Mp3 Sound Booster

Boosting MP3 Sound Quality and Loudness

Mp3 Sound Booster
Mp3 Sound Booster
Mp3 Sound Booster
Mp3 Sound Booster

Mp3 Sound Booster

In today’s digital age, where music and audio are an integral part of our lives, it’s crucial to ensure that our MP3 files sound their best. Whether you’re a casual listener or an audiophile seeking perfection, this comprehensive guide is here to help you master the art of enhancing MP3 sound quality. I’m an audio expert, and I’ll take you on a journey through various techniques and strategies to elevate your MP3 listening experience.

The Importance of Quality MP3 Sound

Before we dive into the nitty-gritty details of improving MP3 sound, let’s first understand why it matters. MP3 is one of the most popular audio formats, known for its compatibility and convenience. However, the sound quality of MP3 files can vary widely, depending on factors like compression, source material, and encoding settings.

Factors Affecting MP3 Sound Quality

To achieve the best MP3 sound quality, you need to consider several key factors:

Bitrate

The bitrate determines the amount of data used to represent audio. Higher bitrates generally result in better sound quality but larger file sizes.

Compression

MP3 files are compressed to reduce their size. Understanding the balance between compression and quality is essential.

Source Material

The quality of the original audio source greatly influences the final MP3 sound. Starting with high-quality recordings is crucial.

Encoding Settings

Adjusting parameters during encoding, such as sample rate and stereo mode, can impact sound quality significantly.

Techniques for Enhancing MP3 Sound Quality

Now that we’ve established the importance of quality MP3 sound, let’s explore various techniques and strategies to enhance it. Whether you’re dealing with older low-bitrate MP3s or you want to optimize your new downloads, these methods will help you achieve the best possible sound.

1. Bitrate Selection

The choice of bitrate plays a fundamental role in MP3 sound quality. Higher bitrates, such as 320 kbps, preserve more audio details, resulting in clearer and more immersive sound. However, they also lead to larger file sizes, so you should strike a balance based on your storage capacity and listening preferences.

2. Source Material Enhancement

Improving MP3 sound quality starts with the source material. If you have control over the recording process, use high-quality microphones, eliminate background noise, and ensure proper mixing and mastering techniques are employed. Starting with a pristine source will yield better MP3s.

3. Proper Encoding Settings

When converting audio to MP3 format, it’s crucial to choose the right encoding settings. Opt for a higher sample rate (e.g., 44.1 kHz or 48 kHz) and stereo mode for richer sound. Experiment with different settings to find the sweet spot for your audio.

4. Noise Reduction

If your MP3s suffer from background noise or artifacts, consider using noise reduction software. This can help eliminate unwanted hisses, clicks, and pops, resulting in a cleaner listening experience.

5. Equalization (EQ)

Using an equalizer allows you to adjust the balance of frequencies in your MP3s. You can enhance bass, boost treble, or make other custom adjustments to tailor the sound to your preferences.

6. Volume Normalization

Normalization ensures consistent volume levels across your MP3 library. This prevents sudden volume jumps between tracks, providing a more enjoyable listening experience.

7. High-Quality Playback Devices

Investing in high-quality headphones or speakers can make a significant difference in how you perceive MP3 sound. Look for devices with accurate sound reproduction and comfortable fit for extended listening sessions.

8. Room Acoustics

If you primarily listen to MP3s in a room, consider optimizing the acoustics. Simple changes like adding acoustic panels or rearranging furniture can reduce reflections and enhance sound quality.

9. Lossless Formats

Consider archiving your favorite music in lossless formats like FLAC or WAV for the utmost audio fidelity. While these formats result in larger file sizes, they preserve audio quality without compression.

10. Regular Maintenance

Maintaining your MP3 library is essential. Periodically check for corrupted files, update metadata, and back up your collection to prevent data loss.

Final Words

Enhancing the sound quality of your MP3 files is a rewarding endeavor for any music lover. By understanding the factors influencing sound quality and employing the right techniques, you can elevate your MP3 listening experience to new heights. Whether you’re a casual listener or an audiophile, these strategies will help you make the most of your digital music collection. Remember, the quest for perfect sound is a journey, so enjoy every moment of it. Happy listening!

Bit Depth in Audio

Bit Depth in Audio

Bit Depth in Audio
Bit Depth in Audio
Bit Depth in Audio
Bit Depth in Audio

Audio Bit Depth Explained

Audio bit depth refers to the number of bits used to represent the amplitude of an audio signal at each sample point. In simpler terms, it determines the dynamic range of digital audio. A higher bit depth allows for a more detailed representation of sound, capturing subtle nuances and minimizing quantization noise.
Imagine bit depth as a measurement of how finely audio is divided into individual steps. For instance, a 16-bit audio recording has 65,536 possible amplitude levels, while a 24-bit recording offers a staggering 16,777,216 levels. This increased granularity results in smoother, more accurate sound reproduction.

Understanding Bit Depth in Audio

To grasp the significance of bit depth, consider it as the shades of color in a painting. A higher bit depth provides a broader palette of colors, allowing for a more accurate depiction of the original image. Similarly, in audio, a greater bit depth captures a wider range of volume levels, preserving the subtleties of a musical performance or the nuances of a voice.
In practical terms, when you listen to music or a podcast, a higher bit depth ensures that you can hear the softest whispers and the loudest drum hits without distortion or loss of detail. It’s like having a more precise lens to view the sonic landscape.

Audio Resolution and Bit Depth

Bit depth and audio resolution are closely linked. Audio resolution refers to the level of detail and accuracy in an audio recording. Bit depth plays a pivotal role in determining this resolution. Think of it as the difference between watching a video in standard definition versus high definition. A higher bit depth offers a more lifelike and faithful representation of sound.
When recording or listening to music, you’ll often encounter terms like “16-bit” or “24-bit.” These numbers indicate the bit depth of the audio, with 24-bit audio being the gold standard for high-quality recordings. It’s akin to having a sharper, more detailed image in photography.

Now, let’s explore more facets of bit depth in audio.

Importance of Bit Depth in Sound

Bit depth is paramount in the world of sound because it directly impacts audio fidelity and the ability to reproduce music or voice accurately. It ensures that every subtle nuance, from the softest piano notes to the powerful guitar riffs, is faithfully captured and played back with precision.
Consider this: when recording a classical piano performance, the pianist’s delicate touch on the keys is as vital as the thunderous crescendos. A higher bit depth preserves the intricate dynamics, making you feel as if you are sitting in the concert hall, immersed in the music.

Bit depth is the foundation of audio quality, and understanding its role can help you appreciate the importance of using higher bit depths in audio production and playback.

How Bit Depth Affects Audio Quality

The impact of bit depth on audio quality is akin to the role of paint quality in a masterpiece. Just as a skilled artist requires high-quality pigments for a vivid painting, audio engineers rely on a greater bit depth for lifelike and rich audio recordings.
A lower bit depth might result in noticeable “stepping” or quantization noise, especially in quiet passages of a recording. This noise can be distracting and diminish the overall listening experience. On the other hand, a higher bit depth provides a smooth, natural curve to the audio waveform, minimizing these artifacts and delivering pristine sound.

Consider your favorite music track—the artist’s emotions, the resonance of instruments, and the atmosphere of the recording venue. All these subtleties are better preserved and conveyed through higher bit depth, elevating your listening experience to a new level.

Bit Depth in Digital Audio

In the digital realm, bit depth plays a pivotal role in the accuracy of audio representation. Think of it as pixels in a high-resolution photograph; more pixels mean finer details. Similarly, a higher bit depth translates to a more accurate depiction of sound.
In applications like digital audio workstations (DAWs) and music players, you often have the option to choose between different bit depths for your audio projects. Opting for a higher bit depth can lead to more professional-sounding results, particularly in the realms of music production, film scoring, and sound design.

Bit Depth vs. Sample Rate

While bit depth and sample rate are both critical aspects of digital audio, they serve different purposes. Bit depth determines the accuracy of amplitude representation, while sample rate governs how often the audio waveform is sampled per second.
Picture bit depth as the color depth in a photograph and sample rate as the frames per second in a video. A higher bit depth allows for greater tonal accuracy, while a higher sample rate captures more audio snapshots per second, preserving high-frequency content.

In many scenarios, a balanced approach between bit depth and sample rate is essential to achieve optimal audio quality. The synergy between these two factors ensures that audio recordings faithfully capture the richness and subtleties of the original source.

Bit Depth in Music Production

For music producers, bit depth is a critical consideration when working on audio projects. It influences the quality of sound recordings and the ability to manipulate audio during the production process.
When mixing and mastering music, a higher bit depth provides ample headroom for processing audio without introducing artifacts or degrading quality. This allows producers to apply effects, equalization, and compression with greater precision.

Additionally, when releasing music, opting for a higher bit depth ensures that your audience experiences the full depth and nuance of your compositions, whether they’re listening through high-end headphones or a powerful sound system.

16-Bit vs. 24-Bit Audio

The choice between 16-bit and 24-bit audio often arises when considering audio quality and storage requirements. A 16-bit audio file occupies less space compared to a 24-bit file, but it also has limitations in capturing subtle audio details.
16-bit audio is akin to a compact camera with limited resolution, suitable for casual snapshots. In contrast, 24-bit audio offers the quality of a professional DSLR camera, capturing a broader dynamic range and preserving the finer nuances of sound.

When deciding between the two, it’s essential to consider the specific use case. For audiophiles, professional audio production, and high-end sound systems, 24-bit audio is the preferred choice for its ability to deliver an immersive and faithful listening experience.

Bit Depth for Audio Recording

In the realm of audio recording, selecting the appropriate bit depth is a pivotal decision. It directly affects the quality and flexibility of the recorded material, whether you’re tracking vocals, instruments, or ambient sounds.
Recording at a higher bit depth, such as 24-bit, provides audio engineers with a safety net during the recording process. It allows them to capture a wide dynamic range without the risk of clipping or distortion. This is particularly valuable when dealing with unpredictable elements in live recordings or capturing the subtleties of acoustic instruments.

In essence, bit depth choice during audio recording is like choosing the canvas size for a painting. A larger canvas provides more room for creativity and detail, and a higher bit depth offers greater sonic canvas for audio professionals.

Final Words

In the realm of audio, bit depth serves as the bedrock of quality and fidelity. It determines how faithfully sound is captured, preserved, and reproduced. Understanding the importance of bit depth allows you to appreciate the nuances in your favorite music, the clarity in podcasts, and the immersive soundscapes in movies.
Whether you’re an aspiring musician, an audio engineer, or simply a passionate listener, recognizing the role of bit depth in audio enriches your experience. It’s the difference between seeing the world in black and white and experiencing it in full color.

So, the next time you enjoy your favorite song or immerse yourself in a cinematic adventure, remember that bit depth is the silent hero behind the scenes, ensuring that every sonic detail reaches your ears with precision and clarity.

What Is Audio Sampling Rate: A Comprehensive Explanation

What Is Audio Sampling Rate: A Comprehensive Explanation

Sample Rate
Sample Rate

Introduction

Sample Rate
Sample Rate

Audio sampling rate is a fundamental concept in digital audio that refers to the number of samples per second used to represent an analog audio signal in digital form. In this article, we’ll explore the technical details of audio sampling rate, its importance in digital audio, and its impact on audio quality and file size.

Sampling Rate Fundamentals

The concept of audio sampling rate is based on the Nyquist-Shannon sampling theorem, which states that in order to accurately represent an analog signal in digital form, the sampling rate must be at least twice the highest frequency present in the signal. This means that a signal with a highest frequency of 20kHz (the upper limit of human hearing) must be sampled at a rate of at least 40kHz in order to be accurately represented.

Sampling rate is measured in Hertz (Hz), which refers to the number of samples per second. Common sampling rates in digital audio range from 44.1kHz (used in CDs) to 192kHz (used in some high-resolution audio formats).

Sample Rate Conversion

In some cases, it may be necessary to convert audio from one sampling rate to another. Sample rate conversion involves resampling the audio data to a different rate, which can be done using digital signal processing techniques. However, sample rate conversion can introduce artifacts and reduce audio quality, especially when downsampling from a higher rate to a lower rate.

There are various reasons why sample rate conversion may be necessary, such as when mixing audio tracks with different sampling rates, or when preparing audio for distribution on different platforms with varying requirements.

Audio Quality and Sampling Rate

The sampling rate has a significant impact on audio quality, with higher sampling rates generally resulting in better fidelity and more accurate representation of the original signal. However, the benefits of higher sampling rates are limited by the limitations of human hearing and the practical limitations of digital audio technology.

While there is debate about the benefits of “high-resolution audio” formats with sampling rates above 44.1kHz, it is generally accepted that sampling rates above 96kHz provide little additional benefit in terms of audio quality.

Bit Depth and Sampling Rate

The bit depth of an audio sample refers to the number of bits used to represent the amplitude of the signal at each sample point. Higher bit depths allow for more precise representation of the signal, but also result in larger file sizes. The bit depth and sampling rate are related, as increasing the bit depth requires more data to be stored for each sample.

There is a trade-off between sampling rate and bit depth, as higher sampling rates require more data to be stored per second, which can limit the maximum bit depth that can be used without exceeding practical file size limits. However, this trade-off can be mitigated by using efficient audio compression techniques.

Sample Rate in Practice

Common sampling rates in digital audio include 44.1kHz (used in CDs), 48kHz (used in digital video), 88.2kHz, 96kHz, 176.4kHz, and 192kHz. Streaming services such as Spotify and Apple Music typically use lower sampling rates for their audio streams, with 44.1kHz being a common choice.

The Nyquist Theorem, named after the Swedish-American physicist Harry Nyquist, states that the sampling rate should be at least twice the highest frequency component in the signal being sampled. This is why the standard CD quality sampling rate is 44.1 kHz, which is just above the upper limit of human hearing.

However, it is important to note that there are higher sampling rates available, such as 48 kHz, 96 kHz, and even 192 kHz. These higher sampling rates can provide more detail and accuracy in the digital representation of the analog signal. However, they also require more storage space and processing power.

Another important factor to consider is the bit depth, which is the number of bits used to represent each sample. The more bits used, the more accurate and detailed the representation of the analog signal. CD quality uses a bit depth of 16 bits, but higher bit depths such as 24 bits are also available.

It is worth noting that some argue that higher sampling rates and bit depths may not necessarily result in audible improvements in sound quality, especially when considering the limitations of human hearing. Additionally, some argue that the increased storage and processing requirements may not be worth the potential improvements.

In conclusion, the sampling rate is a crucial component in the digital representation of analog audio signals. A higher sampling rate can provide more detail and accuracy in the digital representation, but also requires more storage and processing power. The Nyquist Theorem provides a guideline for choosing the appropriate sampling rate based on the highest frequency component in the signal. Additionally, the bit depth is another factor to consider in the accuracy and detail of the digital representation. While higher sampling rates and bit depths are available, the potential improvements in sound quality must be balanced against the increased storage and processing requirements.

How to Convert MP3 to AAC: Exploring the Technicalities of the Advanced Audio Codec

How to Convert MP3 to AAC: Exploring the Technicalities of the Advanced

MP3 to AAC
MP3 to AAC

Audio Codec

 

MP3 to AAC
MP3 to AAC

 

The History of AAC

Advanced Audio Coding (AAC) is a widely used audio codec, designed to be the successor of the MP3 format. It was first introduced by the Moving Picture Experts Group (MPEG) as part of MPEG-2 and later extended as MPEG-4 Part 3. Since its release in 1997, AAC has been recognized for its superior audio quality and compression efficiency.

The development of AAC began in 1988 as part of an international collaboration called the Audio Coding Joint Technical Committee (JTC), consisting of experts from several organizations, including AT&T, Fraunhofer Society, and Sony. The goal was to create an audio codec that could deliver high-quality audio while using less bandwidth and storage space than MP3, which was the dominant audio format at the time.

The result of this collaboration was the creation of the MPEG-2 AAC standard in 1994, which was later extended as MPEG-4 Part 3 to include additional features. Today, AAC is supported by a wide range of devices and platforms, including Apple’s iTunes, iPod, and iPhone, as well as Android devices and various media players.

How AAC Works

AAC is a lossy compression codec, meaning that it achieves high compression rates by discarding some of the audio data. However, unlike MP3, which relies on a perceptual coding algorithm to remove irrelevant audio data, AAC uses a more advanced coding algorithm that takes into account the psychoacoustic properties of human hearing.

AAC achieves this by dividing the audio signal into different frequency bands and applying different quantization noise to each band, based on the sensitivity of human hearing at different frequencies. The result is a more efficient use of the available data rate, allowing AAC to deliver higher audio quality at the same bit rate as MP3.

AAC is also a format container, meaning that it can contain audio data encoded in various formats, including stereo, 5.1 surround sound, and even lossless formats like Apple Lossless and FLAC. This flexibility makes AAC a versatile audio format that can be used for a wide range of applications, from music streaming to professional audio production.

Converting MP3 to AAC Using Mp4Gain

Mp4Gain is a versatile audio and video conversion tool that supports a wide range of formats, including MP3 and AAC. With Mp4Gain, you can convert your MP3 files to AAC quickly and easily, without losing any audio quality.

What is a container format?

A container format is a type of file format that can store different types of data in a single file. In the case of audio and video files, a container format is used to package the different types of data that make up the file, including the video and audio streams, metadata, and any subtitles or closed captions.

The benefits of using AAC

AAC has several benefits over other audio formats. Firstly, it offers improved sound quality at lower bitrates than MP3, which means that files can be compressed to a smaller size without sacrificing quality. This is particularly important for mobile devices with limited storage capacity.

Secondly, AAC offers better performance at high bitrates, making it a popular choice for professionals who need high-quality audio, such as musicians, producers, and sound engineers.

Another benefit of using AAC is that it supports up to 48 channels of audio, compared to MP3’s limit of 2 channels. This makes AAC a popular choice for high-end surround sound systems and immersive audio experiences.

Finally, AAC is widely supported by a range of devices and software, including Apple devices, Android devices, and popular media players like VLC and QuickTime.

How to convert MP3 to AAC with Mp4Gain

Now that you understand the benefits of using AAC, you may want to convert your MP3 files to AAC to take advantage of these benefits. Fortunately, Mp4Gain makes it easy to do this.

To convert MP3 to AAC with Mp4Gain, follow these simple steps:

    1. Open Mp4Gain and select the “Audio Converter” option from the main menu.
    2. Click the “Add Files” button and select the MP3 files you want to convert to AAC.
    3. Select “AAC” as the output format from the list of available formats.
    4. Choose the desired bitrate, sampling rate, and channel configuration for the output file. You can also choose to normalize the volume if you want.
  1. Click the “Convert” button to start the conversion process.

Once the conversion process is complete, you will have high-quality AAC files that can be played on a wide range of devices and media players.

Conclusion

AAC is a high-quality audio format that offers several benefits over other formats, including improved sound quality at lower bitrates, better performance at high bitrates, support for multiple channels of audio, and wide compatibility with devices and software.

If you want to take advantage of these benefits, Mp4Gain makes it easy to convert your MP3 files to AAC. With its simple interface and powerful conversion capabilities, Mp4Gain is the perfect tool for anyone who wants to create high-quality, versatile audio files.

What does the quality of an mp3 depend on? high resolution mp3

What does the quality of an mp3 depend on? high resolution mp3

high resolution mp3
high resolution mp3

Factors influencing hearing quality

high resolution mp3
high resolution mp3

High quality

Lately, very high quality audios have been promoted… are they really convenient?

We could say that if we strictly base ourselves on technical aspects, they could be considered of higher quality.

For example, they get to use sample rates of more than double the highest currently used.

The same happens with the bit rate, they use numbers that until now were not used at all.

Pewro first we must ask ourselves if the equipment we use to read them (the computer, a cell phone, an mp4 player) are capable of handling these qualities and if the speakers or headphones are also enabled and built to do the same.

Otherwise we will end up paying a lot for this super audio and effectively get the same.

It is worth additionally thinking about whether our ears could differentiate between one and the other.

To what extent our ear perceives the difference between 4800 and 96000 as a sample rate.

What we must avoid is falling victim to the “numbers”, which will show us that in theory they will sound better, but avoid touching reality – for example the human ear or the quality of our speakers – and therefore the theory ends up being misleading.

Some details of the sample rate

For many years it was thought that the sample rate or sampling frequency did not decisively influence the final quality of the digital audio; There are currently several engineers who record in 44.1K or 48K without really knowing why they do it. With the advent of new and better computers, interfaces, ports and protocols, 88.2K, 96K and up to 192K entered the discussion table on the best sample rate to use. It has always been the subject of discussion between engineers and audiophiles; some argued that they did hear the difference between different sample rates and others that did not, and the topic has been subjected to millions of A / B tests with very high quality equipment, causing all kinds of opinions found and uncompromising, fights and friendships of years broken

samplerate

While this is a basic issue of digital audio, it is always surrounded by a halo of mystery, mysticism and magic (like every sound theme), which is well worth clarifying.

 What is the sample rate?

This topic, although it occurs in the first or second class of digital audio, is not always understood correctly. In scholastic thinking, sample rate is defined as the amount of audio samples transported and taken per second. Since this is a unit of measurement over a second and with events that occur cyclically, the Hertz (1 / Frequency) is used as a unit. Obviously we cannot talk about this subject without referring to the Nyquist sampling theorem, which was tested by Shannon almost twenty years after its publication and in which it is stated that for a signal of limited bandwidth (B) (for example, a vibraphone reaches 14.917Hz), the sampling frequency must be twice its bandwidth (2 * B). Then, taking the previous example, we can say that: 2 * B → 2 * 14.917Hz → The sampling frequency for 14.917Hz should be 29.834Hz. This would be equivalent to 29,834 samples per second (1/29, 834) to be able to regenerate the signal of a vibraphone without error. Hence, it is taken that the highest frequency that human beings listen to is 20kHz and if we apply Nyquist it should be 40kHz, but it takes 44.1kHz to meet the demanding ears and for a matter of multiples.

44.1K or 48K to 88.2K or 96K, the correct division

At the dawn of the digital audio era, Nyquist was used to use the sampling resolution of 44.1K, used at that time audio CD format that played at 16bit / 44.1kHz. With the advent of DVD and Blu Ray as video and audio formats, resolutions such as 24Bits / 48K or 24Bits / 96kHz began to be used. Although for many years there were recordings that were made in 24Bits / 88.2kHz or 24Bits / 96kHz, at a certain time of mastering, before sending it to the disk duplicator, the audio suffered a mutilation that reduced it to 16Bits / 44.1kHz as It was ordered by the CD format. This process should be carried out with equipment specially designed for this function and in stages so that the audio did not suffer a very noticeable cut and the bad conversion was evidenced. Although the old and dear Dither was applied since then to compensate for this process (something like “grain” in the cinema. Watch a film without “grain” and it will look like HD even though it was filmed in 1980 on tape and goes to notice until the makeup of the actor and the assembly of the special effects, something otherwise disagreeable).

Generally, to prevent the audio from mutilating or applying several conversions that degrade it, it was decided at what resolution to record before pressing the REC button (we will not mention those that come down directly with your DAW from 24Bits / 96kHz to 16Bits / 44.1kHz in one step to export the audio … there is a place reserved especially for them in hell). If the audio was going to end on CD, a 88.2kHz sample rate was generally applied, since at the time of mastering, with the symmetric re-sampling at “half”, it was 44.1kHz.

Sounds better?

The subjective point of this is that we expect recordings to “sound” better at a higher sample rate. The reality is that if we record in high sample rates, with very good sampling, our sound will not “sound better”, but will be more detailed. Obviously, if our sound source is bad, our microphones and preamps too and so on, no matter how much we record at 192K, the result will not be the best. Now, if we use a good sound source, good audio chain and a good converter, everything will be obviously good. But don’t confuse; We are talking about detail here, not if it will sound more “warm,” “fat,” or “full-bodied.” This translates into a more homogeneous capture of the entire frequency spectrum, both audible and non-audible.

sample rate

CPU, disk and plug-ins

Obviously, having a higher sample rate means that our processor must do more calculations, since it has to process more samples (or audio samples). Depending on the amount of plug-ins that we use before a multitrack in high resolution, our use of both DSP and native processors (the computer equipment), will increase significantly, making it very difficult or impossible to work. There are several options to overcome this problem, from buying more processor or DSP, using fewer processes or external equipment (hybrid mixing), to borrowing a machine. The only option that should never go through our minds is to lower the resolution of the audio, process and upload it again. The serious problem that comes with this is a cut in the audio, which is not reversible and what is limited and trimmed, so it stays.

Another aspect to consider is that the storage speed must be in accordance with the audio resolution we use. Suppose we want to record at 24Bits / 96kHz; The transfer rate would be: 2304kbits / second. Now, calculating the amount of tracks, we should use a disc that really reaches us in speed for this transfer rate (topic to be developed in another article).

In these times, storage size is not a problem, but speed is. Having three terabyte disk drives are generally used for 5400 rpm dish disks; the least that should be used if they are not solid state disks, would be 7200 rpm plate disc drives. Obviously, with 5400 rpm discs, we would have a third reduction in the final transfer speed and reading and writing possibilities called “iops” (in out per second or in and out per second), which have a certain number, depending on the disk, capacity and arrangement of the same (RAID) which, depending on how much we demand in the resolution of the audio, amount of channels, processing (plug-ins) and expected latency (if we record with real-time monitoring), we will surely face some problems like “clicks” and / or “pops” in our audio.

Clock

The importance of using a good clock (or clock) and being in sync with all the elements that belong to our audio chain is vital. Recall that a few articles ago we have exposed this topic in detail, but it should be reinforced in this article. Several ADC and DAC converters of economic interfaces do not perform sampling and quantization in the correct or expected manner; External clocks or protocols such as Dante help the synchronization between several devices to be correct and improve the audio quality. Much of the final quality of our work in audio is in this part of the process and it is important that if we take our work and passion seriously, we begin to pay attention to these kinds of details that are generally overlooked.