Fact-checked by Grok 2 weeks ago

Resource Monitor

Resource Monitor is a built-in diagnostic tool in Windows operating systems, introduced with and , that provides real-time visibility into the usage of key system resources including CPU, , disk input/output, and activity to help users identify and troubleshoot issues. The tool, accessible by running resmon.exe from the Run dialog or command line, or via the Performance tab in Task Manager, organizes its data across five main tabs for detailed analysis: an Overview tab summarizing overall resource utilization with graphs and process lists; a CPU tab displaying associated processes, threads, and handles; a Memory tab showing working sets, standby lists, and hardware-reserved memory; a Disk tab tracking file and storage activity; and a Network tab monitoring connections, ports, and TCP endpoints. It integrates data from Performance Monitor (Perfmon) counters and Windows Event Tracing sessions, enabling users to filter processes, end tasks, or search for specific files and handles directly within the interface. Resource Monitor enhances system administration by offering more granular insights than the basic , such as identifying resource-intensive threads or network bottlenecks, and has been a standard feature in subsequent Windows versions including , 8, 10, 11, and server editions. It supports troubleshooting scenarios like high CPU usage from specific services or disk I/O delays, often revealing underlying issues such as inefficient drivers or without requiring additional software installation.

Overview

Purpose and Core Functionality

Resource Monitor is a built-in utility in Windows designed to provide monitoring of system resources, including CPU, , disk, and usage. It enables users to identify performance bottlenecks by displaying detailed data on how and software components interact, helping diagnose issues such as high resource consumption or inefficient processes. The tool collects data through Event Tracing for Windows (ETW), a kernel-level facility that logs events from the operating system and applications efficiently without requiring system restarts. ETW allows Resource Monitor to capture and process trace events in , combining them with performance counter data from tools like for a comprehensive view. This integration ensures low-overhead monitoring suitable for ongoing system diagnostics. Resource Monitor presents information via interactive charts, graphs, and tabular lists that detail for processes, services, and associated handles. For instance, graphs visualize usage trends over time, while lists allow sorting and filtering by metrics like CPU load or , offering granularity on resource dependencies. Unlike simpler tools such as , which provide aggregated summaries of system performance, Resource Monitor emphasizes detailed, drill-down views for in-depth analysis of individual components and their interactions.

Supported Platforms and Requirements

Resource Monitor is available on Windows client operating systems starting from through the latest releases, including Windows 11. It is also supported on Windows Server editions beginning with and extending to current versions such as Windows Server 2025 (as of November 2025). The tool supports the , , and ARM64 processor architectures compatible with Windows. It runs as the resmon, located in the %windir%\system32 , with no additional or software requirements beyond standard Windows compatibility. While Resource Monitor can be launched by standard users for basic monitoring, administrative privileges are often required for full access to sensitive data, such as detailed network connections and certain process information.

History

Introduction in Windows Vista

Resource Monitor debuted as a key component of , released to consumers on January 30, 2007. This tool emerged from the development of the operating system, originally codenamed , which underwent a significant reset in 2004 to prioritize stability and performance enhancements after early builds revealed reliability issues. As part of Vista's broader overhaul in system diagnostics, Resource Monitor addressed limitations in prior Windows versions like XP, where tools such as offered only basic overviews of resource usage, by introducing a more granular, interface for troubleshooting performance bottlenecks. At its core, Resource Monitor leveraged Event Tracing for Windows (ETW), a high-performance kernel-level tracing framework enhanced in , to capture and display dynamic system data without substantial overhead. This ETW integration enabled the tool to combine performance counters from (perfmon.exe) with event traces, providing users with actionable insights into . Early implementations focused on simplicity and immediacy, allowing administrators and users to identify issues like high CPU wait times or memory leaks directly from the interface. The initial feature set in included five primary tabs—Overview, CPU, , Disk, and —offering graphical and tabular views of hardware utilization and associated processes. For instance, the CPU tab displayed thread-level details alongside graphs, while the Disk tab highlighted I/O operations by file and process, all updated in to support rapid diagnosis. Seamlessly integrated with the Reliability and suite, Resource Monitor could be launched from perfmon.exe, extending its utility as an on-demand viewer within 's unified monitoring ecosystem. This design reflected 's post-Longhorn emphasis on proactive reliability tools, enabling better event correlation and system optimization out of the box.

Evolution in Windows 7 and Later Versions

In Windows 7, released in 2009, Resource Monitor was restructured as a standalone application executable named resmon.exe, decoupling it from the integrated Performance Monitor and Reliability Monitor setup present in Windows Vista. This change enabled more direct access and focused real-time monitoring without the overhead of broader performance logging tools. Key enhancements included improved process filtering capabilities, allowing users to search and isolate specific processes or associated handles and DLLs, as well as expanded details in the Network tab for TCP connections, such as remote addresses and send/receive rates. Windows 8 and 8.1, launched in 2012 and 2013 respectively, introduced refinements to the to better accommodate touch-based interactions on tablets and hybrid devices, aligning with the operating system's emphasis on touch-optimized experiences. Additionally, disk I/O tracking was bolstered to support new features like Storage Spaces, enabling visibility into pooled storage operations and virtual disks within the Disk tab. With in 2015 and in 2021, Resource Monitor continued to leverage advanced Event Tracing for Windows (ETW) providers. These versions also incorporated updates for architecture compatibility and seamless operation in virtualized environments, such as guests, ensuring consistent performance data across diverse hardware configurations.

Accessing the Tool

Graphical User Interface Methods

Resource Monitor can be accessed through several graphical user interface methods in Windows, providing straightforward point-and-click options for users to launch the tool without needing command-line knowledge. One primary method is via the Start menu search functionality. Users can click the Start button, type "Resource Monitor" or the abbreviated "resmon" into the search bar, and select the tool from the results to open it directly. Integration with Task Manager offers another convenient GUI approach, particularly useful during performance analysis. To launch it this way, open using the keyboard shortcut Ctrl + Shift + Esc (or right-click the taskbar and select ), navigate to the Performance tab, click the See more (three dots) button in the upper-right corner, and select Resource Monitor from the menu. For users preferring traditional navigation paths, Resource Monitor is accessible through the Control Panel. In Control Panel (set to large or small icons view), select Windows Tools and then Resource Monitor. In category view, it is under System and Security > Administrative Tools. An additional quick GUI method involves the Run dialog. Press the + R to open the Run dialog box, enter "resmon" (without quotes), and press Enter or click OK to start the tool immediately. These interface methods cater to beginners and casual users seeking simple access, while advanced users may opt for command-line alternatives like executing "resmon.exe" in Command Prompt.

Command-Line and Scripted Access

Resource Monitor can be invoked directly from the command line using the executable resmon.exe, located at %windir%\system32\resmon.exe, which launches the tool in its full graphical interface when executed in Command Prompt or PowerShell. This method allows administrators to start monitoring without navigating menus, making it suitable for quick diagnostics or integration into automated workflows. For example, entering resmon.exe in an elevated Command Prompt immediately opens the Resource Monitor window, displaying real-time CPU, memory, disk, and network activity. Alternatively, Resource Monitor can be accessed via the Performance Monitor executable with the /res parameter, as perfmon.exe /res starts the tool directly in Resource View mode. This command-line option leverages the broader framework (perfmon.exe) to bypass its default interface and target Resource Monitor specifically, useful in environments where is already in use for logging or counters. For scripted access, PowerShell's Start-Process cmdlet provides programmatic control, such as Start-Process resmon.exe -Verb [RunAs](/page/Runas) to launch it elevated for administrative privileges. This enables in scripts, for instance, to initiate during system startup or in response to thresholds detected by other tools. Batch files offer a simpler scripting approach; a basic .bat file containing resmon.exe can be scheduled via Task Scheduler for periodic or event-triggered execution, facilitating hands-off resource oversight in enterprise settings. Remote administration supports launching Resource Monitor on distant machines without physical access. Using (RDP), administrators connect interactively and run resmon.exe locally on the remote session, providing a seamless experience over the network. For non-interactive or scripted remote invocation, PsExec from allows execution like psexec \\remotecomputer -i resmon.exe, where the -i flag enables interactive mode for GUI applications on the target system. This is particularly valuable in server farms or distributed environments, ensuring resource monitoring without deploying additional agents, though it requires administrative credentials and network shares enabled.

Monitoring Features

CPU Tab Details

The CPU tab in Resource Monitor provides a detailed view of utilization, focusing on active processes and their interactions to help diagnose performance bottlenecks related to computational load. It features expandable sections for Processes, Services, Associated Handles, Associated Modules, and Connections, allowing users to examine how software components contribute to CPU demand. A graph at the top visualizes overall CPU usage, service-specific activity, and per-core utilization across multi-processor systems, enabling quick identification of spikes or imbalances. In the Processes section, entries include the process name, process ID (), status (such as running or suspended), number of threads, current CPU percentage, and average CPU usage over a period. Users can sort this list by clicking column headers, particularly the Average CPU column, to prioritize high-impact es consuming disproportionate resources. Right-clicking a reveals options to end it, search online for details, or analyze associated elements, while non-responding processes are highlighted in red for immediate attention. The Services section lists Windows services tied to the selected , showing their CPU contributions and allowing actions like stopping or restarting via right-click . Associated Handles displays open resources (e.g., files or registry keys) held by the process, and Associated Modules enumerates loaded dynamic-link libraries (DLLs) and other executable modules, aiding in tracing dependencies that may elevate CPU load. Additionally, the TCP Connections subsection reveals network-linked activities for tasks, including local and remote addresses, ports, and latency, which helps pinpoint processes delayed by remote communications without delving into full . Key functionalities emphasize interactive analysis, such as viewing thread-level details within processes to assess individual contributions to overall CPU usage, which is particularly useful for multi-threaded applications. Sorting by CPU utilization quickly surfaces top consumers, while identifying high-impact processes involves cross-referencing with graphs to correlate trends. Resource Monitor integrates with Event Tracing for Windows (ETW) for collecting this data in real time, ensuring accuracy without significant overhead. Unique data points include CPU wait reasons in the Processes view, which indicate why threads are not executing—examples include "Ready" for threads queued but awaiting CPU availability, or "Dpc" for deferred procedure calls interrupting normal execution. These wait reasons, such as those related to network-bound tasks resolved via remote address details in TCP Connections, reveal hidden delays like I/O contention or scheduling issues affecting performance. Filtering options streamline investigation by isolating specific elements: users can apply filters by process name, PID, or service name using the search box or right-click menus, which dynamically updates associated sections to focus on potential bottlenecks. For instance, entering a PID narrows the view to that process's threads, services, and modules, facilitating targeted troubleshooting of CPU-intensive scenarios. This combination of displays and tools makes the CPU tab essential for conceptualizing processor bottlenecks beyond basic utilization metrics.

Memory Tab Details

The Memory tab in Windows Resource Monitor provides a detailed view of system utilization, focusing on both physical and metrics to help diagnose allocation issues. At the top, it features graphs illustrating used physical as a of total , commit charge representing the total allocated to processes (including file usage), and hard faults per second, which indicate instances where must be retrieved from disk rather than . These visualizations allow users to quickly identify spikes in demand or paging activity that could signal bottlenecks. Below the graphs, the Processes table lists running applications and services with memory-specific columns, including the process image name, process ID (), hard faults per second, commit charge in kilobytes (the virtual memory reserved for the ), and working set size—the amount of physical actively allocated. The working set is further broken down into shareable , which can be used by multiple , and private bytes, which are exclusive to the individual . Users can sort this table by any column, such as commit or private bytes, to highlight memory-intensive , and apply filters by selecting specific via checkboxes to isolate their activity and monitor trends over time. This functionality is particularly useful for spotting potential memory leaks, where private bytes steadily increase without corresponding . The Physical Memory table offers a bar graph breakdown of RAM distribution, categorizing usage into hardware reserved (memory locked for devices like graphics cards, typically 10-70 MB but up to hundreds of MB on some systems), in use (actively allocated to the OS, drivers, and processes), modified (pages awaiting write to disk), standby (cached data ready for quick reuse, including priority levels 0-7), and free (unallocated pages). In Windows 10 and later versions, the in use category incorporates memory compression, where the system dynamically compresses less frequently accessed pages to optimize RAM efficiency without immediate paging to disk. Standby list analysis here reveals how much cached data is available for repurposing, aiding in assessing overall memory pressure. For deeper insights, the tab includes data on page faults via the hard faults metric, which tracks disk-dependent memory accesses, and provides indirect views into through the physical allocation breakdown—encompassing non-paged pool usage ( that remains in RAM, part of the in use segment) and overall pool allocations that contribute to commit charge. Filtering options extend to memory types, allowing users to focus on high commit scenarios or excessive non-paged pool growth, which might indicate driver issues or leaks. By combining these elements, the tab enables targeted troubleshooting of exhaustion or inefficient allocation patterns.

Disk Tab Details

The Disk tab in Resource Monitor offers a overview of (I/O) operations, enabling users to monitor disk utilization and identify performance issues related to file access and data transfer. It displays graphs for overall system-wide disk metrics, lists of processes engaging in disk activity, details on active files, and information about connected devices. This tab leverages data from counters and Event Tracing for Windows (ETW) to log I/O events, providing insights into local and remote behaviors. Key visualizations include four graphs in the right panel: the Disk graph, which tracks total read and write bytes per second across all drives; the Active Time graph, showing the of time disks are in use; the Average Response Time graph, measuring in milliseconds for I/O requests; and queue length graphs, indicating the number of pending I/O requests per drive. These graphs update every second over a 60-second rolling window and scale dynamically based on activity levels, helping to spot bottlenecks such as prolonged high or sustained 100% utilization on specific drives. For instance, average response times exceeding 100 often signal hardware constraints like slow HDDs compared to SSDs. The Processes with Disk Activity section lists running processes sorted by total I/O throughput, with columns for the process image name, read bytes per second, write bytes per second, total bytes per second, and associated files currently being accessed. Users can right-click entries to end processes, search online for the image, or view properties, facilitating quick identification of resource-intensive applications like or database engines. A companion Disk Activity subsection expands to show granular details on individual files or directories involved in reads/writes, including paths that distinguish local storage (e.g., C:\ paths) from remote drives (e.g., \server\share paths), allowing tracing of I/O across distributed systems. The section enumerates all detected disks and volumes, displaying device names, read/write rates, active time percentages, and average response times per device. This enables comparison of performance across multiple drives, such as pinpointing a fragmented HDD through patterns of frequent small, non-sequential reads indicative of scattered . Filtering options enhance : select specific processes to isolate their I/O, choose individual disks to focus on device-specific metrics, or use the search box to query by name or path for targeted analysis. For example, filtering by a slow HDD can reveal processes causing excessive queueing, guiding optimizations like or driver updates.

Network Tab Details

The Network tab in Resource Monitor provides a view of network-related activities on a Windows system, emphasizing live monitoring without delving into operations. It features a graphical representation of utilization across adapters, displaying send and receive rates in bytes per second (B/sec) for each connected interface, such as Ethernet or , over a 60-second rolling . This allows users to quickly identify spikes or sustained high usage that could indicate intensive data transfers or potential issues like . At the core of the tab are sections detailing process-network associations, including "Processes with Network Activity," which lists running processes alongside their send and receive rates, total bytes transferred, and associated addresses. Users can sort these by activity levels to pinpoint resource-intensive applications, such as browsers or update services, and associate them with specific network endpoints. The "TCP Connections" subsection expands on this by showing active connections, including local and remote addresses, port numbers, connection status (e.g., established or time-wait), in milliseconds, and percentages, enabling analysis of ongoing communications like web requests or sessions. Additionally, protocol breakdowns distinguish between and traffic, with remote addresses often resolved to hostnames where possible for easier identification. The "Listening Ports" area reveals open ports on the system, displaying local addresses, port numbers, protocols ( or ), the owning process, and status, which highlights whether inbound connections are allowed or blocked by Windows Defender rules. This functionality aids in assessing postures by revealing potential vulnerabilities, such as unexpectedly open ports. For group memberships, the tab indirectly supports visibility through listening details, showing processes joined to addresses for group communications like streaming or discovery protocols. Key functionalities include viewing endpoint addresses to trace remote hosts and evaluating rule impacts on . Filtering options enhance usability, allowing users to isolate data by process name, specific port, or IP address to detect anomalies such as unauthorized connections or excessive outbound traffic from unknown endpoints. For instance, selecting a process filters the views to show only its related connections and ports, facilitating targeted troubleshooting for issues like malware-induced network activity. These filters, combined with resizable graphs and collapsible sections, make the tab effective for diagnosing network bottlenecks that may contribute to minor CPU overhead from handling intensive I/O tasks. Overall, the tab prioritizes conceptual insights into traffic patterns and associations rather than raw packet captures.

Usage Scenarios

Performance Troubleshooting

Resource Monitor serves as a vital diagnostic tool for identifying and resolving system slowdowns in Windows environments, providing real-time insights into resource utilization across , memory, disk, and network components. By examining data from its various tabs, users can pinpoint bottlenecks such as unexpected spikes in resource demands that lead to sluggish performance. For instance, when a system experiences intermittent freezes or unresponsiveness, launching allows for immediate correlation of activity patterns to isolate the underlying causes. In scenarios involving CPU spikes from processes, the CPU tab enables users to sort processes by average CPU usage to identify anomalies, such as a single application consuming disproportionate cycles due to inefficient code or . To troubleshoot, open Resource Monitor from the Task Manager's Performance tab, navigate to the CPU tab, and by the suspected to view associated handles, services, and modules; this can reveal resource usage patterns related to the spike. Once identified, tasks can be ended directly from the interface, restoring system responsiveness without external tools. Memory leaks, characterized by gradual increases in committed memory that degrade over time, can be detected using the Memory tab's commit charge trends and metrics. Monitoring these reveals with steadily rising allocations, such as a faulty application failing to release resources after operations; for example, a tab accumulating memory from repeated page loads. Steps include selecting the Memory tab, sorting by commit charge, and observing patterns over several minutes—if a shows persistent growth without corresponding workload, it indicates a leak, prompting further investigation or termination. Correlating this with the CPU tab helps confirm if the leak exacerbates processing delays. Disk thrashing, where high I/O waits cause system-wide due to excessive read/write operations, is diagnosed via the Disk tab by examining total bytes and response times for processes exhibiting prolonged activity. This tab highlights scenarios like antivirus scans overwhelming , leading to thrashing on mechanical drives; users correlate high disk queues with slow processes in the CPU or tabs to trace the source. Troubleshooting involves sorting by I/O bytes, ending high-impact tasks, and noting if waits exceed typical thresholds (e.g., over 20ms average), which signals the need for optimization. For network-related issues, such as high in games, the Network tab displays connection details and send/receive volumes, allowing users to filter by the game's and monitor connection states and throughput. In boot delay examples, the Disk tab post-startup reveals lingering high I/O from startup services, like indexing, that prolong initial responsiveness; checking this immediately after identifies culprits through sorted activity lists. Best practices for effective include combining Resource Monitor data with to cross-reference logs for error events tied to resource hogs, such as driver faults logged under System events. Additionally, upon identifying hardware-related bottlenecks like outdated drivers causing I/O spikes, updating them via resolves persistent issues, ensuring sustained performance. These integrated approaches facilitate targeted fixes, minimizing downtime.

Resource Identification and Management

Resource Monitor enables administrators to identify resource usage patterns and conflicts, supporting proactive allocation and optimization efforts. By examining the associated handles in the CPU tab, users can search for specific files or objects to pinpoint processes holding locks, allowing for targeted such as ending the process to resolve conflicts and free resources. This identification process helps in tagging high-priority processes for further adjustment using complementary tools like , where CPU priority can be modified based on observed usage. For management, Resource Monitor provides options to analyze wait chains through the Analyze Wait Chain feature, accessible by right-clicking a process in the CPU tab. This dialog reveals dependent or blocked threads, enabling administrators to end the process or associated services to alleviate bottlenecks without affecting unrelated parts of the system. When dealing with services, the tool displays service-related processes and their resource consumption, aiding in the analysis of dependencies to ensure safe stops—such as verifying no critical threads are active before termination—thus preventing cascading failures. Additionally, in virtualized environments, Resource Monitor on the host system tracks CPU and memory overhead from virtual machines, helping optimize allocation by identifying underutilized or overburdened resources. Practical examples illustrate these capabilities in multi-user scenarios. In the Network tab, administrators can monitor TCP connections and bandwidth usage per process, identifying high-consumption applications in shared environments to inform bandwidth allocation via Quality of Service (QoS) policies. Similarly, the Memory tab reveals working set sizes and commit charges for virtual machines, allowing IT teams to balance memory distribution across VMs and prevent host exhaustion. Advanced users leverage Resource Monitor for enterprise-level control, such as exporting snapshots of resource data for compliance reports through integration with logs. In larger deployments, it pairs with to enforce monitoring standards, like restricting access or scripting automated checks on resource thresholds across domain-joined systems. These features position Resource Monitor as a key tool for ongoing , extending from initial into sustained optimization.

References

  1. [1]
  2. [2]
    What is resource monitor? - Microsoft Q&A
    Jun 11, 2010 · Resource Monitor is a tool that you can use to monitor the usage of CPU, hard disk, network, and memory in real time. You can use the ...Resource Monitor Problems (Graphical?) - Microsoft Q&AResource Monitor Terminology - Microsoft Q&AMore results from learn.microsoft.comMissing: exe | Show results with:exe
  3. [3]
    Using Resource Monitor to Troubleshoot Windows Performance ...
    Resource Monitor is a method of viewing Perfmon data. In fact, Resource Monitor is composed of Perfmon data combined with Windows Event Tracing data.
  4. [4]
    About Event Tracing - Win32 apps | Microsoft Learn
    Jan 7, 2021 · Event Tracing for Windows (ETW) is an efficient kernel-level tracing facility that lets you log kernel or application-defined events to a log file.Controllers · Providers · Consumers
  5. [5]
    Application manifests - Win32 apps - Microsoft Learn
    May 30, 2024 · This can enable an application designed for Windows Vista to run on a later operating system. ... x by running Resource Monitor (resmon) ...
  6. [6]
    12 ways to open Resource Monitor (resmon) in Windows 11
    Aug 26, 2025 · C:\Windows\System32. When the folder opens, find the resmon.exe file and double-click or double-tap it to open the tool.
  7. [7]
    Do we need an Administrator Privileges to access Performance ...
    Dec 16, 2018 · The performance monitor is an administrative tool on the machine and does require local administrative rights to run. Please sign in to rate ...How to Read CPU Power and Frequency Without Admin Permissions?Windows 11 Pro admin privileges. - Microsoft Q&AMore results from learn.microsoft.com
  8. [8]
    Windows Vista - Microsoft Lifecycle
    Windows Vista's mainstream support ended Apr 10, 2012, extended support ended Apr 11, 2017. Support for this product has ended.
  9. [9]
    [DOC] Book_of_Longhorn.doc - Microsoft Download Center
    ... Windows Reliability and Performance Monitor in Windows Server "Longhorn". Report generation time is improved and reports can be created from data collected ...
  10. [10]
    Improve Debugging And Performance Tuning With ETW
    This article discusses: Understanding the ETW architecture; What's new for ETW in Windows Vista; Programming with the event provider APIs. This article uses the ...
  11. [11]
    The Windows Vista Resource Monitor - ITPro Today
    In addition to the regular Windows Task Manager Performance tab, you can use the far more detailed Resource Monitor, which replaces Performance Monitor ...Missing: documentation | Show results with:documentation
  12. [12]
    [PDF] Sample Content from Windows Vista Resource Kit
    Monitoring Reliability and Performance . ... You can only use this snap-in for managing Win- dows Firewall on Windows Vista and Windows Server Code Name “Longhorn ...
  13. [13]
    [PDF] Managing and Monitoring Windows 7
    In Vista, the Reliability Monitor and the Performance Monitor were combined with the Resource Monitor. These have been split up in Windows 7 so that each one.Missing: evolution | Show results with:evolution
  14. [14]
    Using the Resource Monitor - Windows 8 In Depth [Book] - O'Reilly
    However, Windows 8 comes with another tool for monitoring your system yourself: the Resource Monitor. You load this tool by opening Control Panel, opening the ...
  15. [15]
    Instrumenting Your Code with ETW | Microsoft Learn
    May 16, 2022 · ETW can be used for system and app diagnosis, troubleshooting, and performance monitoring. Historically, tracing was used to diagnose unexpected ...
  16. [16]
    Windows 11, version 22H2 known issues and notifications
    As of October 14, 2025, all editions of Windows 11, version 22H2 have reached end of servicing. To help keep you protected and productive, Windows Update will ...Missing: Monitor | Show results with:Monitor
  17. [17]
    Guidance for troubleshooting high CPU usage - Windows Server
    Jan 15, 2025 · Select Start, enter resmon, and then select Resource Monitor from the search results. In the Resource Monitor window, select the CPU tab.
  18. [18]
    Why does my task manager say I'm using a lot of memory, but when I ...
    May 19, 2025 · Open Resource Monitor: In Task Manager, go to the Performance tab and click Open Resource Monitor at the bottom. Check the Memory tab for ...Missing: launch | Show results with:launch
  19. [19]
    How to Open Resource Monitor using Task Manager on Windows 11
    May 6, 2022 · Open the Task Manager using the keyboard shortcut CTRL + SHIFT + ESC. Click on the Performance icon on the Left Navigation Menu of the new Task ...
  20. [20]
    Windows 8 laptop saying I'm out of memory > And I'm not
    Jul 16, 2013 · Press the WinKey+R to display the Run dialog. Type resmon and click OK. This will display the Resource Monitor. The graphic in the Physical ...<|control11|><|separator|>
  21. [21]
    Guide to Windows resource monitoring - Rackspace Technology
    You can use the Windows® Resource Monitor tool, which is similar to the Task Manager, to analyze server performance, such as program, application, network ...<|control11|><|separator|>
  22. [22]
    perfmon | Microsoft Learn
    Feb 3, 2023 · Reference article for the perfmon command, which starts the Windows Reliability and Performance Monitor in a specific standalone mode.Missing: resmon. | Show results with:resmon.
  23. [23]
    PsExec - Sysinternals - Microsoft Learn
    Apr 11, 2023 · PsExec is a light-weight telnet-replacement that lets you execute processes on other systems, complete with full interactivity for console applications.Introduction · Installation
  24. [24]
    A detailed Windows Resource Monitor guide - gHacks Tech News
    Dec 28, 2017 · This overview lists CPU, Disk, Network, and Memory data including all processes that use resources. The sidebar displays graphs that highlight ...
  25. [25]
    How to use the Resource Monitor in Windows - Digital Citizen
    Oct 13, 2025 · Click on the CPU tab, and you find the Processes section expanded. Beneath that, there are collapsed windows for Services, Associated Handles, ...
  26. [26]
    Windows Resource Monitor | Liquid Web
    Open Resource Monitor (resmon.exe). Go to CPU tab → Processes. Click the CPU column header to sort by usage. Identify the process using the most CPU resources.
  27. [27]
    Measuring Processor Utilization in Windows and Windows ...
    Oct 19, 2011 · ... Wait Reason code associated with an old thread ID that is ... The Resource Monitor measures CPU busy in real time by listening to ...
  28. [28]
    How to use Windows 10's Resource Monitor to track memory usage
    May 27, 2016 · To get started with Resource Monitor, press Windows +R, type Resmon.exe in the Open text box, and press Enter. In the Resource Monitor user ...
  29. [29]
    What are "Commited Memory", "Cached", "Paged", "Not-paged pool ...
    Feb 28, 2019 · It is visible in Resource Monitor's Memory tab. It is the sum of the Standby, Free, and Zero page lists. Details on those are coming up. Cached.Why do Resource Monitor and Task Manager's total RAM usage not ...Windows 10 Memory Leak - Tags (poolmon) FMic and Irp - Super UserMore results from superuser.com
  30. [30]
    Memory Pools - Win32 apps - Microsoft Learn
    Jan 7, 2021 · The memory manager creates the following memory pools that the system uses to allocate memory: nonpaged pool and paged pool.
  31. [31]
    The Beginner's Guide to Using Resource Monitor on Your PC
    Aug 11, 2024 · It's a must-use feature for anyone who wants to analyze their system resources and those looking to troubleshoot Windows.
  32. [32]
    Resource Monitor - Microsoft Q&A
    Jul 20, 2022 · Network Monitor 3.4 enables users to parse, filter, and view an ETL file (using Windows Vista or later). Show 2 more.
  33. [33]
    How to find out what program has a very slow memory leak
    Aug 13, 2024 · Use' Resource Monitor', and go to the “Memory” tab. Observe the “Hard Faults/sec” and “Commit” to see if there are any unusual patterns or high memory usage.
  34. [34]
    Find out which process is locking a file or folder in Windows
    Mar 9, 2010 · Windows 10 (and I guess as early as Windows 7) has a program called Resource Monitor, which lets you see what processes are locking a file or folder.
  35. [35]
    Scheduling Priorities - Win32 apps | Microsoft Learn
    Jul 14, 2025 · After you create a thread, use the SetThreadPriority function to adjust its priority relative to other threads in the process.Missing: tagging | Show results with:tagging
  36. [36]
    System Resource Costs on Hyper-V - BizTalk Server | Microsoft Learn
    May 4, 2021 · The CPU overhead associated with running a guest operating system in a Hyper-V virtual machine was found to range between 9 and 12%. For example ...
  37. [37]
    Dynamic Memory for Hyper-V Virtual Machines | Microsoft Learn
    Oct 28, 2025 · Hyper-V monitors the runtime health of the host operating system to determine how much memory it can safely allocate to virtual machines. My ...
  38. [38]
    Using Performance Counters - Win32 apps | Microsoft Learn
    Jul 14, 2025 · Example consumers provided by Microsoft include Performance Monitor (perfmon.exe), Resource Monitor (resmon.exe), Log Manager (logman.exe) and ...