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Last updated: Jun 10, 2024

10 Best Virtual Machine Software for Windows in 2024

Virtual machine (VM) software is an invaluable tool for a wide range of users, from developers needing to test applications across different platforms, to system administrators aiming to enhance infrastructure efficiency, and enthusiasts eager to experience diverse operating system environments.

As digital technology evolves, VM software is not far behind, offering more advanced features, improved performance, and user-friendly interfaces. With Windows being a dominant force in the desktop environment, the range of virtualization solutions available is extensive.

This article aims to guide you through the top 10 virtual machine software options for Windows in 2024, providing insights to help you identify the VM solution that best fits your specific requirements.

What is the best virtual machine for Windows 10?

The term "best" can be subjective when it comes to virtual machine software, as it often depends on your specific needs. However, there are several prominent and widely-used virtual machine solutions available for Windows 10.

Overview of Virtual Machine Software

When evaluating virtual machine (VM) software, several key criteria help in determining the best fit for individual or organizational needs. Here are the main criteria to consider:

  1. 1. Performance:

    • Resource Overhead: How much CPU, memory, and disk overhead does the VM software introduce?
    • Native Hardware Support: Does the software offer hardware-assisted virtualization? This can boost performance considerably.
    • Graphics and 3D Support: Especially important if you're running applications that require graphic processing or gaming.
  2. 2. Guest Operating System Support:

    • What OSes are supported? And to what extent? This includes not just the type of OS but also the versions.
  3. 3. Scalability:

    • Number of VMs: How many VMs can run simultaneously without degrading performance?
    • Resource Allocation: How flexible is the software in allowing dynamic adjustment of resources like CPU and RAM to VMs?
  4. 4. Snapshot and Cloning Features:

    • Can you take a snapshot of a VM's current state and revert to it later? This is especially useful for testing.
    • Cloning allows you to make copies of VMs, useful for deploying multiple instances.
  5. 5. Networking Features:

    • Network Types: Does the software support NAT, bridged, internal, or host-only networking? This determines how VMs communicate with the host and other VMs.
    • Network Tools: Features like network latency simulation, bandwidth throttling, etc., can be useful for specific testing scenarios.
  6. 6. Integration with Host:

    • Seamless features like drag-and-drop between host and guest, shared clipboards, or integrated folders can improve user experience.
    • USB and Peripheral Support: Does the VM software support passing through USB devices or other peripherals from the host to the VM?
  7. 7. Security Features:

    • Isolation: Ensuring VMs are isolated to prevent potential threats from spreading.
    • Encryption: The ability to encrypt VMs to protect sensitive data.
    • Network Security: Tools or features to secure VM network traffic.
  8. 8. Ease of Use and Management:

    • User Interface: Is the GUI intuitive? Can tasks be easily performed without diving deep into documentation?
    • Automation and Scripting: For larger deployments or complex tasks, the ability to automate VM tasks can be invaluable.
  9. 9. Licensing and Cost:

    • Some VM solutions are free, while others come at a significant cost, especially for enterprise versions with more features.

What is Virtualization?

Virtualization is a technology that allows you to create multiple simulated environments or dedicated resources from a single physical hardware system. Simply put, it lets you run multiple systems and applications on one physical machine as if they were on separate physical devices.

Here's a breakdown of the concept:

  1. 1. Types of Virtualization:

    • Server Virtualization: Divides a physical server into multiple virtual servers. Each virtual server can run its instance of an operating system, making it appear as a separate physical server to users and applications.
    • Network Virtualization: Splits available bandwidth in a network into independent channels, each of which can be assigned to a specific server or device.
    • Storage Virtualization: Combines physical storage from multiple devices into a single storage device managed from a central console.
    • Desktop Virtualization (VDI): Allows a central server to deliver and manage individual desktops remotely. Each user has access to a full client environment on their thin client or PC.
    • Application Virtualization: Packages applications into virtualized layers that can run on any compatible system without installation.
  2. 2. How It Works:

    • Virtualization is typically facilitated by a software layer called a hypervisor. The hypervisor sits between the hardware and the operating system and allocates the amount of access that the operating systems and applications have with the processor and other hardware resources.
  3. 3. Benefits:

    • Consolidation: You can run multiple applications and OS workloads on a single server.
    • Cost Savings: Reduces the need for physical hardware systems.
    • Flexibility: Quickly deploy, manage, and migrate virtual machines.
    • Recovery: Enhances disaster recovery solutions.
    • Isolation: VMs are isolated from each other, improving security by containing any potential malware or system failures to the individual VM.
  4. 4. Challenges:

    • Performance Overhead: Introducing an additional layer (hypervisor) can introduce some performance overhead, though modern hardware-assisted virtualization has minimized this.
    • Complex Management: Depending on the scale, managing virtual environments can become complex.
    • Security Concerns: If not configured correctly, hypervisors can introduce vulnerabilities.
  5. 5. Common Virtualization Solutions:

    • VMware vSphere/ESXi
    • Microsoft Hyper-V
    • Oracle VirtualBox
    • KVM (Kernel-based Virtual Machine for Linux)
    • Citrix Hypervisor

Virtualization plays a crucial role in modern IT infrastructures, enabling more efficient use of resources, improved disaster recovery, and agility in deploying applications and services.


A hypervisor, also known as a virtual machine monitor (VMM), is a piece of software, firmware, or hardware that creates and manages virtual machines (VMs). It allows multiple operating systems to share a single hardware host. Each operating system appears to have the host's processor, memory, and other resources all to itself. In reality, the hypervisor is allocating those resources dynamically as needed among the virtual machines.

Key Functions of a Hypervisor:

  • Resource Allocation: Dynamically allocates physical resources such as CPU, memory, and storage to virtual machines based on their current needs and configurations.
  • VM Management: Initiates and manages VM lifecycle operations like start, stop, suspend, and migration (moving a VM from one physical host to another).
  • Isolation: Ensures that actions, failures, or crashes in one VM do not affect others. Each VM operates as if it's on its own separate machine.
  • Virtual Hardware Provision: Presents standardized virtual hardware to the VMs, abstracting the underlying physical hardware differences.
  • Monitoring: Tracks the performance and resource usage of VMs.

Advantages of Using Hypervisors:

  • Resource Efficiency: Allows better utilization of underlying hardware.
  • Isolation & Security: Since VMs are isolated from each other, a failure or a security breach in one doesn't impact the others.
  • Flexibility & Agility: Enables rapid deployment of new VMs and services.
  • Cost Reduction: Reduces the need for physical infrastructure.


  • Performance Overhead: Especially for Type 2 hypervisors, there's a performance overhead compared to running on raw hardware.
  • Complexity: Virtualized environments can become complex to manage, especially at scale.

Type 1 vs. Type 2 Hypervisor

  1. 1. Type 1 Hypervisor (Bare Metal Hypervisor):

    • Direct Layer: This type of hypervisor runs directly on the host's hardware to control the hardware and manage the guest operating systems.
    • Examples: VMware vSphere/ESXi, Microsoft Hyper-V (when installed on bare metal), Oracle VM Server for x86, and Xen.
    • Use Cases: Often used in enterprise environments, data centers, and situations where performance optimization is crucial.
  2. 2. Type 2 Hypervisor (Hosted Hypervisor):

    • Indirect Layer: This type of hypervisor runs on a conventional operating system (the host OS) as a software layer. Essentially, it's an application on an operating system.
    • Examples: VMware Workstation, Oracle VirtualBox, and Parallels Desktop.
    • Use Cases: Typically used for desktop virtualization, development, testing, or in scenarios where performance is not the most critical factor.

The best virtual machine software of 2024

1) VMware Fusion

VMware Fusion is a software hypervisor developed by VMware for Macintosh computers. Fusion allows Intel-based Macs to run virtual machines with other operating systems, such as Windows, Linux, and more, alongside macOS.

VMware Fusion is a software hypervisor developed by VMware for Macintosh computers. Fusion allows Intel-based Macs to run virtual machines with other operating systems, such as Windows, Linux, and more, alongside macOS.

Key Features:

  1. 1. Cross-Compatibility: VMware Fusion supports a wide range of guest operating systems. This includes various versions of Windows, Linux, and even lesser-known OSes.

  2. 2. Seamless Integration with macOS: Fusion offers features like "Unity Mode," which allows Windows apps to be run as if they were native Mac apps, appearing right in the macOS Dock.

  3. 3. Graphics Support: It has robust 3D graphics support, allowing you to run applications that need 3D acceleration.

  4. 4. Snapshots: This feature lets users save the current state of the VM, so you can revert to it later. This is beneficial for testing software or configurations.

  5. 5. Cloning: Helps users create duplicate instances of VMs. This is handy for testing purposes, allowing you to run a clean and a modified system side by side for comparison.

  6. 6. Secure Boot: VMware Fusion introduced support for Microsoft's virtualization-based security features like Device Guard and Credential Guard.

  7. 7. Integration with VMware Ecosystem: If an organization or user is already embedded in the VMware ecosystem (like using VMware vSphere), Fusion can integrate seamlessly, allowing you to manage remote VMs or even deploy local VMs to the cloud or data center.

  8. 8. Hardware Version: Periodic updates of VMware Fusion introduce new "hardware versions" that represent virtual hardware enhancements and compatibility, improving performance and adding new capabilities.


  • Intuitive User Interface: Fusion is known for having a user-friendly interface, making it easier for Mac users to navigate and manage VMs.
  • Stability and Performance: Based on the reliable VMware virtualization technology, Fusion offers a stable environment and good performance for most tasks.
  • Regular Updates: VMware has a track record of regularly updating Fusion to support the latest macOS versions and features.


  • Cost: While there's a basic version (Fusion Player) that's free for personal use, the professional features come with a cost in the Pro version.
  • Resource Consumption: Like all VM software, running demanding tasks or multiple VMs can consume a significant amount of system resources.

2) VirtualBox

VirtualBox is an open-source virtualization software developed by Oracle Corporation. It's popular among both individual users and developers because of its flexibility and zero cost for the basic version.

Key Features:

  1. 1. Cross-Platform: VirtualBox can run on Windows, Mac, Linux, and Solaris, making it versatile for different user environments.

  2. 2. Broad Guest OS Support: Supports a wide range of guest operating systems, including but not limited to various versions of Windows, Linux, BSD, and Solaris.

  3. 3. Snapshot Feature: Similar to VMware Fusion, VirtualBox allows users to take snapshots of their VM, providing the ability to revert to a previous state.

  4. 4. Seamless Mode: This mode lets guest OS applications appear as native windows on the host OS, similar to VMware's "Unity Mode."

  5. 5. Shared Folders: Users can easily share folders between the host OS and the guest OS, making file transfers easy.

  6. 6. USB Support: USB devices connected to the host machine can be accessed by the VM.

  7. 7. Network Modes: Offers various networking modes, including NAT, Bridged, Internal, and Host-only, giving users flexibility in network configurations for their VMs.

  8. 8. Virtual Disk Image Compatibility: VirtualBox can handle different virtual disk file types, including its native VDI format as well as VMDK (used by VMware) and VHD (used by Microsoft).


  • Open Source & Free: VirtualBox is open source, and its basic version is free, making it accessible to many users.
  • Community Support: Being open source, it has a large community that provides support, shares knowledge, and even contributes to its development.
  • Regular Updates: Oracle regularly releases updates for VirtualBox, adding new features, improving stability, and providing patches for known issues.


  • Performance: While VirtualBox is quite capable, there are instances where its performance might lag behind commercial solutions, especially in graphics-intensive tasks.
  • Enterprise Features: Some advanced features present in commercial virtualization solutions might be absent or less polished in VirtualBox.
  • Limited Integration with Oracle Products: Unlike VMware products, which integrate well within the VMware ecosystem, VirtualBox has limited integration with other Oracle products.

Extensions & Additions:

  • Guest Additions: These are software packages installed on the guest OS to improve its performance and provide additional features, like better video resolutions and mouse integration.
  • Extension Pack: This is an additional set of features provided by Oracle, enhancing the capabilities of VirtualBox. It includes things like USB 2.0/3.0 support, VirtualBox Remote Desktop Protocol (VBox RDP), disk encryption, and more. However, note that the Extension Pack is under the Oracle PUEL license, and its terms may differ from the core VirtualBox software.

3) Oracle VM

Key Features:

  1. 1. Oracle VM Server: This is a free server virtualization and management solution that provides an enterprise-grade server virtualization environment. It's built upon the open-source Xen hypervisor technology.

  2. 2. Oracle VM Manager: This web-based tool is used to manage Oracle VM servers, which includes tasks like creating and managing VMs, managing storage, and configuring network resources.

  3. 3. Templates: Oracle provides pre-built templates for many of its applications, making it faster and easier to deploy Oracle solutions in a virtualized environment.

  4. 4. Live Migration: Oracle VM supports live migration of running VMs from one Oracle VM Server to another without any downtime.

  5. 5. Server Pools: Administrators can group Oracle VM Servers into server pools to simplify resource management and improve resource utilization.

  6. 6. Integrated with Oracle Products: Oracle VM is designed to work seamlessly with Oracle applications, middleware, and databases.

  7. 7. Dynamic Resource Scheduling (DRS): Based on pre-defined policies and under certain conditions, VM workloads can be dynamically allocated to server resources to optimize performance.


  • Cost-Effective: Oracle VM Server is freely available, and its cost-effective nature is emphasized when used in tandem with Oracle's licensing models for virtualized environments.
  • Optimized for Oracle Workloads: Oracle VM is optimized for running Oracle applications and databases. Some benchmarks even suggest performance improvements when running Oracle products on Oracle VM compared to other virtualization platforms.
  • Unified Management: Oracle VM Manager offers centralized management for all virtualization resources, making it easier to maintain and oversee operations.


  • Niche Focus: While Oracle VM is capable of running a wide variety of workloads, its main appeal is to those who are invested in or plan to use Oracle's ecosystem.
  • Community and Ecosystem: While Oracle VM is based on open-source Xen, its community and ecosystem might not be as extensive as other, more popular virtualization solutions.

Use Cases:

  • Oracle Environments: Ideal for businesses using or planning to deploy Oracle applications, middleware, or databases.
  • Cost-Conscious Deployments: For businesses looking for a cost-effective server virtualization solution with no licensing costs for the virtualization layer.

4) Hyper-V

Key Features:

  1. 1. Integrated with Windows: Being a Microsoft product, Hyper-V is closely integrated with the Windows environment, making management and setup relatively seamless for those familiar with the Windows ecosystem.

  2. 2. Multiple OS Support: Hyper-V supports a variety of guest operating systems, including various distributions of Linux and, of course, Windows.

  3. 3. Live Migration: Hyper-V allows the migration of running VMs from one host to another without downtime.

  4. 4. Hyper-V Replica: This provides a replication mechanism between two Hyper-V hosts for disaster recovery purposes.

  5. 5. Nested Virtualization: Hyper-V can run inside a VM, useful for development and testing scenarios.

  6. 6. Virtual Switch: Provides connectivity for VMs to communicate with each other and with the outside network.

  7. 7. Dynamic Memory: Adjusts the amount of memory available to a VM based on its current needs, optimizing resource utilization.

  8. 8. Integration Services: Enhancements that improve the interoperability and performance of the guest operating system when running on a Hyper-V host.

  9. 9. Shielded VMs: This security feature protects VM data and state by encrypting it, making it only accessible to authorized users.


  • No Additional Cost: For those using Windows Server, Hyper-V comes included, meaning there's no additional cost to start using virtualization.
  • Integration with Microsoft Tools: Hyper-V integrates well with other Microsoft services and tools, such as System Center, Azure Site Recovery, and Azure Backup.
  • Performance: With each iteration, Microsoft has been enhancing Hyper-V's performance, making it comparable to other top-tier virtualization platforms.
  • Security Features: Microsoft has been emphasizing security in recent Hyper-V versions, introducing features like Shielded VMs and Host Guardian Service.


  • Platform Limitation: Hyper-V is Windows-centric. While there's support for Linux, those heavily invested in non-Windows platforms might find other solutions more suitable.
  • Learning Curve: For those new to virtualization or the Windows server ecosystem, there might be a learning curve associated with understanding and managing Hyper-V.


  • Hyper-V on Windows Server: Comes in various editions (Standard, Datacenter) with a range of features suited for enterprise use.
  • Hyper-V on Windows 10/11: Designed for desktop users, developers, and IT professionals who want to run VMs on their Windows workstations.

5) Microsoft Free Account Virtual Machine

Microsoft offers a free tier of their Azure cloud service, which is commonly referred to as the "Azure free account." This free account provides users with a set of free services for 12 months, along with a limited monthly credit to explore paid Azure services without any cost.

Here's a summary of what is available:

  1. Azure Free Account: Upon signing up, users receive a credit (the exact amount has varied over time, but it was $200 at certain points) to explore any Azure service for 30 days.

  2. Free Products for 12 Months: Microsoft offers several services free for 12 months, including virtual machines, file storage, and SQL databases, among other services. The specifics might vary, but generally, you get a limited amount of compute time or storage capacity for free.

  3. Always Free Products: Even after the initial 12-month free services and the 30-day credit expire, Microsoft continues to offer a range of products for free, with certain usage limits. This includes services like Azure Cosmos DB, Azure Functions, and more.

Using Virtual Machines with the Azure Free Account:

  • Limited Compute Time: The free tier typically includes a limited amount of compute time using specific VM sizes (e.g., B1S standard). It's designed for users to test and learn Azure's VM capabilities without incurring costs.
  • Temporary Disk Storage: Virtual Machines on the free tier generally use temporary storage. Data on this temporary storage will be lost once the VM is stopped or de-allocated.
  • Standard IOs: The free tier VMs are subject to standard input/output operations per second (IOPS) limits.
  • Monitoring and Management: Users can take advantage of Azure's monitoring and management capabilities, such as Azure Monitor and Azure Security Center, which often have their own free tiers or levels of service.


  • Exceeding Free Limits: It's crucial to monitor your usage. If you exceed the limits of the free tier, you'll be charged based on standard pricing rates.
  • Activation: To activate the free account, you typically need a valid credit card or another payment method. Microsoft assures they won't charge you unless you decide to upgrade.


QEMU (short for "Quick EMUlator") is an open-source machine emulator and virtualizer. Unlike many other virtualization solutions that rely on hardware extensions to run virtual machines (VMs) at near-native speed, QEMU can perform both hardware virtualization (with the aid of extensions like Intel's VT-x or AMD's SVM) and full system emulation.

Here's an in-depth look at QEMU:

Key Features:

  1. 1. Versatility: QEMU can emulate a variety of guest architectures, including x86, ARM, MIPS, PowerPC, and more, on various host architectures. This is particularly useful for developers working on multi-platform software.

  2. 2. KVM Integration: On systems that support hardware virtualization, QEMU can work in tandem with KVM (Kernel-based Virtual Machine) to run VMs at near-native speeds. KVM essentially turns the Linux kernel into a hypervisor, and QEMU becomes the machine emulator and virtualizer.

  3. 3. Device Emulation: QEMU can emulate a range of hardware devices, making it flexible for different virtualized setups.

  4. 4. Snapshotting: Users can take snapshots of VM states and revert to them as needed.

  5. 5. Networking: QEMU provides various networking options, including user-mode networking (where VMs share the host's network connection) and tap networking (where VMs appear as separate devices on the host network).

  6. 6. Disk Image Management: QEMU includes tools to create and manage different virtual disk image formats, such as qcow2, raw, and more.


  • Platform Agnostic: QEMU's ability to emulate multiple architectures makes it an ideal tool for cross-platform development and testing.
  • Open Source: Being open-source, QEMU is free to use and has benefited from contributions from a wide community of developers.
  • Flexibility: With its broad array of emulated devices and architectures, users can configure VMs to closely match their desired environments.
  • Integration with KVM: On systems with hardware virtualization support, QEMU and KVM together provide a powerful virtualization solution with high performance.


  • Performance: When used without KVM (pure emulation mode), QEMU can be slower because it's emulating an entire system, including the CPU.
  • Complexity: QEMU's wide range of features and options might appear complex to newcomers or those unfamiliar with virtualization concepts.
  • User Interface: While there are graphical front-ends available (like Virt-Manager), QEMU's primary interface is command-line based, which may be intimidating for some users.

Use Cases:

  • Cross-Platform Development: Developers can test software on different architectures without needing physical machines for each.
  • Legacy Software: QEMU can emulate older architectures, helping businesses run legacy applications.
  • Research & Education: Its open nature and flexibility make it a useful tool for academic and research purposes.

7) Citrix Hypervisor

Citrix Hypervisor (previously known as XenServer) is a leading enterprise-class virtualization platform that powers many virtualized data centers and cloud infrastructures globally.

Here's a comprehensive overview of Citrix Hypervisor:

Key Features (as of 2021):

  1. 1. Xen-based Hypervisor: The underlying technology is the Xen hypervisor, a mature and high-performance hypervisor.

  2. 2. Live Migration: Citrix Hypervisor supports the live migration of running virtual machines (VMs) without any noticeable downtime.

  3. 3. Storage Motion: This feature allows the migration of VM disks between storage repositories, even when the VM is running.

  4. 4. GPU Passthrough and Virtualization: This allows VMs to have direct access to physical GPUs, benefiting GPU-intensive applications or VDI deployments that require graphic acceleration.

  5. 5. High Availability: Ensures that VMs are automatically restarted on another host in the pool if a server failure occurs.

  6. 6. Dynamic Memory Control: Adjusts VM memory usage based on demand and optimizes the allocation of available memory among VMs.

  7. 7. Integration with Citrix Virtual Apps and Desktops: Seamless integration for those who utilize Citrix for VDI (Virtual Desktop Infrastructure) deployments.

  8. 8. Security: Features like Direct Inspect APIs safeguard against malicious activity within VM memory.


  • Mature Technology: Rooted in the Xen project, it comes with the stability and performance benefits of a mature hypervisor.
  • Scalability: Designed for both small business deployments and large enterprise data centers, ensuring flexibility in scaling up or down.
  • Performance Monitoring: Built-in tools and integrations offer real-time performance metrics and alerts.
  • Licensing: Citrix offers a free version of its hypervisor with basic features, while more advanced features can be accessed with premium licensing.


  • Complexity: Like many enterprise-grade solutions, there might be a learning curve, especially for those new to virtualization.
  • Licensing Costs: While there's a free version, unlocking all features requires a paid license which can get expensive for larger deployments.

Use Cases:

  • Data Center Virtualization: Efficiently manage, deploy, and monitor a large number of VMs in data center environments.
  • VDI Deployments: Integrated with Citrix's suite of VDI solutions, it provides an optimal platform for virtualized desktops and applications.
  • Disaster Recovery: Features like VM snapshotting, high availability, and site recovery make it suitable for business continuity strategies.

8) Red Hat Virtualization

Red Hat Virtualization (RHV), formerly known as Red Hat Enterprise Virtualization (RHEV), is an enterprise-class virtualization solution from Red Hat. It's based on the open-source oVirt project, and it integrates with the broader Red Hat ecosystem, including Red Hat Enterprise Linux (RHEL).

Here's a detailed overview of Red Hat Virtualization:

Key Features (as of 2021):

  1. 1. KVM-based Hypervisor: RHV utilizes the Kernel-based Virtual Machine (KVM) hypervisor, which is tightly integrated with the Linux kernel, offering robust performance and scalability.

  2. 2. Powerful Web-based Management Interface: RHV Manager (RHV-M) provides a comprehensive interface for managing virtual data centers, clusters, hosts, storage, and networks.

  3. 3. Live Migration: Enables moving running VMs between hosts without any downtime.

  4. 4. High Availability: Ensures that VMs automatically restart on another host if a failure is detected.

  5. 5. Template-based VM Provisioning: Speed up VM deployment by creating and deploying from standardized templates.

  6. 6. Storage Domain System: Manage storage through a unified interface that supports a variety of storage backends, including iSCSI, NFS, and Fibre Channel.

  7. 7. Integrated Networking: Provides functionalities like network isolation, bonding, and VLAN tagging.

  8. 8. Snapshots: Capture VM states, allowing for easy rollbacks or testing.


  • Open-source Foundations: Based on open standards and the broader open-source ecosystem, offering transparency and flexibility.
  • Integration with Red Hat Ecosystem: Seamless integration with other Red Hat products, such as Red Hat Satellite, Red Hat Ansible Automation Platform, and Red Hat OpenShift.
  • Performance and Scalability: With its KVM-based foundation, RHV offers solid performance and can manage large-scale deployments.
  • Security: Benefit from SELinux integration, a security mechanism in Linux designed by the U.S. National Security Agency (NSA).


  • Licensing and Support Costs: While based on open-source projects, the enterprise-grade support and features of RHV come at a cost.
  • Learning Curve: Some users might find that there's a learning curve, especially if they're not familiar with the Red Hat ecosystem or Linux-based virtualization.

Use Cases:

  • Enterprise Data Centers: Manage and orchestrate data center resources, ensuring high availability and performance.
  • Cloud Infrastructure: Serve as a foundational layer for building private or hybrid cloud solutions, especially when integrated with other Red Hat products.
  • Development and Testing: Provides developers with a consistent, replicable environment for application development and testing.

9) Gnome Boxes

GNOME Boxes is a simple and straightforward virtualization solution designed to create, manage, and run virtual machines and remote systems on the GNOME desktop environment. It's built around the principles of simplicity and user-friendliness, catering to users who might not be familiar with or prefer not to dive into the complexities of full-fledged virtualization tools.

Here's an overview of GNOME Boxes:

Key Features (as of 2021):

  1. 1. Simple User Interface: The UI of GNOME Boxes is designed with simplicity in mind, making it easy to use even for those new to virtualization.

  2. 2. KVM/QEMU Integration: GNOME Boxes is built upon the KVM/QEMU virtualization technologies, ensuring decent performance and reliability.

  3. 3. Easy VM Creation: Just by providing an ISO image, Boxes can handle the VM creation process automatically, including allocating disk space, RAM, and more.

  4. 4. Remote Connectivity: Apart from managing local VMs, Boxes also supports connecting to remote systems using various protocols like RDP, VNC, and SPICE.

  5. 5. Snapshotting: Users can take snapshots of their VMs, allowing them to revert back to a particular state when needed.

  6. 6. USB Redirection: Supports redirecting USB devices from the host machine to the VM.

  7. 7. Drag and Drop: Seamlessly drag and drop files between the host and the VM.


  • User-Friendly: Ideal for users who just want to quickly set up and run virtual machines without getting involved in detailed configurations.
  • Integrated Experience: As a part of the GNOME software ecosystem, it offers a seamless experience for GNOME desktop users.
  • Good for Basic Use Cases: Perfect for testing different distributions or running applications in a sandboxed environment.


  • Limited Advanced Features: Professional users or those looking for extensive virtualization features might find it lacking compared to tools like Virt-Manager or enterprise solutions.
  • Dependent on Host Capabilities: Like other KVM/QEMU based solutions, the performance and features might depend on the capabilities of the host, such as support for hardware virtualization.

Use Cases:

  • Desktop Users: For those running the GNOME desktop and needing a quick and simple way to run VMs.
  • Testing Operating Systems: Quickly launch and test different Linux distributions or other OSs without a complicated setup.
  • Education: A good tool for beginners or students getting introduced to virtualization concepts without being overwhelmed.

10) Kernel Virtual Machine

Kernel Virtual Machine (KVM) is not a standalone virtualization software in the traditional sense but rather a virtualization infrastructure for the Linux kernel. It allows the kernel to function as a hypervisor, transforming Linux into a type 1 (bare-metal) hypervisor. When paired with tools and libraries like QEMU, it provides a full virtualization solution for Linux-based systems.

Here's a closer look at KVM:

Key Features (as of 2021):

  1. 1. Integrated with Linux: KVM is a part of the Linux kernel (since version 2.6.20). When a system's CPU has virtualization extensions (such as Intel VT-x or AMD-V), KVM can run multiple, unmodified guest operating systems.

  2. 2. Leverages QEMU: For emulating hardware, KVM commonly utilizes QEMU, which is a generic and open-source machine emulator and virtualizer.

  3. 3. Support for Various Guest OSs: It can run multiple guest operating systems including Linux, Windows, and others.

  4. 4. Live Migration: Allows the movement of running virtual machines from one host to another without any noticeable downtime.

  5. 5. Scalability: Capable of scaling with the Linux kernel, it supports a large number of host CPUs and large memory configurations.

  6. 6. Performance: As a type 1 hypervisor, KVM provides near-native performance for VMs. Furthermore, the close relationship between KVM and the Linux kernel ensures efficient resource management.

  7. 7. Security: KVM inherits Linux's security features like SELinux, providing robust isolation and access control.


  • Open Source: KVM, being part of the Linux ecosystem, benefits from the transparency, community support, and continuous development of open-source software.
  • Flexibility: As a core part of Linux, KVM can be used with a wide variety of Linux distributions and configurations.
  • Efficiency: Type 1 hypervisors like KVM typically offer better performance compared to type 2 (hosted) hypervisors, especially when paired with hardware-accelerated virtualization.
  • Ecosystem: Various tools and projects, like libvirt, Virt-Manager, and oVirt, have been built around KVM, providing enhanced functionality and management capabilities.


  • Requires Hardware Virtualization: To use KVM, the host machine must have a CPU with virtualization extensions (e.g., Intel VT-x or AMD-V).
  • Configuration Complexity: While KVM itself is integrated into the Linux kernel, setting up a comprehensive virtualization solution using KVM and related tools may require more expertise compared to user-friendly, standalone solutions.

Use Cases:

  • Data Centers and Cloud Infrastructure: KVM is widely used in data center virtualization and forms the basis for many cloud solutions, including offerings from major players like Google Cloud and Red Hat's OpenStack platform.
  • Development and Testing: Developers can use KVM to create isolated environments for software testing and development.
  • Desktop Virtualization: For Linux users wanting to run other OSs in parallel, KVM provides a robust solution.

11) Google Cloud Compute Engine

Google Cloud Compute Engine (GCE) is part of Google Cloud Platform (GCP). It provides scalable and flexible virtual machine (VM) instances for running workloads, from simple web servers to complex machine learning applications. Compute Engine harnesses Google's infrastructure to offer powerful computing capabilities in the cloud.

Here's an overview of Google Cloud Compute Engine:

Key Features (as of 2021):

  1. 1. Customizable VMs: Choose from predefined machine types or customize your own with varying vCPUs and memory for optimized workload performance.

  2. 2. Persistent Storage: Attach block storage to your VMs with Persistent Disks, available in HDD or SSD.

  3. 3. Global Network: Utilize Google's premium global network to provide low-latency and high-throughput communications.

  4. 4. Load Balancing: Distribute incoming traffic across multiple VMs, ensuring your applications remain available and responsive.

  5. 5. Live Migration: Google's infrastructure supports the live migration of VM instances, allowing for maintenance and updates without downtime.

  6. 6. Preemptible VMs: These are short-lived VMs available at a lower cost, ideal for batch jobs and fault-tolerant workloads.

  7. 7. GPU and TPU Integration: Attach Graphics Processing Units (GPUs) or Tensor Processing Units (TPUs) for computation-intensive tasks, including machine learning.

  8. 8. VPC and Network Security: Define fine-grained networking policies with Google Virtual Private Cloud (VPC), firewall rules, and private IP addresses.


  • Scalability: Easily scale up or down based on demand, paying only for what you use.
  • Reliability: Built on Google's infrastructure, which is designed for high availability, redundancy, and fault tolerance.
  • Integration with GCP Services: Easily integrate with other GCP services like Google Cloud Storage, BigQuery, and machine learning APIs.
  • Security: Benefit from Google's multi-layered secure infrastructure, with data encrypted in transit and at rest.


  • Cost Management: Like other cloud services, costs can escalate if not monitored and managed properly.
  • Learning Curve: Users new to cloud platforms might need time to familiarize themselves with GCP's terminologies, concepts, and management interfaces.

Use Cases:

  • Web Hosting: Deploy and scale web applications, from simple websites to complex web apps.
  • Data Analysis: Run big data analytics and machine learning workloads with the integration of Google's suite of data services.
  • Gaming: Host multiplayer game servers that can scale with the number of players.
  • Simulation and Rendering: Utilize GPU-backed instances for graphic-intensive tasks.
  • Continuous Integration and Continuous Deployment (CI/CD): Create automated pipelines for software testing and deployment.

12) Boot Camp

Boot Camp is software developed by Apple for macOS that facilitates the installation of Microsoft Windows on Mac hardware. Unlike the other virtualization solutions we've discussed, Boot Camp isn't a virtual machine or hypervisor. Instead, it allows users to dual-boot between macOS and Windows, running one OS natively at a time.

Here's an overview of Boot Camp:

Key Features (as of 2021):

  1. 1. Native Performance: Since Windows runs directly on Mac hardware without a layer of virtualization, you get full performance, as if you're running on a dedicated Windows PC.

  2. 2. Mac Hardware Support: Boot Camp comes with drivers to ensure Windows works well with Mac hardware components like trackpads, built-in cameras, and high-resolution retina displays.

  3. 3. Disk Partitioning: Boot Camp Assistant, the utility that helps set up Boot Camp, guides users in partitioning their hard drive to accommodate both macOS and Windows.

  4. 4. Easy Switching: To switch between macOS and Windows, users simply need to reboot their Mac and choose the desired OS during the startup process.


  • Performance: One of the primary benefits is the ability to run Windows natively, utilizing the full power of the Mac's hardware without any overhead from virtualization.
  • Integrated Experience: Apple's Boot Camp Assistant provides a streamlined process for installing and setting up Windows, ensuring that necessary drivers are installed and hardware is correctly configured.
  • No Additional Software Cost: Boot Camp is included with macOS, so users don't need to purchase or install third-party virtualization software. However, a valid Windows license is still required.


  • Rebooting to Switch: One of the drawbacks is the need to reboot the Mac whenever you want to switch between macOS and Windows, which can be inconvenient compared to VM solutions that allow running both OSs simultaneously.
  • Disk Space: A significant portion of the Mac's drive will be dedicated to the Windows partition, which might be a concern for devices with limited storage.
  • Limited Peripheral Support: While most of the Mac's primary hardware features will work in Windows via Boot Camp, some peripherals or specific features may not function as seamlessly as they do in macOS.

Use Cases:

  • Gaming: For Mac users who want to play Windows-only games or want to utilize the full hardware capability without the overhead of a VM.
  • Software Compatibility: For those who need to run software that's only available or performs better on Windows.
  • Development and Testing: Developers who need to test their software on both macOS and Windows without compromising on performance.

Which virtual machine software is best for you?

Choosing the best virtual machine (VM) software depends on your specific needs, preferences, and hardware. Here's a guide to help you decide:

  1. 1. Purpose & Usage:

    • General Testing & Learning: If you're just getting started with virtualization or need a VM for occasional use, a user-friendly, free solution like VirtualBox is a solid choice.
    • Enterprise & Production: For large-scale deployments, consider robust solutions like VMware's vSphere (ESXi) or Red Hat Virtualization.
    • Development: If you're a developer testing cross-platform software, solutions like VMware Workstation (for Windows/Linux) or VMware Fusion (for macOS) can offer advanced features.
    • Gaming & High-Performance Needs: Running games or other graphic-intensive applications? Boot Camp (for Mac users) offers native performance by dual-booting Windows.
  2. 2. Budget:

    • Free Options: VirtualBox, GNOME Boxes, and Hyper-V (for Windows 10 Pro/Enterprise/Education) are among the prominent free solutions.
    • Paid Solutions: VMware Workstation/Fusion, Citrix Hypervisor, and Red Hat Virtualization come with costs but offer enhanced features and support.
  3. 3. Host Operating System:

    • Windows: VMware Workstation, Hyper-V, and VirtualBox are strong options.
    • macOS: VMware Fusion, VirtualBox, and Parallels Desktop are popular choices. For native performance, there's Boot Camp.
    • Linux: VirtualBox, KVM (with tools like Virt-Manager), VMware Workstation for Linux, and GNOME Boxes are suitable.
  4. 4. Ease of Use:

    • If you prioritize a simple interface and quick setup, GNOME Boxes or VirtualBox might appeal to you.
    • For deeper configuration options and features, you might lean towards VMware or Hyper-V.
  5. 5. Hardware & Performance:

    • Type 1 Hypervisor: ESXi, Hyper-V (when installed on bare metal), Citrix Hypervisor, and KVM run directly on the host hardware and generally offer better performance.
    • Type 2 Hypervisor: VMware Workstation/Fusion, VirtualBox, and GNOME Boxes run on a host OS. They might have slightly more overhead but are typically easier to set up.
  6. 6. Integration & Ecosystem:

    • If you're already invested in a particular ecosystem (like Microsoft's Azure or Google Cloud), selecting a VM solution that integrates well with those services (e.g., Hyper-V or Google Cloud Compute Engine) might make sense.
  7. 7. Features:

    • Consider special features you might need: GPU passthrough, snapshot capabilities, APIs for automation, network configurations, etc.
  8. 8. Support & Community:

    • Enterprise solutions often come with professional support. For free or open-source options, look for active community forums and resources.

In summary, the best VM software is the one that aligns most closely with your goals, technical expertise, and budget. If possible, trying out a couple of options before fully committing can help you find the best fit.

Recover Lost Virtual Machine Data!

Note: VM Snapshot vs Backup

DiskInternals VMFS Recovery is a software solution designed to recover data from VMFS (Virtual Machine File System) used by VMware virtual machines. If you have lost data within a virtual machine or from a VMFS partition itself, this tool can be particularly useful.

Here's a step-by-step guide on how to recover lost virtual machine data using DiskInternals VMFS Recovery:

1. 1. Preparing for Recovery:

  • Make sure you have enough storage space on a separate drive to save the recovered data.
  • If the VMFS datastore is on a failed hardware component (like a RAID configuration), try to fix the hardware issue first. VMFS Recovery can sometimes read data directly from failed systems, but chances are higher if the hardware is functioning.

2. 2. Install and Launch DiskInternals VMFS Recovery:

  • Download the DiskInternals VMFS Recovery software from the official website.
  • Install the software on your Windows computer.
  • Launch the application.

3. 3. Select the Target Drive:

  • In the software's main interface, you'll see a list of available drives.
  • Locate and select the disk or array where your VMFS datastore resides.
  • Click the "Scan" button to begin the scan for lost data.

4. 4. Scan for Lost Data:

  • DiskInternals VMFS Recovery will scan the selected VMFS datastore to find any recoverable data. Depending on the size of the datastore and the extent of the corruption/loss, this process may take some time.

5. 5. Preview Recovered Files:

  • Once the scan is complete, the software will display a list of recoverable files and folders.
  • You can use the preview feature to verify the contents of some files. This helps to ensure that the data recovery process is likely to be successful before you purchase the full version of the software.

6. 6. Activate the Software:

  • If you're satisfied with the preview results, you'll need to purchase a license for DiskInternals VMFS Recovery to save the recovered data.
  • After purchasing, you'll receive a license key. Enter this key into the software to activate the full version.

7. 7. Save Recovered Data:

  • Select the files or folders you wish to recover.
  • Click the "Save" button.
  • Choose a destination (preferably on a different drive or storage medium) to save the recovered data.

8. 8. Backup Your Data:

  • After recovering your data, consider implementing a regular backup strategy to prevent future data loss.
  • Regularly backup both your VM data and your host system data.


Selecting the best virtual machine software for Windows 10 hinges on various factors, including the user's needs, proficiency, budget, and the specific tasks at hand. Here's a concise conclusion based on our discussion:

  1. 1. VMware Workstation Pro: Known for its robustness and advanced features, it's an excellent choice for professionals and businesses who need reliable VM management and advanced functionalities. It's a paid solution, but the investment can be worth it for those who require its features.

  2. 2. VirtualBox: As a free and open-source option, it's popular among beginners and those who need a VM for occasional tasks or learning purposes. It's less feature-rich than VMware but can be adequate for standard VM tasks.

  3. 3. Hyper-V: Integrated into Windows 10 Pro, Enterprise, and Education editions, this Microsoft solution offers good performance and is particularly suitable for those invested in the Microsoft ecosystem.

  4. 4. Others:

    • Oracle VM: An enterprise solution primarily known for server virtualization.
    • QEMU, KVM: Open-source solutions, more prevalent in Linux environments but usable on Windows.
    • Citrix Hypervisor, Red Hat Virtualization: Enterprise-grade solutions known for large-scale deployments.
  5. 5. Specialized or Cloud Solutions:

    • Google Cloud Compute Engine: Ideal for those looking to run VMs in the cloud.
    • Boot Camp: For Mac users looking to run Windows natively.

In conclusion, the "best" VM software for Windows 10 is contingent on specific use cases. For general users, VirtualBox offers a balance of usability and features without cost. For professionals or businesses, VMware Workstation Pro or Hyper-V might be more suitable due to their enhanced capabilities. It's always a good practice to assess individual needs, and where possible, try out a couple of options to find the best fit.

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