4 Steps to Activate Your Newly Added M.2 SSD

4 Steps to Activate Your Newly Added M.2 SSD

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Have you recently upgraded your computer with an M.2 solid-state drive (SSD)? If so, you’re in for a treat! M.2 SSDs are blazing fast and can significantly improve the performance of your system. However, before you can start enjoying the benefits of your new SSD, you need to activate it. Here’s a step-by-step guide on how to do just that.

First, you need to check if your computer supports M.2 SSDs. Most newer computers do, but it’s always best to check your motherboard’s manual or manufacturer’s website to be sure. Once you’ve confirmed that your computer supports M.2 SSDs, you need to find the M.2 slot on your motherboard. The M.2 slot is typically located near the PCIe slots. Once you’ve found the M.2 slot, carefully insert your SSD into the slot. Make sure that the SSD is seated properly and that the connector is fully engaged.

Once your SSD is installed, you need to activate it in the BIOS. To do this, restart your computer and press the key that is displayed on the screen to enter the BIOS. Once you’re in the BIOS, navigate to the Storage section and find the option to activate your M.2 SSD. Once you’ve activated your SSD, save your changes and exit the BIOS. Your M.2 SSD should now be active and ready to use.

Understanding M.2 and Its Purpose

M.2, also known as the Next Generation Form Factor (NGFF), is a compact expansion card interface designed for ultra-thin and lightweight computing devices. It provides a versatile platform for connecting various storage, wireless, and other peripheral devices to laptops, ultrabooks, and other small form-factor systems.

M.2 cards are typically small, measuring only 22mm in width and ranging in length from 30mm to 110mm. Despite their compact size, they offer high-performance data transfer and expansion capabilities through multiple protocols, including SATA, PCIe, and NVMe (Non-Volatile Memory Express).

Features and Benefits of M.2:

Feature Benefits
Compact Size Enables installation in space-constrained devices
High-Speed Data Transfer Supports PCIe and NVMe protocols for lightning-fast data transfer
Versatility Supports a wide range of storage, wireless, and peripheral devices
Hot-Swappable Allows easy removal and insertion of M.2 devices without powering down the system
Low Power Consumption Optimized for energy-efficient operation

Locating the M.2 Slot on Your Motherboard

To find the M.2 slot on your motherboard, follow these steps:

1. Identify the M.2 form factor: M.2 slots can vary in size from 2230 (22mm wide, 30mm long) to 22110 (22mm wide, 110mm long), so it’s important to know the size of the M.2 you’ll be installing.

2. Find the M.2 slot: The M.2 slot is typically found near other expansion slots, such as PCI Express slots or DIMM slots. It’s a small, rectangular connector with multiple pins on the bottom. Look for a silkscreen label or etching on the motherboard that says “M.2” or “NGFF.”

3. Check for compatibility: Ensure that the M.2 slot on your motherboard supports the M.2 you’re installing. Not all M.2 slots support all M.2 form factors or NVMe protocol. Refer to your motherboard’s documentation for specific compatibility information.

Installing the M.2 Drive into the Slot

The M.2 slot is usually located on the motherboard, near the CPU socket. Look for a small, narrow slot that is typically labeled “M.2” or “NGFF.” Before installing the drive, make sure that the slot is compatible with the type of M.2 drive you have. There are three main types of M.2 drives: SATA, NVMe, and PCIe. SATA drives use the same interface as traditional hard drives, while NVMe and PCIe drives use a faster interface that can provide significantly better performance. Once you have verified that the slot is compatible, follow these steps to install the M.2 drive:

1. Power down your computer and unplug it from the power outlet.

2. Open the computer case.

3. Locate the M.2 slot on the motherboard.

The M.2 slot is typically located near the CPU socket. It is a small, narrow slot that is usually labeled “M.2” or “NGFF.” If you can’t find the M.2 slot, consult your motherboard’s manual.

a) Aligning the M.2 Drive with the Slot

Align the notch on the M.2 drive with the corresponding notch on the M.2 slot. The drive should only fit in one way.

b) Inserting the M.2 Drive into the Slot

Gently insert the M.2 drive into the slot at a 30-degree angle. Once the drive is fully inserted, it should click into place.

c) Securing the M.2 Drive

Use the screw provided with the M.2 drive to secure it to the motherboard.

4. Close the computer case.

5. Plug your computer back into the power outlet and power it on.

The M.2 drive should now be detected by your computer. You can check the BIOS to verify that the drive is recognized. Once the drive is recognized, you can format it and install your operating system or other files.

Securing the M.2 Drive

Step 1: Power Off and Disconnect

Begin by powering off your computer and disconnecting it from the power source. This safety precaution prevents any accidental electrical discharge that could damage your components.

Step 2: Open the Computer Case

Locate the screws securing the computer case and remove them to open it. Grip the edges of the case and carefully pull it apart, exposing the motherboard.

Step 3: Locate the M.2 Slot

Examine the motherboard for a small, elongated slot labeled “M.2” or “NGFF.” It typically resides near the PCIe expansion slots or below the CPU socket.

Step 4: Install the M.2 Drive

Position the M.2 drive’s notched end with the motherboard’s alignment key. Gently slide the drive into the slot at a slight angle, as shown below:

Step Description
1 Align the notches and slide the drive into the slot.
2 Push down gently at an angle.
3 Secure the drive with a screw.

Secure the M.2 drive in place with the provided screw. Ensure it is fastened tightly to prevent it from becoming loose during operation.

Configuring the M.2 Drive in the BIOS

After physically connecting the M.2 drive to your motherboard, you need to configure it in the BIOS (Basic Input/Output System) to make it recognizable and bootable. Here are the steps to do it:

  1. Enter the BIOS settings:
    – Restart your computer and press the BIOS setup key (usually DEL, F2, or F10). Consult your motherboard manual for the specific key.
  2. Locate the M.2 settings:
    – Navigate through the BIOS menu to find the M.2 settings. Its location may vary depending on your motherboard model. Look for options related to “M.2 Configuration,” “Storage Options,” or “PCIe Devices.”
  3. Enable the M.2 slot:
    – Find the setting that controls the M.2 slot associated with your installed drive. Typically, it will be labeled “M.2 Slot 1” or “M.2_1.” Enable it by setting it to “Enabled” or “Auto.”
  4. Configure the M.2 drive type:
    – Select the option to configure the M.2 drive’s interface type. Common options are SATA and NVMe. Choose the appropriate interface type based on the specifications of your M.2 drive.
  5. Create a new boot order (if necessary):
    – Navigate to the Boot menu or Boot Priority settings. Ensure that your M.2 drive is set as the primary boot device. If not, move it up the boot order list using the + or – keys or by dragging and dropping.

    BIOS Setting Purpose
    M.2 Slot Configuration Enables the M.2 slot.
    M.2 Drive Type Selects the M.2 drive’s interface type (SATA or NVMe).
    Boot Order Sets the M.2 drive as the primary boot device.
  6. Save changes and exit BIOS:
    – Press the F10 key to save your changes and exit the BIOS settings. The computer will restart with the newly configured M.2 drive.

Formatting and Partitioning the M.2 Drive

1. Open Disk Management

Navigate to the “Control Panel,” select “Administrative Tools,” then click on “Computer Management.” In the left-hand pane, expand “Storage” and click on “Disk Management.”

2. Locate the Unallocated M.2 Drive

The M.2 drive will appear as an unallocated disk. Right-click on it and select “Initialize Disk.”

3. Select GPT Partitioning Style

In the “Initialize Disk” window, choose the “GPT” partition style. GPT is recommended for drives larger than 2TB.

4. Create a New Partition

Right-click on the unallocated space again and select “New Simple Volume.” Follow the on-screen wizard to create a new partition and assign it a drive letter.

5. Format the M.2 Drive

Right-click on the new partition and select “Format.” Choose a file system format such as NTFS or exFAT. Untick the “Quick Format” checkbox to perform a full format.

6. Advanced Partitioning Options

Advanced users can utilize Disk Management’s advanced partitioning options, including creating multiple partitions, resizing existing partitions, and extending volumes to maximize the storage capacity of the M.2 drive.

Partition Type Description
Primary Partition Stores an operating system or data
Logical Partition Creates subpartitions within an extended partition
Extended Partition Contains multiple logical partitions
Dynamic Disk Allows for greater flexibility in managing disk space

Installing the Operating System on the M.2 Drive

To install the operating system (OS) on the M.2 drive, follow these steps:

1. Create a bootable USB drive

Download the OS ISO file and use a tool like Rufus to create a bootable USB drive.

2. Boot from the USB drive

Connect the USB drive to your computer and restart it. Change the boot order in BIOS to boot from the USB drive.

3. Install the OS

Follow the on-screen instructions to install the OS. Select the M.2 drive as the installation destination.

4. Set the M.2 drive as the primary boot drive

Once the OS is installed, restart the computer and enter BIOS. Set the M.2 drive as the primary boot drive.

5. Update BIOS and drivers

Visit the motherboard manufacturer’s website to download the latest BIOS update and chipset drivers. Install them to ensure compatibility with the M.2 drive.

6. Enable NVMe support in BIOS

If your M.2 drive supports NVMe, ensure that NVMe support is enabled in BIOS.

7. Troubleshooting

If you encounter any issues during OS installation or bootup, try the following:

  1. Ensure that the M.2 drive is properly seated in the slot.
  2. Try a different SATA port or M.2 slot (if available).
  3. Check the BIOS settings for any errors or conflicts.
  4. Reset BIOS to default settings.
  5. Contact the motherboard manufacturer for support.
Problem Solution
OS not detecting M.2 drive Check BIOS settings, update BIOS, ensure proper seating
Computer boots to old drive Set M.2 drive as primary boot drive in BIOS
Slow performance Enable NVMe support, check for firmware updates

How to Activate Newly Added M.2

Enabling a new M.2 device can require some configuration to ensure it is recognized and utilized by your system.

Troubleshooting Common M.2 Activation Issues

1. Check Physical Connection

Ensure the M.2 is firmly seated in its designated slot on the motherboard.

2. Verify BIOS Settings

Enter the BIOS and navigate to the storage configuration. Confirm that the M.2 is detected and enabled in the interface settings.

3. Install Necessary Drivers

Check the motherboard manufacturer’s website for any M.2-specific drivers that may need to be installed.

4. Update BIOS

Visit the motherboard manufacturer’s website to download the latest BIOS firmware. Updating the BIOS may resolve compatibility issues.

5. Check Disk Management

Open Disk Management in Windows. The new M.2 drive should be listed. If it is not, right-click “Disk Management” and select “Rescan Disks”.

6. Format the M.2

Right-click the M.2 in Disk Management and select “Format”. Choose a file system and perform a quick format to prepare the drive for use.

7. Partition the M.2

If desired, right-click the M.2 in Disk Management and select “New Simple Volume”. Follow the wizard to create and allocate partitions.

8. Check NVMe Support

Some older motherboards may not support NVMe (Non-Volatile Memory Express) M.2 drives. Ensure that your motherboard has the correct BIOS settings and NVMe firmware installed to utilize NVMe M.2 devices.

Error Message

Possible Cause

Solution

M.2 not detected in BIOS Poor physical connection, incorrect BIOS settings, or outdated BIOS Check physical connection, update BIOS, or contact motherboard manufacturer
M.2 recognized but not usable Disk not formatted or partitioned, or missing drivers Format and partition the M.2, or install necessary drivers
M.2 shows errors or performance issues File system errors or hardware issues Run CHKDSK to check and repair file system errors, or consider contacting the manufacturer for potential hardware issues

Optimizing the Performance of Your M.2 Drive

Selecting the Right Drive

Consider factors such as capacity, read/write speeds, and interface compatibility when choosing an M.2 drive.

Updating BIOS and Drivers

Ensure that your BIOS and device drivers are up to date to support the new M.2 drive.

Formatting and Partitioning

Format the drive using an appropriate file system (e.g., NTFS, exFAT) and partition it for efficient storage management.

Optimizing Disk Usage

Avoid storing large, frequently accessed files on the M.2 drive to minimize performance degradation.

Enabling Write Caching

Turn on write caching in your BIOS settings to improve write speeds and reduce latency.

Disable Defragmentation

M.2 drives do not benefit from defragmentation, so disable this process to avoid unnecessary write operations.

Regular Maintenance

Periodically run disk cleanup and optimization tools to maintain drive health and performance.

Using a Heat Sink

Consider installing a heat sink on the M.2 drive to prevent overheating and maintain optimal performance.

Set Up RAID (optional)

If multiple M.2 drives are available, you can set up a RAID array to improve performance, data redundancy, or both.

RAID Level Benefits
RAID 0 Increased read/write speeds
RAID 1 Data redundancy and protection
RAID 5 Data redundancy, improved read/write speeds

Before You Begin

Before you begin the activation process, ensure that your motherboard supports M.2 drives and that the drive is compatible with your system.

Activating the M.2 Drive

To activate the M.2 drive, follow these steps:

  1. Power down your system and unplug it from the power outlet.
  2. Open your computer case.
  3. Locate the M.2 slot on your motherboard.
  4. Align the M.2 drive with the slot and insert it gently.
  5. Secure the M.2 drive with the provided screw.
  6. Close your computer case.
  7. Reconnect your system to the power outlet.
  8. Power on your system.
  9. Enter your system’s BIOS settings.
  10. Navigate to the storage settings and enable the M.2 drive.
  11. Save the BIOS settings and exit.
  12. Boot into your operating system.

Additional Considerations for M.2 Activation

M.2 Drive Interfaces

M.2 drives come in different interfaces, including PCIe and SATA. Ensure that your motherboard supports the interface of your M.2 drive.

M.2 Keying

M.2 drives have different keying, which determines their purpose (e.g., storage, Wi-Fi). Verify the correct keying for your intended use.

M.2 Drive Capacity

M.2 drives come in various capacities. Select a capacity that meets your storage requirements.

M.2 Form Factors

M.2 drives are available in different form factors, such as 2242, 2260, and 2280. Ensure that your motherboard supports the form factor of your M.2 drive.

M.2 Drive Performance

M.2 drives vary in performance, with NVMe drives offering significantly faster speeds than SATA drives. Consider the performance you need before selecting a drive.

Heat Dissipation

Some M.2 drives can generate heat during operation. Ensure that your system has adequate cooling to prevent overheating.

Operating System Compatibility

Verify that your operating system supports the interface and keying of your M.2 drive.

Troubleshooting Tips

If you encounter any issues with M.2 activation, refer to the troubleshooting section of your motherboard’s manual or seek support from the drive manufacturer.

How to Activate Newly Added M.2

To activate a newly added M.2 drive, follow these steps:

  1. Enter BIOS: Restart your computer and press the designated key (usually Del, F2, or F10) to enter the BIOS settings.
  2. Locate Storage Settings: Navigate to the storage or SATA settings section in the BIOS.
  3. Enable M.2 Port: Find the option related to the M.2 slot where the new drive is installed and enable it.
  4. Save and Exit: Save the changes and exit the BIOS.
  5. Boot from M.2 Drive: If you want to boot from the M.2 drive, set it as the primary boot device in the boot order settings.

People Also Ask About How to Activate Newly Added M.2

What is an M.2 Drive?

An M.2 drive is a small, high-speed storage device that connects directly to the motherboard using an M.2 slot. They are commonly used for SSDs (solid-state drives).

How do I know if my motherboard supports M.2?

Check the motherboard specifications or manual to see if it has an M.2 slot. The slot will typically be labeled “M.2” or “NGFF” (Next Generation Form Factor).

What type of M.2 drive do I need?

There are different types of M.2 drives available, such as SATA, NVMe, and PCIe. Consult your motherboard documentation to determine which type is compatible.

How do I install an M.2 drive?

Locate the M.2 slot on your motherboard and align the drive with the notch on the slot. Gently press down on the drive until it clicks into place.

Do I need to format the new M.2 drive?

Yes, you may need to format the drive before you can use it. This can be done using the Disk Management tool in Windows or through your operating system’s installer.

5 Best Motherboards for Your Gaming PC

4 Steps to Activate Your Newly Added M.2 SSD

Motherboards serve as the foundation of any computer system, connecting various components and facilitating communication between them. Choosing the right motherboard is crucial for optimizing performance, stability, and expansion capabilities. With a vast array of motherboards available in the market, it can be challenging to navigate the options. This guide will delve into the essential factors to consider when selecting a motherboard, highlighting the key features that differentiate various models. Whether you’re building a new computer or upgrading an existing one, understanding the nuances of motherboards will empower you to make an informed decision.

Form factor, socket type, and chipset are fundamental considerations when selecting a motherboard. Form factor refers to the physical size and shape of the motherboard, dictating compatibility with different computer cases. Common form factors include ATX, mATX, and ITX, each tailored to specific space constraints. Socket type determines the type of processor that can be installed on the motherboard. Different manufacturers employ distinct socket types, so it’s essential to ensure compatibility between the motherboard and your chosen processor. Chipset, provided by manufacturers like Intel or AMD, acts as the bridge between the processor and other components. It governs various aspects of system functionality, including I/O connectivity, storage support, and expansion capabilities.

Beyond these core considerations, other factors to ponder include memory compatibility, expansion slots, and onboard features. Memory compatibility pertains to the type and speed of RAM supported by the motherboard. Expansion slots, such as PCIe and M.2, allow for the installation of additional components like graphics cards, sound cards, and storage drives. Onboard features can enhance the functionality of the motherboard, integrating features such as Wi-Fi, Bluetooth, and audio codecs. By carefully assessing your specific needs and preferences, you can select a motherboard that provides the optimal balance of performance, compatibility, and expandability for your computing experience.

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Understanding Motherboard Form Factors

ATX

ATX (Advanced Technology Extended) is the most common motherboard form factor for desktop computers. It measures 12 inches by 9.6 inches and has a rectangular shape with nine mounting holes around the perimeter. ATX motherboards are compatible with a wide range of cases and components, making them a versatile option for PC builders.

mATX

mATX (microATX) is a smaller version of the ATX form factor, measuring 9.6 inches by 9.6 inches. It has a square shape with six mounting holes around the perimeter. mATX motherboards are ideal for compact builds or systems with limited space, such as small form factor (SFF) cases. Despite their smaller size, mATX motherboards still offer a wide range of features and can support multiple expansion cards.

ITX

ITX (Mini-ITX) is the smallest motherboard form factor, measuring 6.7 inches by 6.7 inches. It has a square shape with four mounting holes around the perimeter. ITX motherboards are designed for ultra-compact builds, such as those found in home theater PCs or HTPCs. While they may have fewer expansion options than larger form factors, ITX motherboards are still capable of supporting powerful components and can be used for a variety of applications.

| Form Factor | Dimensions (inches) | Number of Mounting Holes |
|—|—|—|
| ATX | 12 x 9.6 | 9 |
| mATX | 9.6 x 9.6 | 6 |
| ITX | 6.7 x 6.7 | 4 |

Selecting the Right Expansion Slots

Choosing the Right Slots for Your Needs

When selecting motherboard expansion slots, consider the types of devices you intend to connect. Different slots support different types of cards, such as graphics cards, sound cards, and network cards. Identify the specific peripherals you need to accommodate before making a decision.

Expansion Slot Types and Their Functions

Motherboards typically provide a combination of expansion slots, including PCIe (Peripheral Component Interconnect Express), PCI (Peripheral Component Interconnect), and M.2. Here’s an overview of their functions:

Slot Type Purpose
PCIe High-speed data transfer and support for graphics cards, sound cards, and network adapters
PCI Legacy interface for older devices like sound cards and network adapters
M.2 Compact slot for fast storage devices such as SSDs and Wi-Fi modules

Consider the Number of Expansion Slots Available

The number of expansion slots available on a motherboard governs the number of devices you can connect. Estimate your current and future expansion needs to ensure you have enough slots to accommodate all your peripherals.

PCIe Slot Form Factors

PCIe slots come in different form factors, such as x1, x4, x8, and x16. Each number represents the number of lanes available for data transfer. Choose slots with sufficient lanes to match the performance demands of your devices.

Compatibility with Your Devices

Before selecting expansion slots, verify that they are compatible with your devices. Inspect the card you intend to install and ensure it aligns with the slot’s form factor and connectivity requirements.

Powering Up: Motherboard Power Delivery

The motherboard’s power delivery system is essential for ensuring that your system has a reliable and consistent power supply.

Voltage Regulation Modules (VRMs)

VRMs regulate the voltage supplied to the CPU and memory. Higher-quality VRMs can provide more stable voltages, which can improve performance and stability.

Power Phases

Power phases refer to the individual circuits that deliver power to components. More power phases can provide smoother and more efficient power delivery.

Heatsinks

Heatsinks dissipate heat from the VRMs. Adequate cooling is important to prevent overheating and ensure reliable operation.

Capacitors

Capacitors store electrical charge and help smooth out voltage fluctuations. Higher-quality capacitors can provide more stability and noise reduction.

Power Connectors

The motherboard has power connectors that connect to the power supply unit (PSU). More power connectors can support more power-hungry components.

Power Delivery Comparison Table

Motherboard VRMs Power Phases Capacitors
MSI Z690-A Pro 14+2 100A Solid Capacitors
ASUS ROG Maximus Z690 Hero 19+1 100A Polymer Capacitors
Gigabyte Z690 Aorus Ultra 16+1+2 90A Nichicon Capacitors

Cooling Options for Stable Operation

Ensuring stable operation is crucial for motherboards, especially under heavy workloads and extended usage. Efficient cooling mechanisms are indispensable for maintaining optimal temperatures and preventing component failures. Motherboards are equipped with various cooling options to meet the demands of different computing scenarios.

Passive Cooling

Passive cooling relies on heat dissipation through heat sinks and thermal pads. Heat sinks are typically made of aluminum or copper and provide a large surface area for heat to dissipate into the surrounding air. Thermal pads bridge the gap between heat-generating components and the heat sink, improving thermal conductivity.

Active Cooling

Active cooling utilizes fans to actively circulate air, enhancing heat dissipation. Fans draw in cooler air and expel warm air, creating a cooling airflow. Cooling fans vary in size, from small, low-profile fans to larger, high-performance ones. Customized cooling profiles allow users to adjust fan speeds based on temperature sensors, ensuring optimal cooling.

Hybrid Cooling

Hybrid cooling combines passive and active cooling methods for enhanced thermal management. Heat sinks with integrated fans offer a synergistic approach, combining the heat dissipation of passive cooling with the active airflow of cooling fans.

Liquid Cooling

Liquid cooling is the most efficient cooling method, utilizing water or liquid coolant to absorb heat from components. Liquid coolant circulates through a closed-loop system, transferring heat away from the motherboard to a radiator, where it is dissipated into the surrounding air. Liquid cooling provides exceptional temperature control and is ideal for high-performance computing systems.

Case Airflow

Adequate case airflow is essential for effective motherboard cooling. Well-designed cases facilitate air circulation by incorporating front intake fans, rear exhaust fans, and optimized airflow paths. Proper case ventilation ensures a continuous flow of cool air to the motherboard, promoting heat dissipation.

VRM Heatsink

The voltage regulator module (VRM) is a critical component that supplies power to the processor. VRM heatsinks are designed to dissipate heat generated by the VRM during power regulation. Efficient VRM cooling ensures stable power delivery and prevents voltage instability.

M.2 SSD Heatsink

Modern high-performance M.2 solid-state drives (SSDs) generate significant heat during high-speed operations. M.2 SSD heatsinks are specifically designed to absorb and dissipate heat, preventing thermal throttling and ensuring optimal SSD performance.

Fan Headers

Fan headers on motherboards allow for the connection of additional cooling fans. By attaching case fans or liquid cooling pumps to these headers, users can customize and optimize cooling performance based on their system’s needs.

Best motherboards

A computer’s motherboard is a crucial component that connects all the other parts of the system, including the CPU, RAM, graphics card, and storage devices. It determines the type of components that can be used and the overall performance of the system. When choosing a motherboard, there are several factors to consider, including the form factor, chipset, and features.

The form factor determines the size and layout of the motherboard. The most common form factors are ATX, micro-ATX, and mini-ITX. ATX motherboards are the largest and offer the most expansion options. Micro-ATX motherboards are smaller and more compact, but they still offer good expansion options. Mini-ITX motherboards are the smallest and most compact, but they offer the fewest expansion options.

The chipset is the heart of the motherboard. It controls the communication between the CPU, RAM, and other components. The type of chipset determines the features and performance of the motherboard. There are several different chipsets available, each with its own strengths and weaknesses. It is important to choose a chipset that is compatible with the CPU and other components you plan to use.

The features of a motherboard can vary depending on the model. Some motherboards have built-in Wi-Fi, Bluetooth, and Ethernet connectivity. Others have multiple PCIe slots for expansion cards. It is important to choose a motherboard that has the features you need.

People also ask

What is the best motherboard for gaming?

The best motherboard for gaming depends on your budget and needs. Some of the best motherboards for gaming include the MSI X570-A Pro, Gigabyte X570 Aorus Pro, and Asus ROG Maximus XII Hero.

What is the best motherboard for overclocking?

The best motherboard for overclocking depends on the CPU you plan to use. Some of the best motherboards for overclocking include the MSI Z490-A Pro, Gigabyte Z490 Aorus Ultra, and Asus ROG Maximus XII Apex.

What is the best motherboard for a budget build?

The best motherboard for a budget build depends on your budget and needs. Some of the best motherboards for a budget build include the MSI B450-A Pro, Gigabyte B450 Aorus Elite, and Asus Prime B450M-A.