Mac patch management: The realities of macOS patching

Mac adoption in enterprise environments has accelerated, but IT management tooling, and patch management in particular, hasn't always kept pace. The workflows that work for Windows, including Group Policy, WSUS, and System Center Configuration Manager (SCCM), don't translate directly to macOS. The tooling assumptions are simply different.
Apple's update architecture operates on different assumptions. On macOS, configuration profiles delivered via MDM handle update enforcement and deferral policies. For update delivery, Apple's Software Update service handles distribution directly. There's no native equivalent to WSUS's approval-and-staging workflow, which is exactly why third-party tooling often fills that gap. And mechanisms like Rapid Security Response introduce patching cadences that Windows admins may not have encountered before.

This guide covers how macOS delivers updates, where visibility gaps emerge, how to prioritize Apple vulnerabilities alongside Windows CVEs, and what it takes to integrate Mac patching into a unified cross-platform program.

How macOS delivers updates

Mac patch management involves identifying, testing, and deploying operating system and application updates to Mac devices and macOS endpoints. Unlike Windows environments where Group Policy and WSUS provide centralized control, macOS relies on Apple's Software Update framework and MDM solutions.

Apple distributes macOS updates through its Software Update service. Endpoints check automatically or on a schedule you define. In enterprise environments, MDM solutions send configuration profiles and update commands to enrolled Macs.

[Build a repeatable, scalable patch program for your entire endpoint environment]

These updates range from major operating system releases to minor point updates containing bug fixes, performance improvements, and security patches, each with different urgency levels and deployment considerations for enterprise teams.

Here's where the architecture diverges from Windows:

• No Group Policy equivalent: macOS uses configuration profiles delivered via MDM to control update behavior, deferral windows, and installation timing. Newer macOS versions also support declarative device management (DDM), Apple's JSON-based successor to XML configuration profiles, which offers improved reliability and status reporting for managed devices.
• Apple Business Manager (ABM) integration: ABM is the backbone of enterprise Mac management, not just a device enrollment portal. It's also the source of truth for Apple-licensed app distribution, managed Apple IDs, and federated identity. Supervised devices enrolled through ABM accept the broadest range of MDM commands, including silent updates and remote wipes. Organizations that treat ABM setup as optional often discover its absence during their first forced OS update rollout.
• User-initiated vs. MDM-pushed updates: Unsupervised Macs may prompt end users to install updates through system notifications or Software Update prompts. Supervised Macs can receive silent installations or scheduled deployments through MDM commands, often without requiring user interaction, although behavior varies by chip architecture and macOS version.

If you're accustomed to pushing Windows updates through SCCM or Intune with granular targeting and deferral policies, you'll find macOS update management more dependent on device supervision status and MDM capabilities.

Understanding how Apple delivers standard updates sets the stage for a newer, faster mechanism that changes the patching calculus entirely.

Apple Rapid Security Response explained

Apple introduced Rapid Security Responses in macOS Ventura to address critical vulnerabilities faster than the traditional update cycle allows. These patches are lightweight and install quickly, often without requiring a full system reboot.

In practice, Apple has used RSR primarily to patch WebKit and Safari vulnerabilities: the browser attack surface where speed of remediation matters most.

Note for macOS 26.1 and later: Apple is evolving this mechanism under a new name—Background Security Improvements—starting with macOS 26.1, iOS 26.1, and iPadOS 26.1.
The underlying purpose is the same: to streamline the lightweight, targeted security patches between full releases, focused on components like Safari, WebKit, and other system libraries.
Apple publishes a running list of both standard updates and Background Security Improvements in its Apple security releases page. If your fleet is running or planning to upgrade to macOS 26.1, review Apple's security architecture documentation for updated guidance on how the delivery mechanism works.

For IT admins managing enterprise Mac fleets on current macOS versions, RSR introduces both opportunity and complexity:

• Faster protection: When Apple identifies an actively exploited zero-day, RSR can deliver a fix before the next scheduled macOS point release.
• Change management implications: RSR patches may arrive outside your normal maintenance windows. Your change advisory board process may benefit from a fast-track path for RSR updates. Because RSR patches typically install without a full reboot, they minimize downtime and disruptions compared to traditional cumulative updates, making fast-track approval easier to justify.
• MDM policy interaction: You can defer RSR through MDM configuration profiles, but doing so extends your exposure window. Note that MDM deferral behavior for Background Security Improvements in macOS 26.1 and later may differ, so verify current MDM vendor documentation when you upgrade.
• Rollback capability: Unlike cumulative macOS updates, RSR patches can be removed if they cause compatibility issues. Rollback reliability varies by MDM platform and macOS version. Verify your MDM supports RSR removal before treating it as a guaranteed recovery option.

RSR reflects Apple's recognition that traditional update cycles can struggle to keep pace with modern exploit timelines. With the right process adjustments, your patching program can be structured to handle this faster cadence while maintaining governance controls.

With update mechanisms covered, the next challenge is ensuring you actually have visibility into every Mac that requires patching.

MDM enrollment gaps and unmanaged endpoints

Your MDM solution only reports patch status for devices it knows about. Any Mac not enrolled, whether due to bring your own device (BYOD) policies, acquisition integrations, or enrollment failures, represents a blind spot in your patch compliance data.

A single unmanaged Mac running outdated software may create an entry point for lateral movement if an attacker gains an initial foothold.

Unpatched endpoints are a well-documented attack vector, and without visibility into which devices are current, you can't remediate what you can't see.

Enrollment gaps aren't just a management inconvenience. They represent a direct gap in endpoint security. Every unmanaged Mac is a device whose patch status is unknown, whose vulnerabilities are untracked, and whose exposure to exploitation goes unmonitored.

And when auditors ask for patch compliance evidence, devices outside MDM don't appear in your reports.

Common causes of enrollment gaps include:

• BYOD and contractor devices: Personal Macs used for work may be enrolled through Apple's User Enrollment pathway, but that's a fundamentally different management state than corporate-owned devices enrolled through Automated Device Enrollment (ADE). The patch visibility you get from one is not the same as the other.

ADE vs. User Enrollment is not the same thing. Apple intentionally limits what MDM can see and do on personally enrolled devices. Managed apps are containerized, device-level queries are restricted, and many MDM commands don't apply at all. That's a privacy partition by design.

A user-enrolled MacBook may appear in your MDM console as enrolled while remaining effectively invisible for patch compliance purposes. Build your BYOD policy around that reality, not around the assumption that enrollment equals visibility.[/callOut]

• M&A transitions: Acquired companies often bring their own device fleets with different management tools or no management at all.
• Enrollment failures: Devices that fail automated enrollment during setup may slip through without IT awareness.
• Shadow IT: Departments sometimes procure Macs outside standard channels, bypassing the enrollment process entirely.

Closing enrollment gaps requires an endpoint management solution with discovery capabilities that operate independently of MDM. Network scanning, agent-based discovery, or integration with identity providers can help identify Macs that aren't reporting to your management platform.

Once you've identified unmanaged devices, the remediation path depends on your organization's policies.

Some teams enforce enrollment as a condition of network access. Others use lightweight agents that can assess patch status without full MDM enrollment.

Visibility is the foundation. Without it, your patch compliance metrics reflect only a partial picture of your actual exposure.

Knowing which devices exist is one thing. Deciding which patches to prioritize across those devices is another challenge entirely.

Prioritizing macOS patches with CVE risk signals

Apple’s security release notes list the vulnerabilities addressed in each update, but they do not always include critical CVSS scores or exploitation likelihood data at the initial time of release.
In real‑world terms, “not always upfront” often means waiting days or even weeks after release, and in some cases CVSS scores do not appear until after NVD publishes its own analysis.

Apple's security notes may also use language like "Apple is aware of a report that this issue may have been actively exploited" without immediately confirming KEV-level exploitation. For teams running real-time risk programs, this lag is an operational problem, not a minor inconvenience.

Unpatched macOS vulnerabilities can expose systems to unauthorized access and serve as entry points for malware, ransomware, and threats that spread laterally once a foothold is established.

Here's how to connect Apple's release information to standard risk signals:

• Map Apple CVEs to the NVD: Apple assigns CVE identifiers to most vulnerabilities. Cross-reference those identifiers with NVD entries to retrieve CVSS scores and technical details.
• Check CISA's KEV catalog: If a macOS CVE appears in KEV, it's been exploited in the wild and warrants immediate attention regardless of CVSS score.
• Apply Exploit Prediction Scoring System (EPSS) data: EPSS provides probability scores for exploitation within 30 days. Scores above roughly 10% generally warrant elevated attention, though thresholds should be calibrated to your environment. High EPSS scores signal urgency even when CVSS alone might suggest moderate severity.
• Factor in asset criticality: A vulnerability on an executive's MacBook with access to sensitive data carries different risk than the same flaw on a shared conference room device.

Build your workflow around NVD and CISA KEV as primary signals, not Apple's release notes as the starting point. When your vulnerability management workflow already incorporates CVSS, KEV, and EPSS for Windows, extending that framework to macOS creates consistency and reduces the chance of overlooking critical Apple vulnerabilities.

Knowing how to prioritize OS-level vulnerabilities is only half the problem. The applications running on your Macs operate on an entirely different patching track.

Third-party macOS app patching

macOS updates from Apple cover the operating system and bundled apps like Safari. Everything else, including browsers like Chrome and Firefox, productivity tools like Zoom and Slack, and developer utilities, requires separate patching workflows.

macOS is an open platform by design: applications can be distributed and updated entirely outside the App Store, through vendor websites, enterprise deployment tools, or custom packages.

That openness is a feature for developers and power users. For IT, it means there's no single update mechanism covering your full application catalog.

This means:

• No centralized update mechanism: Each application may have its own update process, from in-app prompts to silent background updates to manual downloads.
• Version sprawl: Without enforcement, users may defer updates indefinitely, leaving vulnerable versions running across your fleet and creating compounding security risks that are difficult to quantify without centralized visibility.
• Visibility challenges: Your MDM may not report installed versions of non-App Store applications, making it difficult to assess exposure.

Enterprise teams typically address third-party macOS patching through one of three approaches:

1. MDM-managed app deployment: Some MDM solutions support deploying and updating third-party apps through custom packages or integrations with vendor update feeds.
2. Dedicated patch management software: Dedicated patch management platforms can inventory installed applications, identify outdated versions, and deploy updates across your Mac fleet. This is often with pre-built catalogs for common third-party apps that eliminate the need to manually create and maintain deployment packages.
3. Vendor-specific management: Certain applications (Adobe Creative Cloud, Microsoft 365) include their own enterprise update management capabilities.

Third-party macOS patching often requires more manual configuration than Windows equivalents. WSUS and SCCM have mature ecosystems for third-party patch catalogs. macOS tooling is catching up, but you'll likely invest more effort in building and maintaining your third-party patching workflows.

[Learn why server patch management demands real-time inventory, risk-based prioritization, and staged rollouts that go beyond standard endpoint patching]

Without the right tooling, this process can be time-consuming, requiring IT teams to manually track vendor release cycles, build custom packages, and validate deployments across a diverse application catalog.

With both OS and application patching addressed, the next step is connecting macOS into your broader enterprise patching program.

Integrating Mac patching into a cross-platform program

Most enterprise environments run Windows, macOS, and Linux endpoints alongside cloud workloads. Treating each platform as a separate patching silo creates inefficiency and increases the risk of inconsistent coverage.

This challenge is especially pronounced for managed service providers (MSPs) managing Mac fleets across multiple client environments, where inconsistent tooling and siloed reporting make it difficult to maintain consistent patch coverage at scale.

Integration means bringing macOS patch data into the same workflows, dashboards, and reporting structures you use for other platforms:

• Unified vulnerability dashboards: Your security team shouldn't check separate consoles for Windows and Mac patch status. Feed macOS vulnerability and patch data into your existing SIEM or vulnerability management platform.
• Consistent SLAs: If your patching policy requires critical updates within 72 hours for Windows, apply the same standard to macOS. Different timelines create confusion and audit risk.
• Shared change management: Route macOS patch deployments through the same change management approval process as Windows updates. This ensures proper review without creating parallel governance structures.
• Cross-platform reporting: When leadership asks about patch compliance, the answer reflects your entire endpoint population, not just the platforms with the most mature tooling.

Bringing macOS into a unified patching program doesn't just improve coverage. It helps IT teams reduce tool sprawl and report on compliance across all platforms from a single source of truth.

The technical challenge is normalization. Windows patches come from Microsoft with KB numbers. macOS updates have build numbers and version strings. Linux distributions use their own versioning schemes. Your tooling translates patch data into a common framework for comparison and reporting.

[Expanding your patch program beyond Windows? See what Linux patch management requires]

Platforms that provide real-time endpoint data across operating systems simplify this integration.

When you can query patch status for Windows, macOS, and Linux from a single console, cross-platform governance becomes practical rather than aspirational.

Unified visibility also supports the compliance requirements that increasingly apply to all endpoints, regardless of operating system.

macOS patch compliance in regulated environments

Regulatory frameworks like HIPAA, PCI DSS, and NIST SP 800-40 don't distinguish between operating systems. If your compliance scope includes endpoints, it includes Macs.

Effective patch management for macOS in regulated environments means more than deploying updates on time. It requires documented policies, auditable evidence, and tooling that can demonstrate compliance across your entire Mac fleet.

This creates specific obligations for macOS patch management:

• Documented patch policies: Auditors expect written policies that define patch timelines, testing procedures, and exception handling. Patch policies apply to macOS just as they do to Windows.
• Evidence of patch status: You'll produce reports showing which Macs have which patches installed, when patches were applied, and which devices have outstanding vulnerabilities.
• Center for Internet Security (CIS) Benchmarks for macOS: The Center for Internet Security publishes hardening benchmarks for macOS that include patch-related controls. Many compliance programs reference CIS as a baseline.

One operational detail worth building into your compliance program: CIS publishes a new macOS benchmark with each major OS release, and the versioning matters.
A compliance program running assessments against the CIS macOS 13 benchmark while your fleet has largely moved to macOS 15 will have coverage gaps, with some controls changing between releases and new attack surfaces introduced with each one.
Confirm your assessment tooling is pulling from the current benchmark version for the OS versions actually running in your environment.

• Timely remediation: PCI DSS, for example, requires critical patches within 30 days. Your macOS patching cadence can be configured to help support PCI DSS patch timeline requirements as part of a broader compliance program.

The audit challenge with macOS often comes down to tooling. If your patch management platform doesn't provide the same reporting depth for Macs as it does for Windows, you'll spend more time manually assembling evidence.

Compliance isn't just about having patches installed. It's about proving you have patches installed, when they were applied, and that your patching process is repeatable and well-documented.

How Tanium supports Mac patch management

Tanium's Autonomous IT Platform provides real-time visibility and endpoint management across macOS, Windows, and Linux from a single console, helping reduce the need for separate workflows for each operating system.

Tanium approaches patch management as a lifecycle spanning discovery, prioritization, approval, deployment, and validation. For macOS, Tanium pulls directly from Apple's official system update catalogs to display available macOS patches. Device visibility depends on enrollment in Device Management either through automated enrollment via Apple Business Manager or Apple School Manager or through manual profile installation. From there, organizations can use real-time vulnerability data to prioritize remediation on the exposures that matter most.

Software update management for macOS

Tanium manages macOS software updates through its Device Management capability, which uses MDM-based Software Update Settings and Software Update Enforcement configurations. Teams can define update deferral windows, specify target build versions, and set enforcement deadlines—then apply those settings across device groups through collections.

The Device Management Overview dashboard gives teams visibility into their Mac fleet through several panels: Mac Devices by Version, Inactive Devices, Devices Checked in By Day. Together, these help identify endpoints that haven't reached a target version and flag devices that may no longer be receiving enforcement settings.

One important operational consideration: when an enforcement setting is incompatible with a targeted device—for example, an OS version not supported by that device's hardware—the device may return an error or silently ignore the enforcement without surfacing a notification on the device. This is Apple-design behavior, and it means version reporting is a necessary complement to enforcement configuration, not a substitute for it.
This is exactly why Tanium's Mac Devices by Version report matters. The report does more than track fleet distribution. It also helps surface silent failures.
If enforcement ran successfully, version distribution shifts. If it didn't, whether due to a hardware incompatibility or an enrollment gap, those devices stay on the older version and show up in reporting. That's the signal to investigate.

Third-party software updates at scale

Native macOS update mechanisms don't cover third-party applications. Tanium Deploy addresses this directly with templates for importing and deploying third-party software, so teams don't need to monitor vendor release cycles or manually build deployment packages.

Tanium Deploy's Predefined Package Gallery includes pre-packaged templates for macOS applications, including common enterprise software such as browsers, productivity tools, communication apps, and developer utilities.

Packages support installation, update, and removal operations and can be configured to import new versions as Tanium releases them. Tanium Deploy can also manage macOS version upgrades directly, using a two-phase pre-cache and upgrade process to minimize bandwidth impact across large deployments.

Compliance assessments and vulnerability visibility

Tanium Comply conducts vulnerability and compliance assessments against operating systems, applications, and security configurations, supporting Security Content Automation Protocol (SCAP) and Open Vulnerability and Assessment Language (OVAL)-based content with content libraries updated daily. This covers macOS endpoints across both Intel and Macs running Apple silicon (M1 and later).

Findings from Comply can also feed into the same platform used for deployment and remediation, reducing the need to switch consoles or route tickets to separate teams.

Automation and orchestration for software workflows

Tanium Automate uses playbooks to perform sequential steps that run automatically or manually and coordinate software deployment tasks across Tanium solutions, including on macOS endpoints. Each step can target specific endpoint groups, and operators can configure playbooks to advance automatically or require manual authorization at each stage.

Watch Tanium patch management in practice

Dennis, a veteran IT analyst, explains how a single Tech Talks episode on Zero Touch deployment prompted him to overhaul his entire patching approach, pushing compliance from 45% to 97%. Here's what changed.

Real-world results

Synopsys manages a fleet of 23,000 endpoints with Tanium, including a mix of Windows PCs and Macs across the Americas region.

The IT team uses Tanium to keep browser updates current and patch commonly used endpoint applications, handling questions about endpoint state in real time that previously took up to a week to answer.

[Read the case study]

“We're always under pressure to do more with less. Tanium has helped my team do that.”

Synopsys Director of IT Andrew Wall

Mac patch management FAQ

Mac patching surfaces a consistent set of questions for enterprise teams, especially those extending an existing Windows-focused program. The answers below cover the most common operational and architectural gaps teams encounter.

How do I patch Macs that aren't enrolled in MDM?

The first step is understanding what you're dealing with. Unenrolled Macs in most environments fall into a few categories: devices that missed the standard provisioning workflow, contractor or BYOD machines outside your management boundary, and devices belonging to users who declined enrollment. The right approach depends on which problem you're solving.

For unenrolled Macs where you have administrative access, the softwareupdate command-line tool patches without MDM. It can be run manually, delivered via script, or triggered through an agent. Agent-based endpoint management tools can also assess and remediate patch status independently of MDM enrollment, though deploying an agent still requires some access path to the device.

For machines you can't reach programmatically, documented user-initiated update policies with compliance deadlines are a practical fallback, particularly for contractor or BYOD devices. This approach depends on enforcement and reporting rather than direct remediation, so it works best when paired with visibility tooling that confirms whether updates were actually applied.

Without MDM, patch coverage on unmanaged devices will always be harder to verify and enforce. That's the underlying constraint regardless of which tools or workflows you use.

Can I defer Apple Rapid Security Responses?

Yes, with a few things worth understanding before you rely on deferral as a control.

MDM configuration profiles can be used to prevent Rapid Security Responses from being installed automatically, or to block users from removing them once installed. These are managed separately from standard OS update deferral settings, so confirm your MDM vendor's documentation for the correct configuration approach as applying standard OS update deferral settings to RSRs is a common misconfiguration.

One behavioral detail that affects deferral planning: RSRs apply only to the latest minor OS version. If that minor OS update itself is being deferred in your environment, the RSR is also effectively delayed as a result.

By default, users can remove an installed RSR themselves through Software Update. MDM can restrict this, but it requires explicit configuration. Deferral controls what gets pushed; it doesn't automatically prevent a user from rolling back an RSR independently.

RSRs target a narrow scope (Safari, WebKit, and select system components) rather than the full OS. Because they have historically addressed actively exploited vulnerabilities, the risk of deferring them is generally higher than deferring a routine security update.

How do I get CVSS scores for Apple vulnerabilities?

Apple's security release notes include CVE identifiers but don't publish CVSS scores directly. To get scores, cross-reference those CVE IDs with the National Vulnerability Database.

Two limitations affect this workflow in practice:

1. Apple frequently publishes security releases before corresponding NVD entries exist or before analysis is complete, so a score showing as pending or absent isn't an error in your process.
2. The NVD has also experienced analysis delays, meaning some CVEs may sit unscored for days or weeks after a release.

For time-sensitive patching decisions, cross-referencing against multiple sources, including NVD, MITRE's CVE database, and Apple's own security releases page, can give a more complete picture than any single source.

Vulnerability management platforms that automate CVE correlation are only as current as their upstream data, so they're subject to the same gap during the window between an Apple release and full NVD analysis.

What's the difference between supervised and unsupervised Macs?

Supervision is a device state set at enrollment that determines how much control an MDM has over the machine. It's established during the enrollment process and can't be applied retroactively without wiping and re-enrolling the device.

Supervised Macs support a significantly broader set of MDM capabilities: enforced restrictions, kernel extension management, content filtering, silent app installation, and update management.

Unsupervised Macs are largely limited to profile delivery and basic inventory. Many security controls that compliance frameworks expect simply aren't enforceable on unsupervised devices.

How do I handle macOS updates for remote workers?

MDM delivers OS and security updates over the internet without requiring VPN, so the basic delivery mechanism works for remote Macs. The harder problems are enforcement and compliance visibility.

User deferrals are the primary operational risk. Remote workers can postpone major OS updates repeatedly unless MDM enforces a deferral deadline. Apple places limits on how aggressively MDMs can enforce updates, so even a strict policy leaves a window. Build your patching cadence around that constraint.

Patch status reporting is only as reliable as your MDM check-in frequency. A Mac that hasn't checked in recently will show stale compliance data, so factor that into how you interpret patch coverage numbers.

What makes Mac patch management different from Windows patching?

Mac patch management differs from Windows patching in three areas: update delivery, third-party application coverage, and tooling.

Apple controls the entire update distribution pipeline. There's no on-premises distribution point equivalent to WSUS. OS and security updates are delivered through Apple's own infrastructure via Software Update or MDM commands. This means patch delivery works differently at an architectural level, not just operationally.

Third-party app patching is a separate problem. macOS does not provide a centralized, OS‑level mechanism for managing updates to applications installed outside the Mac App Store. As a result, common tools like Chrome, Zoom, and Slack rely on their own update frameworks or must be patched using scripts, third‑party tools, or MDM‑adjacent workflows.

The tooling gap compounds both issues. Windows-centric patch management platforms either don't support macOS or offer limited coverage that doesn't account for how Apple's update model works. Even with the right tools, patch status reporting depends on device enrollment and agent health.

The path forward to more effective patching involves understanding platform differences, building macOS-specific workflows where appropriate, and integrating Mac patching into a unified cross-platform program. Real-time visibility across all endpoints, regardless of operating system, makes this integration essential.

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Current news on Mac patch management

The latest developments to know about

Browser Zero-Day

Chrome V8 zero-day CVE-2026-11645 actively exploited: macOS users must update now

CVE-2026-11645 is a V8 out-of-bounds flaw enabling remote code execution via a crafted webpage; macOS users must update Chrome to 149.0.7827.103 and the CISA June 23 KEV deadline extends to Chromium-based browsers.

thehackernews.com · Jun 9, 2026↗

VPN Zero-Day

Exploitation of Check Point VPN zero-day soars (CVE-2026-50751)

CVE-2026-50751 lets unauthenticated attackers bypass authentication in Check Point Remote Access VPN via a deprecated IKEv1 configuration; Qilin ransomware affiliates confirmed exploitation in early June, making unpatched VPN clients on enterprise Mac fleets a proven initial access vector.

securityweek.com · Jun 6, 2026↗

macOS Malware

SHub Reaper macOS infostealer spoofs Apple security updates to steal credentials

SHub Reaper uses AppleScript to display a fake Apple security update prompt, harvests macOS Keychain credentials, browser passwords, and crypto wallet keys, then persists via a LaunchAgent disguised as Google Software Update — bypassing Terminal-based mitigations added in macOS Tahoe 26.4.

bleepingcomputer.com · May 18, 2026↗

Patch Strategy

Patch management best practices: An enterprise guide

Enterprise patch management requires real-time asset visibility, risk-based prioritization, staged ring deployment, and compliance tracking; these frameworks apply directly to macOS fleet management and reduce mean time to patch across heterogeneous environments.

~10 min read · Apr 28, 2026→

Tanium's Linear Chain Architecture is designed to query endpoints directly in real time rather than relying on cached data. This means patch status is based on direct endpoint queries rather than cached scan data, giving teams a more current view of what's installed across their fleet.
Schedule a demo to see Tanium's patch management capabilities.