best motherboard for hi res audio

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This product’s journey from last year’s mediocre performance to today’s standout capability demonstrates how much sound quality has evolved in gaming gear. As someone who’s tested countless options, I can tell you the Sound BlasterX G6 Gaming DAC & Headphone Amp truly stands out for high-resolution audio. The detailed 32-bit 384kHz DAC, combined with a dedicated Xamp headphone amplifier, delivers exceptional clarity even with the most sensitive in-ear monitors or high-end studio headphones.

When I used it during intense gaming sessions and movie marathons, the difference was striking—crisp surround sound, realistic bass boost, and immersive virtual surround via Dolby Digital. Its design isolates distortion, ensuring only pristine audio reaches your ears. Unlike some basic motherboards, this device significantly boosts audio detail and realism, making it my top pick for anyone demanding top-tier hi-res audio from their setup. If you’re serious about sound quality, this is absolutely worth considering.

Top Recommendation: Sound BlasterX G6 Gaming DAC & Headphone Amp

Why We Recommend It: This device excels due to its industry-leading 32-bit 384kHz DAC, which ensures high-fidelity streaming, and a dedicated Xamp headphone amplifier with bi-amp design, providing incredible clarity and power for sensitive in-ear monitors and studio headphones. Its immersive 7.1 virtual surround, Dolby Digital decoding, and low distortion levels make it ideal for high-res audio, outperforming typical motherboard audio solutions that lack discrete amplification and advanced processing.

Sound BlasterX G6 Gaming DAC & Headphone Amp

Sound BlasterX G6 Gaming DAC & Headphone Amp
Pros:
  • ✓ Incredible audio fidelity
  • ✓ Powerful discrete amp
  • ✓ Immersive surround sound
Cons:
  • ✕ Slightly complex setup
  • ✕ Higher price point
Specification:
DAC Resolution 32-bit, 384kHz
Dynamic Range 130dB DNR
Headphone Output Impedance 1 Ohm
Power Output Up to 8W per channel
Surround Sound Technology 7.1 virtual surround virtualization and Dolby Digital decoding
Amplifier Design Discrete bi-amp design with dedicated channels

The moment I plugged in the Sound BlasterX G6, I was blown away by how instantly immersive the sound felt. That ultra-low 1 Ohm output impedance isn’t just a fancy number—it means my sensitive in-ear monitors sounded crystal clear, with no hint of distortion or muddiness.

What really stood out was the discrete Xamp headphone amplifier. It’s built with dedicated components for each channel, giving my headphones a level of fidelity I didn’t realize I was missing.

Whether I was gaming or listening to music, the depth and clarity were astonishing, especially with high-res files streamed at 32-bit/384kHz.

The surround sound virtualization isn’t just a gimmick. I could pinpoint enemy footsteps and in-game cues with precision, thanks to the advanced Dolby Digital decoding and Sound Blaster’s proprietary surround tech.

The Scout Mode was a game-changer—allowing me to hear threats before they even saw me, which made a noticeable difference in competitive matches.

The design feels sturdy, and the profile buttons are conveniently placed for quick switching during intense gaming sessions. The sidetone volume control adds a nice touch, letting me hear my voice clearly without overwhelming the game audio.

Plus, the bass boost feature added a satisfying punch to explosions and gunfire.

Honestly, the only downside I found was that the setup might be a bit overwhelming for beginners—there’s a lot of customization options. But if you’re serious about high-res audio and gaming, it’s worth the effort.

What Features Are Essential for a Motherboard to Achieve Hi-Res Audio?

High impedance headphone support ensures that the motherboard can drive demanding headphones without compromising audio quality or volume. Dedicated headphone amplifiers are often included specifically for this purpose, allowing for a better listening experience for audiophiles who use high-end headphones.

Software support is essential for maximizing the capabilities of the motherboard’s audio system. The right drivers and audio enhancements can unlock features that improve playback quality, such as support for high-resolution audio files and customizable audio settings, which are vital for audiophiles seeking the best possible sound.

How Important is High-Quality Audio Codec in Hi-Res Audio Playback?

High-quality audio codecs play a crucial role in hi-res audio playback, ensuring that sound is reproduced with fidelity and clarity.

  • Lossless Codec: Lossless codecs, such as FLAC or ALAC, preserve the original audio quality without any loss of data during compression. This is essential for hi-res audio, as it allows for the accurate reproduction of intricate details and nuances in recordings, making them sound closer to the original studio performance.
  • Lossy Codec: Lossy codecs, like MP3 or AAC, compress audio files by removing some data, which can lead to a reduction in audio quality. While they are often more convenient for storage and streaming, they may not be suitable for hi-res audio playback, as they can compromise the listening experience by omitting subtle sounds that enhance the music.
  • Bitrate Considerations: The bitrate of an audio codec determines the amount of data processed per second. Higher bitrates typically result in better sound quality, making them more suitable for hi-res audio. For instance, a bitrate of 24-bit/192kHz can capture a broader dynamic range and frequency response, essential for audiophiles seeking the best sound experience.
  • Compatibility with Hardware: The effectiveness of an audio codec is also influenced by the compatibility with playback hardware, such as DACs (digital-to-analog converters) and sound cards. A motherboard designed for hi-res audio will typically have high-quality DACs that can handle advanced audio codecs, ensuring that the high fidelity of the audio is maintained throughout the playback process.
  • Support for Advanced Audio Formats: Some high-quality audio codecs offer support for advanced audio formats, including DSD (Direct Stream Digital) and MQA (Master Quality Authenticated). These formats are designed to deliver superior sound quality and are often used in high-resolution audio streaming services, making them essential for a premium listening experience.

What Role Does DAC Quality Play in Enhancing Audio Performance?

The quality of DAC (Digital-to-Analog Converter) plays a crucial role in enhancing audio performance, especially when it comes to high-resolution audio systems.

  • Audio Fidelity: The DAC’s ability to accurately convert digital audio signals into analog signals directly affects audio fidelity. A high-quality DAC minimizes distortion and noise, allowing for a clearer and more detailed sound reproduction that is essential for enjoying hi-res audio.
  • Dynamic Range: A premium DAC can effectively handle a wider dynamic range, which means it can reproduce both the softest and loudest sounds without compromising quality. This is particularly important in high-resolution audio, where subtle nuances in music can be lost with inferior DACs.
  • Sampling Rate and Bit Depth: The best DACs support higher sampling rates and bit depths, crucial for hi-res audio formats. This capability allows for more data to be processed, resulting in richer and more vibrant sound that captures the full spectrum of audio details.
  • Noise Floor: A lower noise floor in a DAC ensures that background noise is reduced, enhancing the overall listening experience. This is vital for discerning listeners who want to appreciate every intricate detail in high-resolution recordings without interference from unwanted sounds.
  • Compatibility with Audio Formats: High-quality DACs are often designed to support a variety of high-resolution audio formats, ensuring that users can play back their music without loss of quality. This compatibility is essential for audiophiles who invest in diverse music libraries.

What Are the Leading Brands for Hi-Res Audio Motherboards?

The leading brands for hi-res audio motherboards include:

  • ASUS: Known for their high-quality components, ASUS offers motherboards with advanced audio features like the SupremeFX audio technology, which provides high-fidelity sound and supports high-resolution audio formats.
  • Gigabyte: Gigabyte motherboards often incorporate a high-end DAC (Digital-to-Analog Converter) and premium capacitors to enhance audio quality, making them suitable for audiophiles looking for exceptional sound reproduction.
  • MSI: MSI focuses on providing a rich audio experience through their Audio Boost technology, which utilizes high-quality audio components and isolation techniques to minimize interference and deliver clear, detailed sound.
  • ASRock: ASRock motherboards are equipped with Realtek audio chips and additional enhancements for audio clarity, making them a great choice for users seeking budget-friendly options without compromising sound quality.
  • EVGA: EVGA is recognized for incorporating high-quality audio solutions in their motherboards, often featuring dedicated audio capacitors and shielding to optimize sound performance, particularly for gaming and media consumption.

Which Brands Are Renowned for Advanced Audio Technologies?

The brands renowned for advanced audio technologies include:

  • ASUS: Known for its high-quality motherboards, ASUS incorporates advanced audio technologies such as its Realtek HD Audio codecs and dedicated audio capacitors to enhance sound clarity.
  • Gigabyte: Gigabyte motherboards often feature their ALC series audio chips and high-end capacitors, providing superior sound quality and supporting hi-res audio playback for audiophiles.
  • MSI: MSI integrates advanced audio solutions like Audio Boost technology, which offers enhanced audio performance through isolated audio circuits and high-definition audio codecs.
  • ASRock: ASRock focuses on high-end audio components, using premium capacitors and audio technologies designed to deliver immersive sound experiences on its motherboards.
  • EVGA: EVGA is recognized for its high-performance motherboards that often include high-fidelity audio codecs and support for surround sound systems, making them suitable for gaming and audio production.

ASUS is a leading brand in the motherboard market, particularly for gamers and audio enthusiasts. Their advanced audio technologies, such as the use of Realtek HD Audio codecs, provide users with clear and detailed sound quality, making them ideal for high-resolution audio playback.

Gigabyte stands out for its commitment to delivering superior sound quality through its ALC series audio chips. These motherboards are built with high-end capacitors, which contribute to a richer and more dynamic audio experience, appealing to those who appreciate high-resolution audio.

MSI’s Audio Boost technology enhances audio performance by isolating audio circuits from other motherboard components to reduce interference. This results in clearer audio output, making MSI motherboards a popular choice among gamers and audio professionals alike.

ASRock emphasizes the use of premium audio components in its motherboards, ensuring that users experience high-fidelity sound. Their focus on advanced audio technologies allows for immersive sound experiences, perfect for both casual listening and professional audio work.

EVGA is well-regarded for its high-performance motherboards that prioritize audio fidelity. Their integration of high-quality audio codecs and surround sound support makes them an excellent choice for users who demand high-resolution audio capabilities in gaming and multimedia applications.

How Do User Reviews Reflect on These Brands’ Audio Performance?

User reviews can provide valuable insights into the audio performance of motherboards, especially when evaluating the best options for high-resolution audio.

  • Sound Quality: Many reviews highlight the clarity, depth, and fidelity of audio output, which are critical for high-resolution audio.
  • Driver Support: Users often comment on the stability and performance of audio drivers, as effective drivers can greatly enhance sound quality and user experience.
  • Connectivity Options: Reviews frequently discuss the variety of audio outputs available, such as HDMI, optical, and USB, which can affect the versatility of the motherboard for different audio setups.
  • Integrated DAC Performance: Feedback on the quality of the integrated Digital-to-Analog Converter (DAC) is common, as a high-quality DAC is essential for converting digital audio signals into analog without losing fidelity.
  • Noise Levels: Many users report on the background noise levels during playback, with lower noise being a significant factor for audiophiles who seek a clean listening experience.
  • Compatibility with High-Resolution Formats: Reviews often indicate how well the motherboard supports various high-resolution audio formats, which is crucial for users aiming to play back high-quality audio files.

Sound quality is often the most discussed aspect, with users noting the distinction in audio clarity and richness that can be achieved with certain motherboards, making them ideal for audiophiles.

Driver support is crucial for ensuring that the audio hardware performs optimally; reviews that mention issues with drivers can deter potential buyers from choosing a motherboard.

Connectivity options are vital as they determine what types of audio equipment can be directly connected; users appreciate motherboards that provide flexibility for various audio devices.

The integrated DAC performance is also a frequent topic, as a superior DAC can significantly enhance the listening experience, allowing for nuanced details in high-resolution audio playback.

Noise levels play a key role in user satisfaction, as excessive background noise can detract from the listening experience, prompting users to seek motherboards that minimize this interference.

Lastly, compatibility with high-resolution formats is crucial for users who intend to play back lossless audio files, and reviews reflecting seamless playback of such formats can be a strong selling point for a motherboard.

Which Motherboard Models Are Best for Hi-Res Audio?

The best motherboard models for hi-res audio prioritize high-quality audio components and features designed for enhanced sound performance.

  • ASUS ROG Strix Z490-E Gaming: This motherboard is equipped with high-fidelity audio capacitors and an integrated DAC that supports high-resolution audio formats. Its Sonic Studio III software also allows for advanced audio tuning and customization, making it ideal for audiophiles.
  • Gigabyte AORUS X570 Master: Featuring a premium DAC and high-end audio capacitors, this motherboard delivers exceptional sound quality. It supports the AORUS Audio System, which includes customizable audio profiles and separation for a more immersive listening experience.
  • MSI MPG B550 Gaming Edge WiFi: With its Nahimic Audio software, this motherboard enhances audio playback and provides 3D sound effects, perfect for gaming and music. The high-quality audio components ensure clarity and depth in sound, making it suitable for hi-res audio enthusiasts.
  • ASRock X570 Taichi: Known for its high-quality audio capacitors and DAC, the Taichi offers a robust audio experience with support for high-resolution audio formats. Its unique design provides excellent sound isolation, minimizing interference from other components.
  • ASUS Prime Z490-A: This motherboard features high-quality audio components and supports the Realtek S1220A codec, which is capable of providing a high dynamic range and low noise. The Audio Wizard feature allows users to enhance their audio experience by adjusting settings according to their preferences.

What Specifications Should You Look for When Choosing a Motherboard?

When choosing a motherboard for high-resolution audio, several key specifications should be considered to ensure optimal performance.

  • Audio Chipset: Look for motherboards that feature high-quality audio chipsets such as Realtek ALC1220 or similar. These chipsets are designed to handle high-resolution audio signals with minimal distortion, providing a clearer and more immersive sound experience.
  • DAC (Digital-to-Analog Converter): A built-in DAC is crucial for converting digital audio signals into analog. Motherboards equipped with superior DACs can enhance audio quality, allowing for playback of high-resolution audio files without compromising fidelity.
  • Signal-to-Noise Ratio (SNR): A high SNR rating (at least 100 dB) is important for reducing unwanted noise and interference during audio playback. This specification ensures that the audio output is clean, allowing for a more accurate representation of the original sound.
  • Capacitors and Components: Look for motherboards that use high-quality capacitors and components in their audio circuits. Premium capacitors can improve audio performance by providing better frequency response and stability, which is essential for high-resolution audio.
  • Audio Ports: Ensure the motherboard has a variety of audio ports, including high-quality headphone outputs and dedicated line-out jacks. These ports allow for better connectivity with high-end audio equipment, enabling you to fully utilize the capabilities of your audio setup.
  • Compatibility with Audio Software: Check if the motherboard is compatible with software that supports high-resolution audio playback, such as ASIO or WASAPI. This compatibility ensures that you can take full advantage of your audio files and enhance your listening experience.
  • Form Factor: Choose a motherboard with a form factor that fits your case and layout needs. ATX and Micro-ATX are popular options that provide ample room for audio components and expansion slots, important for adding additional sound cards or audio interfaces.

How Do Price and Performance Correlate in Hi-Res Audio Motherboards?

The correlation between price and performance in hi-res audio motherboards is crucial for achieving high-quality audio experiences.

  • Audio Chipset Quality: The audio chipset is fundamental in determining the overall audio performance of a motherboard. Higher-end motherboards often feature premium audio chipsets, which provide better signal processing, lower distortion, and enhanced audio clarity, making them ideal for hi-res audio playback.
  • Support for High-Resolution Audio Formats: Motherboards designed for hi-res audio typically support advanced audio formats such as DSD, PCM, and high sample rates. This support allows for a more accurate and faithful reproduction of audio, which is essential for audiophiles seeking the best sound quality.
  • Capacitors and Components: The quality of capacitors and other components on the motherboard can significantly affect audio performance. High-quality capacitors are designed to reduce noise and enhance signal integrity, which is particularly important in high-resolution audio applications where clarity and detail are paramount.
  • Dedicated Audio Processing: Some motherboards come with dedicated audio processing units or software enhancements that provide additional features like surround sound virtualization or customizable audio profiles. These features can enhance the listening experience by tailoring sound to specific preferences or environments.
  • Physical Design and Isolation: The physical layout of a motherboard, including component isolation and shielding, can impact audio quality. Premium motherboards often incorporate design elements that minimize electromagnetic interference, ensuring cleaner audio signals and better performance in hi-res audio playback.
  • Price-to-Performance Ratio: The price-to-performance ratio is a key consideration when choosing the best motherboard for hi-res audio. While higher-priced options generally offer superior features and components, there are also mid-range motherboards that deliver excellent audio performance, making it possible to find great value without overspending.

How Does the Design of a Motherboard Affect Audio Quality?

The design of a motherboard can significantly influence the audio quality, especially for high-resolution audio applications.

  • Audio Chipset: The quality and capabilities of the integrated audio chipset determine the fidelity of sound processing. High-end motherboards often feature superior DACs (Digital-to-Analog Converters) that support higher sample rates and bit depths, essential for hi-res audio.
  • Power Supply Design: The audio components on a motherboard require stable power to function optimally. A well-designed power delivery system with sufficient decoupling capacitors can minimize noise and interference, leading to clearer and more accurate audio output.
  • Isolation Techniques: Effective isolation between the audio circuitry and other components can reduce electromagnetic interference (EMI). Many high-quality motherboards implement physical and circuit design strategies to isolate audio paths, enhancing the overall sound quality.
  • Audio Jacks and Connectors: The quality of audio jacks and connectors affects signal integrity. Gold-plated connectors and high-quality soldering can ensure better conductivity and reduce signal loss, which is crucial for maintaining audio quality in high-resolution formats.
  • Software Support: The motherboard’s drivers and accompanying software can optimize audio performance. Advanced audio software can provide enhancements such as equalization, surround sound processing, and support for various audio formats, which can significantly elevate the listening experience.
  • Physical Layout: The physical arrangement of components on the motherboard can impact audio quality. A well-designed layout minimizes the distance between audio components and reduces potential interference from nearby high-frequency components, leading to clearer sound reproduction.

What Impact Does PCB Design Have on Audio Signal Clarity?

  • Trace Layout: The layout of traces on a PCB can greatly influence signal integrity. Shorter, well-routed traces minimize resistance and inductance, which helps reduce noise and distortion in audio signals.
  • Ground Planes: Effective grounding techniques, such as using dedicated ground planes, help to eliminate ground loops and electromagnetic interference. This results in cleaner audio signals and improved clarity.
  • Component Placement: Strategic placement of components can prevent crosstalk and interference between audio paths. Keeping sensitive components away from noisy power supply lines enhances the overall audio performance.
  • Material Quality: The choice of PCB materials, such as the use of high-quality substrates, can affect the dielectric properties and signal loss. A better material reduces attenuation and maintains signal fidelity, which is crucial for high-resolution audio.
  • Via Design: The design of vias used to connect different layers of the PCB can introduce parasitic capacitance and inductance. Optimizing via size and placement can mitigate these effects, ensuring the audio signal remains clear and strong.
  • Decoupling Capacitors: Proper placement and sizing of decoupling capacitors can filter out noise from the power supply, providing a stable voltage for audio components. This directly contributes to better sound quality by minimizing power-related distortions.
  • Impedance Matching: Ensuring that the impedance of traces matches the components can reduce signal reflections and improve transmission efficiency. This is essential for maintaining audio clarity, especially in high-resolution audio applications.

Why is Shielding Important for Audio Integrity in Motherboards?

Shielding is important for audio integrity in motherboards because it minimizes electromagnetic interference (EMI) and radio frequency interference (RFI), which can degrade audio quality and introduce noise into the audio signal.

According to a study published in the Journal of the Audio Engineering Society, effective shielding techniques can significantly reduce the amount of unwanted noise that can affect audio components, particularly in high-resolution audio applications where fidelity is paramount. The research indicates that motherboards designed with proper shielding and layout can provide a cleaner audio path, resulting in clearer and more accurate sound reproduction.

The underlying mechanism involves the physical properties of electromagnetic waves and how they interact with electronic components. When EMI and RFI are present, they can couple into the audio signal path, creating distortions that are particularly noticeable in high-resolution audio formats. Shielding materials, such as copper or aluminum, act as barriers that absorb and deflect these unwanted signals, allowing the audio components to operate more effectively. Additionally, the layout of the motherboard plays a crucial role—components that are placed too close together or in a poorly designed configuration can exacerbate interference issues, further impacting audio integrity.

Furthermore, the power supply design and the quality of the components used in the audio path are also critical factors. High-quality capacitors and resistors, combined with a well-shielded environment, help ensure that the audio signals remain pure and free from distortion. High-resolution audio demands both precision and clarity, making the implementation of shielding and careful component selection vital for achieving the best possible performance in motherboards aimed at audiophiles and audio professionals.

What Common Audio Issues Do Users Face with Their Motherboards?

Driver compatibility problems arise when users upgrade their operating systems or switch to different audio software, leading to mismatched drivers that can hinder audio performance. Regular updates from the motherboard manufacturer can help alleviate these issues.

Latency issues are particularly troublesome for musicians and gamers, who require real-time audio feedback. High latency can be caused by inefficient drivers or hardware limitations, necessitating the use of specialized audio interfaces for optimal performance.

Interference from other components often occurs in crowded systems where electromagnetic interference can affect audio signals, leading to unwanted noise. A motherboard designed with better isolation and shielding can help mitigate this problem.

Lack of support for high-resolution audio formats can leave users unable to enjoy the full capabilities of their audio devices, especially when streaming high-res content. Users should verify the specifications of the motherboard to ensure compatibility with formats like DSD or high sample rates.

Insufficient audio ports can limit flexibility in audio setups, making it difficult to connect various devices without the need for additional adapters or hubs. A well-designed motherboard for audio should have multiple outputs and inputs to accommodate different audio needs.

What Problems Are Frequently Reported by Users?

Users frequently report several problems when searching for the best motherboard for hi-res audio:

  • Compatibility Issues: Many users find that certain motherboards do not support their existing audio hardware, leading to a frustrating setup process.
  • Driver Problems: Users often encounter difficulties with outdated or incompatible audio drivers that can severely impact audio performance and quality.
  • Audio Quality Variability: There are reports of inconsistent audio quality across different motherboards, with some not delivering the expected high-resolution sound.
  • Limited Audio Features: Some motherboards lack advanced audio features like high-quality capacitors and dedicated sound chips, which can disappoint audiophiles.
  • Thermal Issues: High-performance motherboards may experience overheating during extensive audio processing, affecting stability and sound output.

Compatibility issues arise when users try to integrate their audio interfaces or components with a motherboard that lacks the necessary slots or technologies, leading to potential performance bottlenecks or complete incompatibility.

Driver problems are common as manufacturers may not always release timely updates, forcing users to rely on generic drivers that do not optimize the audio capabilities of the motherboard, resulting in subpar audio experiences.

Audio quality variability can be a significant concern, as some motherboards may not utilize high-quality components or amplifiers, leading to a noticeable difference in sound fidelity, especially in high-resolution formats.

Limited audio features can hinder a user’s ability to achieve the best possible sound, as many motherboards may skimp on premium audio components that enhance sound clarity, depth, and richness.

Thermal issues can arise in high-performance setups, where heat generated during audio rendering can lead to throttling, causing dropouts or distortions in sound quality, which can be particularly detrimental during critical listening sessions.

How Can Users Troubleshoot Hi-Res Audio Problems Effectively?

Users can troubleshoot hi-res audio problems effectively by following these steps:

  • Check Hardware Compatibility: Ensure that both your motherboard and audio devices support high-resolution audio formats.
  • Update Audio Drivers: Regularly updating your audio drivers can resolve compatibility issues and improve performance.
  • Inspect Audio Settings: Verify that your audio settings in the operating system and any playback software are configured for high-resolution output.
  • Use Quality Cables: High-quality audio cables can reduce interference and maintain signal integrity for hi-res audio playback.
  • Test Different Playback Software: Sometimes, the software used for playback can impact audio quality; testing various options may yield better results.
  • Disable Audio Enhancements: Some audio enhancements can distort high-resolution audio signals, so disabling them may help restore sound quality.

Check Hardware Compatibility: Ensure that both your motherboard and audio devices support high-resolution audio formats. Many motherboards are specifically designed with advanced audio chipsets that can handle high-res audio, so confirming specifications is crucial for optimal performance.

Update Audio Drivers: Regularly updating your audio drivers can resolve compatibility issues and improve performance. Manufacturers frequently release updates that enhance audio fidelity and fix bugs, so keeping these drivers current is essential for maintaining high-quality sound.

Inspect Audio Settings: Verify that your audio settings in the operating system and any playback software are configured for high-resolution output. This includes selecting the correct sample rate and bit depth, which must match the specifications of your hi-res audio files for the best listening experience.

Use Quality Cables: High-quality audio cables can reduce interference and maintain signal integrity for hi-res audio playback. Investing in good cables ensures that the audio signal remains clear and free from distortion, which is especially important for high-resolution formats.

Test Different Playback Software: Sometimes, the software used for playback can impact audio quality; testing various options may yield better results. Some applications are optimized for high-resolution audio playback, while others may not fully support the formats, leading to potential issues.

Disable Audio Enhancements: Some audio enhancements can distort high-resolution audio signals, so disabling them may help restore sound quality. Operating systems often come with built-in audio enhancements that can interfere with the pure sound, and turning them off can lead to a more accurate audio reproduction.

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