU)—and an ecosystem of OS‑level features (notably Microsoft’s Copilot/Copilot+ program) that attempt to turn silicon advances into everyday value. PCMag’s “All About AI” series is an editorial effort to make sense of this transition for consumers and IT buyers: explain what the new specs mean in practice, list the real features that change workflows, and offer buying guidance for different user types. This article synthesizes the core technical claims, verifies them against independent reporting and vendor materials, and evaluates the strengths, tradeoffs, and risks for everyday Windows users and enterprise buyers.

Background: W product category now​

What changed in silicon and software​

Two trends converged to create the AI PC moment:
  • Chip vendors started integrating dedicated NPUs into laptop SoCs, measured and marketed in TOPS (trillions of operations per second). NPUs accelerate the low‑precision linear algebra workloads common to modern inference tasks, making some AI features efficient enough to run locally without continuous cloud trips.
  • Operating systems and app ecosystems (most visibly Windows with Copilot/Copilot+) began shipping features designed specifically to exploit local NPU acceleration—things like real‑time translation, on‑device summarization, and creative tools thar reduce data sent to the cloud.
Taken together, the hardware and software changes mean some AI tasks are now faster, more private, and more energy efficient than when they depended entirely on cloud inference. That’s the crux of the “AI PC” value proposition.

The practical threshold: Microsoft’s 40 TOPS rule​

Microsoft’s Copilot+ guidance set a practical baseline—roughly 40 TOPS on an NPU—as the performance level that enables a useful subset of on‑device experiences. Multiple trade‑press and independent outlets report and confirm this threshold as a de facto industry target for consumer Copilot+ experiences. This is not an absolute scientific limit; rather, it’s a pragmatic bar Microsoft and OEMs used to decide which SKUs earn the Copilot+ label. Treat the 40 TOPS figure as a helpful specification when shopping, but remember that real user experience depends on software optimization, thermal hage speed as much as raw TOPS.

What PCMag’s “All About AI” emphasizes (summary)​

PCMag’s coverage groups AI into approachable categories: conversational/chat assistants, productivity/knowledge tools (summaries, recall), generative media (images/video), and platform/OS level features (Windows Copilot, device‑level recall). The series highlights practical use cases—writing assistance, meeting transcription and summary, image co‑creation, and searching and “recalling” past work—as the places readers are most likely to notice immediate benefit. The series also frames the conversation around buyer questions: when does on‑device AI help enough to justify paying a premium, and what tradeoffs should buyers expect?
Key takeaways PCMag and related guides offer:
  • On‑device AI reduces latency and can protect sensitive data by avoiding round trips to the cloud.
  • A Copilot+‑qualified laptop (40+ TOPS, 16 GB RAM minimum recommended) unlocks a suite of Windows features that are truly different from the old experience: real‑time captions with translation, “Recall,” Cocreator tools in Paint, and more.
  • Not all users need a Copilot+ device—many workflows remain well served by modern Intel/AMD laptops without a high‑TOPS NPU.

Technical reality check: verifying the claims​

NPUs, TOPS, and real‑world meaning​

  • TOPS is a convenient marketing metric but is not a direct measure of real‑world performance. It quantifies theoretical integer operation throughput; actual inference speed, latency, and energy use depend on model architecture, quantization, memory bandwidth, driver and runtime optimizations, and thermal design. Independent coverage from Tom’s Hardware and Wired underlines this point: vendor TOPS figures are directional, not apples‑to‑apples benchmarks.
  • NPUs do excel at low‑precision workloads (INT8/INT4) that many quantized LLMs and multimodal models use. For features like live captions, background noise suppression, and small model inference (e.g., 7B–13B quantized models), an NPU in thebe a practical enabler. However, for very large models (30B+), NPUs in consumer laptops will still rely on model distillation, quantization, or cloud offload.

Are vendor claims like “58% faster than MacBook Air” credible?​

Vendor comparisons—e.g., claims that certain Copilot+ systems outperform specific MacBook models by percentages—are common. Independent writers and testers caution that:
  • Benchmark conditions vary (task selection, dataset, thermal/throttling behavior).
  • Performance gains are task‑dependent: an AI‑optimized inference task may run much faster on an NPU‑enabled system but that advantage may not transfer to raw CPU‑bound workloads.
    In short, vendor performance claims are worth noting but should be validated by independent reviews that test the exact SKU under realistic mixed workloads.

What Copilot+ actually offers on Windows (practical feature list)​

Microsoft and OEM partners promote a focused set of features that are emphasized across the trade press and platform documentation. These are the experiences most likely to feel materially “new” to users:
  • Recall: a device‑level memory of past actions and content to surface relevant files, snippets, or previous edits.
  • Cocreator / Creative Assist: tools in apps (e.g., Paint Cocreator) that transform quick sketches and text prompts into refined images using local model inference.
  • Live Captions & Live Translate: real‑time captions and translation for audio captured by the device, often with low latency when performed locally.
  • Windows Studio Effects: camera and audio enhancements applied in real time for video calls.
  • Click to Do: context‑aware suggestions and one‑click automations within apps.
These features are not universal—availability depends on Windows build, regional rollouts, and whice SKU is Copilot+ certified. Many of the experiences will degrade gracefully on non‑NPU devices (e.g., cloud fallbacks), but latency, privacy, and offline capability differ.

The buyer’s guide: who should pay for Copilot+ and when to wait​

Who benefits now​

  • Professionals who routinely handle long meetings, need fast, accurate transcripts and summaries, or who work with sensitive content that should not be sent to third‑party clouds.
  • Creators who want quick iteration on images or who benefit from on‑device creative tooling that saves time and bandwidth.
  • Travelers or field workers whose workflows must work offline or with limited bandwidth.
If these are core needs, Copilot+ SKUs (Snapdragon X Elite/X Plus, Intel Core Ultra 200V / Lunar Lake family, AMD Ryzen AI 300/400 series) are worth considering. Independent guidance recommends at least 16 GB of RAM and 512 GB SSD for a smooth Copilot+ experience, along with up‑to‑date Windows 11 builds and firmware.

Who should wait or skip​

  • Users whose primary tasks are legacy x86 enterprise applications with compatibility concerns, or heavy GPU rendering where raw GPU throughput (discrete GPUs) matters more than NPU‑based assistance.
  • Budget buyers who mainly use web, email, and office apps; a modern non‑NPU laptop still delivers excellent value.
  • Buyers who prioritize or AAA gaming or professional 3D rendering; current NPU‑driven gains are orthogonal to high‑end discrete GPU performance.

A practical buying checklist​

  • Verify the exact SKU—many model names include multiple configurations; Copilot+ support is SKU‑specific.
  • Confirm the NPU TOPS rating and vendor specification if you plan to rely heavily on local inference.
  • Target 16 GB RAM or more for general Copilot+ use; opt for 32 GB if you’ll run local LLMs or heavy multitasking.
  • Prefer NVMe SSD and 512 GB+ storage for Recall‑heavy users.
  • Read independent mixed‑use battery tests rather than vendor “up to” claims.

Notable device and market examples (verified claims)​

  • Snapdragon X Elite / X Plus: Qualcomm’s laptop chips have been used in the earliest Copilot+ devices; Hexagon NPUs in Snapdragon X series are regularly cited near the 40–50 TOPS class. Tom’s Hardware and other outlets documented the early Snapdragon‑first Copilot+ wave.
  • Intel Core Ultra / Lunar Lake: Intel’s “Panther Lake/Lunar Lake/Core Ultra” class chips include integrated NPUs and are marketed for improved AI capabilities; coverage confirms Intel’s positioning around on‑device AI and growing TOPS figures.
  • AMD Ryzen AI family: AMD’s Ryzen AI chips are an alternative that pairs Zen cores with an integrated NPU block; some laptop SKUs claim NPU ratings in the 40–50 TOPS range.
  • Lenovo ThinkPad X1 Carbon (Aura Edition): PCMag and other reviews place the X1 Carbon Aura as a premium business pick with Intel Core Ultra silicon, OLED options, and an integrated NPU in the high‑30s/low‑50s TOPS range depending on configuration—benchmarks and battery results vary by SKU. Independent lab tests emphasize evaluating the exact configuration you intend to buy.

Strengths: what’s most promising​

  • Latency and offline capability: On‑device inference makes AI feel instantaneous for many tasks and enables features without an internet connection—important for privacy and reliability.
  • Energy efficiency for sustained tasks: When properly optimized, NPUs can do continuous audio transcription or live video effects with less power than a CPU‑oriented approach.
  • New class of productivity features: Systems that combine Recall, Cocreator, and Click to Do can change day‑to‑day workflows by reducing friction in content creation and information retrieval.

Risks, caveats and remaining questions​

  • Vendor claims vs. independent testing: TOPS numbers, battery “up to” hours, and percent‑faster claims are vendor metrics; independent benchrent mixed‑use results. Buyers should lean on third‑party reviews for SKU‑level validation.
  • Ecosystem and app support: Raw NPU power is useless without software that uses it. Many Copilot+ experiences require vendor and app updates; eounter uneven support across apps.
  • Security, privacy and governance: On‑device AI reduces cloud exposure, but it also raises questions about local data retention (Recall) and enterprise govertention policies, how is local data encrypted, and how does IT audit AI‑generated outputs? Enterprises must define governance and retention policies before broad rollouts.
  • Environmental cost and upgrade cycles: High‑end Copilot+ SKUs push prices up and can accelerate device replacement cycles; organizations should weigh e‑waste and cost against productivity gains.
  • The NPU vs GPU reality: Some independent analysts argue that GPUs still power many practical local AI workloads better than consumer NPUs today; NPUs are optimized for efficiency in targeted tasks but do not universally replace GPU inferencing for larger or more flexible models. This tension suggests NPUs will complement, not fully replace, GPU capabilities for the foreseeable future.

Deployment advice for IT and enterprise buyers​

  • Run a pilot with a representative subset of users and workloads before full procurement. Test meeting transcall behavior, and compatibility with your core business apps.
  • Define governance for Recall and AI‑created artifacts: retention, access controls, and audit trails.
  • Validate vendor update cadence and driver support—Copilot+ experiences depend on firmware and OS updates, so vendor responsiveness matters.
  • Consider total cost of ownership: premium Copilot+ SKUs have higher upfront costs, but may save time on productivity tasks; quantify expected time savings before committing.

Practical tips for consumers​

  • If you primarily use your laptop for email, web browsing, and occasional streaming, a modern midrange laptop without a high TOPS NPU will still serve you well.
  • If you want on‑device AI for travel or privacy reasons, prioritize battery life figures from independent mixed‑use tests and confirm the exact SKU’s NPU rating.
  • For hobbyist local LLM experiments, choose a machine with more RAM and fast NVMe storage and plan to use quantized models (7B–13B range) for responsive results.

The long view: where AI PCs fit in the ecosystem​

AI is becoming the new baseline platform capability—like adding integrated GPUs a generation ago. That doesn’t mean every PC will need a 50 TOPS NPU forever. Rather, expect increasing specialization: some devices (ultracompact, battery‑focused machines) will lean on highly efficient NPUs; workstations and gaming rigs will prioritize GPUs and discrete accelerators; and cloud services will continue to host the largest models. The real consumer change is the emergence of features that can now run locally and afford new privacy‑preserving use cases. PCMag’s “All About AI” series captures that shift by focusing on user‑facing outcomes rather than vanity specs alone.

Final verdict​

PCMag’s “All About AI” advocacy is timely: it explains the what and the why of an industry pivot that matters to buyers. The headline technical facts—NPUs, TOPS, Copilot+ features and the 40 TOPS practical threshold—are largely correct as industry markers, but they come with important qualifiers. Real world experience depends on SKU details, software optimization, and independent testing. For buyers whose workflows map to the new Copilot+ experiences (meeting recall, offline creative iteration, low‑latency transcription), Copilot+ laptops are worth serious consideration. For everyone else, the best device remains the one aligned with your primary tasks, bud needs. Always verify the exact SKU, read independentd account for governance and privacy when planning rollouts or purchases.

Quick checklist (one‑page buyer’s summary)​

  • Confirm the SKU is labeled Copilot+ or lists an NPU rated ≥40 T
  • Target 16 GB RAM minimum; 32 GB if you plan on local LLM work.
  • Prefer NVMe SSD (512 GB+) for Recall heavy use.
  • Read independent battery and mixed‑use tests rather than vendor “up to” numbers.
  • Define data governance for Recall and AI outputs if deploying at scale.

PCMag’s “All About AI” is a useful consumer compass at a confusing inflection point—its direction is clear: AI is not a feature you add, it’s a platform layer that changes how PCs are built and used. The practical advice is straightforward: understand what on‑device AI will do for your real tasks, validate the exact SKU and its independent benchmarks, and plan governance for any data the AI will retain. Those steps separate useful, productivity‑boosting devices from expensive hype.

Source: PCMag https://www.pcmag.com/series/all-about-artificial-intelligence]
 

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IT worker disables Microsoft Copilot via Windows admin templates.
Microsoft has quietly given IT administrators a sanctioned way to remove the standalone Microsoft Copilot app from managed Windows devices — but the new control is narrow, gated, and currently limited to Insider Preview builds and managed editions, meaning unshipping Copilot will require planning, exceptions, and additional controls to be effective at scale.

Background​

Microsoft’s Copilot has been folded deeply into Windows, Office, and Edge as a central pillar of the company’s AI strategy. That integration created two realities: for many organizations Copilot is a welcome productivity layer, but for others — especially regulated environments, privacy-sensitive deployments, or teams that prefer deterministic software stacks — Copilot represents an unwelcome desktop component that needs governance.
Administrators have had ways to hide or disable Copilot surface area (taskbar toggles, Group Policy and Registry keys that turn off Copilot UI), but until now there has been no official, supported mechanism to uninstall the consumer Copilot app from tenant-managed endpoints in a predictable, audited way. The new policy that appears in recent Insider Preview builds closes that gap — in a very specific, conservative fashion.

What changed and who gets access​

A new Group Policy setting called RemoveMicrosoftCopilotApp has been added to recent Insider Preview releases. When enabled and when a device meets the policy’s gating conditions, Windows will perform a one-time uninstall of the consumer Microsoft Copilot app for the targeted user account.
Key technical details administrators need to know:
  • The policy is exposed in the Group Policy Editor at:
    • User Configuration > Administrative Templates > Windows AI > Remove Microsoft Copilot App
  • It is available in Insider Preview builds distributed to the Dev and Beta channels and is currently implemented in the Windows 11 build stream tied to the 25H2 enablement package.
  • The policy applies to managed editions: Windows 11 Pro, Enterprise, and Education.
  • The uninstall action is one-time per targeted user; it does not create a permanent block on future installs.
These facts reflect the way Microsoft is rolling out the control: as a managed, opt-in mechanism for IT rather than a global removal option for unmanaged consumer devices.

The gatekeepers: three hard conditions that trip the uninstall​

The RemoveMicrosoftCopilotApp policy will only trigger when all of the following conditions are true for the device and user in question:
  1. Both Microsoft 365 Copilot (the tenant / paid service) and the consumer Microsoft Copilot app are installed on the device.
  2. The consumer Microsoft Copilot app was not installed by the user — it must have been provisioned, tenant-pushed, or OEM-provisioned.
  3. The consumer Microsoft Copilot app has not been launched in the last 28 days.
These gates are the defining characteristics of the feature: they deliberately exclude single-user, user-installed scenarios, protect tenant-paid experiences, and require a month-long inactivity window before removal will occur.
Why those checks matter in practice:
  • The requirement that Microsoft 365 Copilot be present avoids stripping the tenant-facing experience that paid or managed users might depend on.
  • The “not user-installed” test prevents admins from silently removing apps users chose to install themselves.
  • The 28‑day inactivity clock is the practical blocker — because the Copilot app is set to auto-start by default and users can open it via shortcuts, achieving a full 28-day window of non-use usually requires disabling auto-launch and coordinating user behavior.

Why Microsoft built the policy this way (analysis)​

The policy’s conservative design is intentional and sensible from multiple angles.
  • It minimizes user disruption. A blanket uninstall without safeguards risks breaking workflows, creating support noise, and inadvertently removing a tenant-paid feature users depend on.
  • It protects Microsoft’s licensing and service model. Requiring the presence of Microsoft 365 Copilot keeps paid tenant capabilities intact while letting IT tidy unused consumer installs.
  • It limits surprise: the 28-day inactivity gate ensures the app isn’t yanked from devices where someone has recently used it, avoiding the “you just removed my tool” helpdesk ticket.
That said, the policy’s very conservatism makes it a cleanup tool rather than a management “kill switch.” For organizations that need a durable, enforceable ban on Copilot usage or reinstallation, this one-time uninstall will have to be combined with additional controls (application control policies, tenant provisioning rules, or proactive configuration management).
(Warning: statements about Microsoft’s motives are informed analysis and reasonable inference based on the policy’s mechanics; they are not explicit official statements of intent.

Operational realities: what the policy does — and does not — remove​

Administrators should be precise about the scope of the new policy:
  • The policy uninstalls the consumer Microsoft Copilot app only. It does not globally remove every Copilot-branded integration across Windows, Edge, or Microsoft 365.
  • It performs a single uninstall operation for the targeted user and does not create a persistent ban. Users can reinstall the app from the Microsoft Store, tenant provisioning can re-push it, and feature updates can reintroduce it.
  • It is aimed at managed devices. Home and unmanaged PCs remain outside the scope of this Group Policy control.
  • The policy is currently part of Insider Preview builds; production availability and potential behavior changes will depend on Microsoft’s broader rollout decisions.
Put plainly: this is a managed clean-up lever, not a permanent removal mechanism.

How to verify whether a device is eligible for removal​

Before enabling RemoveMicrosoftCopilotApp at scale, administrators should validate device eligibility. Use the following checklist:
  • Confirm both apps are installed:
    • Verify the Microsoft Copilot (consumer) app is present.
    • Verify Microsoft 365 Copilot (tenant app) is installed or provisioned for the user.
  • Check installation provenance:
    • Determine whether the consumer Copilot app was preinstalled, device-provisioned, or tenant-pushed. If it was installed by the user via the Microsoft Store, the policy will not apply.
  • Audit usage:
    • Confirm the app has not been launched for 28 consecutive days. Because Copilot defaults to auto-start, this may require disabling auto-start and then waiting the full 28-day period.
  • Confirm Windows SKU:
    • Ensure endpoints are Windows 11 Pro, Enterprise, or Education and are enrolled in management that can push Group Policy or equivalent MDM settings.
  • Test on a pilot ring:
    • Apply the setting to a small, controlled pilot group and monitor for side effects such as broken shortcuts, changes to accessibility tooling (e.g., Narrator image descriptions), and user support tickets.

Practical steps for IT teams wanting to use the policy​

  1. Prepare a pilot ring: pick 25–100 devices representing typical user personas (developers, knowledge workers, accessibility-dependent users).
  2. Disable Copilot autostart before enabling the policy:
    • Use Task Manager > Startup Apps to disable Copilot autostart, or push a startup policy via Intune.
  3. Verify app provenance:
    • Query installed app metadata or use MDM inventory to confirm the consumer Copilot app was not user-installed.
  4. Wait the inactivity window:
    • Ensure 28 continuous days elapse without Copilot being launched. Use telemetry or endpoint logs to confirm no launches occurred.
  5. Enable the Group Policy:
    • Set User Configuration > Administrative Templates > Windows AI > Remove Microsoft Copilot App.
    • If deploying with Intune, use the ADMX-backed policy or a registry equivalent to deliver the setting at scale.
  6. Monitor the uninstall:
    • Verify the app is removed for targeted users and collect user feedback.
  7. Harden against re-provisioning (if desired):
    • Combine the uninstall with application control policies (AppLocker/WDAC) or tenant provisioning rules to prevent reinstallation.
  8. Communicate to users:
    • Inform affected users about the change, explain the path to reinstall if they need Copilot again, and document any temporary behavior changes.

Durable enforcement: why pairing the uninstall with application control matters​

Because the uninstall is one-time and reinstallation is possible via multiple channels (Microsoft Store, tenant provisioning, feature updates), organizations that require a sustained Copilot-free posture should combine the policy with additional controls:
  • AppLocker or Windows Defender Application Control (WDAC): create rules that prevent the Copilot executable or package from running or installing. This provides a durable enforcement layer that persists across reinstall attempts, tenant pushes, and user actions.
  • Intune app protection: block Store installs for specific packages or use Intune device compliance policies to limit who can install Store apps.
  • Tenant provisioning settings: ensure tenant image and provisioning flows do not reintroduce the consumer Copilot app by default.
  • Post-update verification: include Copilot checks in patch-post validation so feature updates that inadvertently reintroduce the app can be detected and remediated quickly.
These hardened approaches require testing with accessibility teams and other stakeholders — aggressive blocking can have unintended consequences for workflows that rely on Copilot or shared AI components.

Risks, caveats, and support implications​

  • The 28‑day inactivity requirement is the biggest operational headache. Because Copilot is auto-started and easily invoked via keyboard, ensuring truly unused installs across large fleets is nontrivial.
  • Accessibility functionality may rely on Copilot components. Removing the consumer app can alter behavior for assistive features; engage accessibility stakeholders before mass deployments.
  • The uninstall is reversible by users. If users can reinstall from the Store, you will see re-introduction unless you pair the uninstall with AppLocker/WDAC or tenant provisioning changes.
  • The policy lives in Insider builds now. Behavior could change as Microsoft takes feedback and prepares general rollout; expect naming, policy path, or gating logic to adjust before production release.
  • One-time uninstall semantics complicate automation. If your process relies on idempotent operations, plan scripts or runbooks that verify the desired end-state and apply secondary controls if required.

Alternatives for non-managed households and small businesses​

For unmanaged PCs (Windows Home or BYO devices), there’s still no supported global uninstall policy. Administrators and users can reduce Copilot’s surface area with these steps:
  • Hide the Copilot button on the taskbar: Settings > Personalization > Taskbar > toggle Copilot off.
  • Disable Copilot auto-start: Task Manager > Startup Apps > disable Microsoft Copilot.
  • Use local Registry keys or the local Group Policy Editor (where available) to disable Copilot UI by turning on TurnOffWindowsCopilot settings.
  • Educate users that the consumer Copilot app can be reinstalled from the Microsoft Store if desired, so hiding is not equivalent to uninstalling.
These mitigations reduce background starts and visual clutter but do not remove the app completely for unmanaged or Home devices.

Community reaction and historical precedent​

The community has been vocal about wanting more control over Copilot. That sentiment gained visibility when, during an earlier update cycle, a March update unintentionally removed Copilot for some users. Reactions ranged from relief to confusion, and that incident highlighted both the fragility of the delivery model and the appetite for a supported uninstall mechanism.
The policy seen in Insider builds appears to be Microsoft’s answer: provide an auditable, supported uninstall path for managed devices while preserving tenant-paid functionality and minimizing unintended fallout.

Scenarios where the policy is a meaningful win​

  • Regulated environments that must minimize consumer-facing AI endpoints while retaining tenant AI for approved services.
  • Education deployments where institutions want to control desktop appearances and app availability for standardized testing labs.
  • Environments with strict app catalogs that seek a supported, auditable way to remove unused provisioned apps without heavy scripting or unsupported hacks.
In each of these scenarios, the policy offers a documented, supportable path to reduce the AI surface area — assuming the gating conditions can be met.

How to plan a rollout (recommended sequence)​

  1. Inventory: Build an inventory of Copilot app installations, provenance, and recent usage.
  2. Stakeholder alignment: Get sign‑off from security, compliance, and accessibility teams.
  3. Pilot: Apply the policy to a small set of endpoints and validate removal, accessibility impacts, and reinstall behavior.
  4. Harden: Pair with AppLocker/WDAC and tenant provisioning changes if sustained removal is required.
  5. Rollout: Stage the policy across rings, include post-update verification, and monitor the helpdesk volume.
  6. Operationalize: Add a periodic check to post-update validation scripts to detect re-provisioning and re-apply controls if needed.

The bottom line​

Microsoft’s RemoveMicrosoftCopilotApp Group Policy is a welcome addition for organizations that want a supported way to remove unused consumer Copilot installs from managed endpoints. However, its conservative gates — the requirement for Microsoft 365 Copilot to be present, the prohibition on removing user-installed copies, and the 28-day inactivity window — limit its applicability to targeted cleanups rather than fleet-wide bans.
For IT teams that need a durable Copilot-free posture, the policy is useful as one part of a broader strategy that should include application control (AppLocker/WDAC), tenant provisioning changes, and rigorous testing with accessibility and support teams. For unmanaged consumer and small-business PCs, hiding and disabling Copilot remains the most practical option today.
The feature’s presence in Insider channels means behavior may evolve before general availability; organizations should treat this as an opportunity to test processes and build hardened controls now, rather than expecting a single checkbox to solve all Copilot governance challenges.

Source: findarticles.com Copilot Uninstall Lands On Managed Windows But With Catches
 

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