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Bitcrusher
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A Bitcrusher is an audio effect that produces distortion by reducing the resolution or bandwidth of digital audio data. The resulting quantized noise may produce a "harsh" or a "filtered" sound impression, depending on whether or not it is interpolated.

Methods

[edit]

A typical bitcrusher uses two methods to reduce audio fidelity: sample rate reduction and resolution reduction.

Sample rate reduction

[edit]
Sample rate reduction
Adjusting a bitcrusher by varying only the sample rate
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Digital audio is composed of a rapid series of numeric samples that encode the changing amplitude of an audio waveform. To accurately represent a wideband waveform of substantial duration, digital audio requires a large number of samples at a high sample rate. The higher the rate, the more accurate the waveform; a lower rate requires the source analog signal to be low-pass filtered to limit the maximum frequency component in the signal, or else high-frequency components of the signal will be aliased. Specifically, the frequency of sampling (a.k.a. the sample rate) must be at least twice the maximum frequency component in the signal; this maximum signal frequency of one-half the sampling frequency is called the Nyquist limit.

Though it is a common misconception that the sample rate affects the "smoothness" of the digitally represented waveform, this is not true; sampling theory guarantees that up to the maximum signal frequency supported by the sample rate (i.e. the Nyquist limit), the digital (discrete) signal will exactly represent the analog (continuous-wave) source, except for the distortion of quantization noise resulting from the finite precision of the individual samples. The original signal can be exactly reconstructed simply by passing the low-pass discrete signal through an ideal low-pass filter (with a perfect vertical cutoff profile). However, as an ideal filter is impossible to build, a real filter, with a gradual transition between the passband and the stopband, must be used, with the consequence that it is impossible to accurately record all frequencies right up to the Nyquist limit for a given sample rate. The solution is to increase the sample rate by an amount that accommodates the transition bands of the filters used both for sampling and for continuous-wave reconstruction; this is why, for example, Compact Discs use a sampling rate of 44.1 kHz to record audio that seldom exceeds 20 kHz, even though the Nyquist limit for this sample rate is 22.05 kHz. Another consideration is that for perfect reconstruction, the samples should be rendered as ideal impulses of infinitesimal duration, but all real hardware generates rectangular pulses for the samples; some lower-quality digital-to-analog conversion devices use step-wave conversion, which essentially outputs the samples as rectangular pulses that have a duration equal to the sampling period. In this case, too, an increase in the sample rate can reduce and compensate for the resultant distortion. Even so, it cannot be overemphasized that, regardless of its motivation, an extra margin added to the sampling frequency does not make the reconstructed waveform smoother, it merely prevents aliasing of the frequencies in the transition band to lower frequencies, which would distort the signal nonlinearly.

DAWs today typically use 44.1 kHz or higher sample rates. Early digital equipment used much lower sample rates to conserve memory for stored audio. A Speak & Spell from 1979, for instance, used an 8 kHz sample rate.

Sample rate reduction (also called down-sampling) intentionally reduces the sample rate to degrade the quality of the audio. As the sample rate is reduced, high frequencies are aliased or, if the digital signal is first low-pass filtered, they are lost. If a primitive step-wave DAC is used, or if the DAC filter cutoff frequency is not adjustable to track with the sample rate, but instead is fixed at half the Nyquist frequency for the maximum supported sample rate, then waveforms also become more "coarse" sounding. At extreme reductions, the waveform becomes metallic sounding as a result of severe aliasing and perhaps nonlinear distortion from poorly tuned digital-to-analog conversion. (Note that all of these effects are avoidable if the signal is low-pass filtered before being downsampled and if the DAC parameters for playback are proper to the reduced sample rate; then the waveform sounds band-limited, with a quality comparable to a telephone, an AM radio with clear reception, or a magnetic tape recorder at a slow tape speed.)

Resolution reduction

[edit]
Resolution reduction
Adjusting a bitcrusher by varying only the bit depth
Problems playing this file? See media help.

Samples in digital audio are recorded as integers or floating-point numbers stored in digital memory. Those numbers are encoded using a series of on and off memory bits. The larger the number of bits, the more accurately a sample encodes the instantaneous volume level of a sampled audio waveform. DAWs today typically use 32-bit floating-point numbers, because they are more suitable for successive layered processing and mixing, but the final master output usually consists of 16-bit or 24-bit integer samples. Early digital audio gear and video games used 8-bit integer samples or less. Roland's classic TR-909 drum machine used 6-bit integer samples. The number of bits used in each sample directly affects the signal-to-noise ratio and dynamic range of the digital signal, specifically by determining the amplitude of a kind of noise called quantization noise that is similar to low-pass-filtered white noise.

Resolution reduction intentionally reduces the number of bits used for audio samples. As the bit depth goes down, waveforms become more noisy and subtle volume variations are lost, reducing dynamic range at the low end. At extreme bit reduction, waveforms are reduced to clicks and buzzes (square waves) as a waveform jumps abruptly from low to high and back again without intervening values, with many lower peaks flattened out to zero amplitude.

Principal controls

[edit]

Bitcrusher effects usually have at least two controls: One reduces the sample rate, while the other reduces the resolution.

The knob or slider for resolution reduction (a.k.a. "bit depth", "depth", or "bits") usually adjusts from 32 bits down to 1 bit.

LossyWAV software by David Robinson and Nick Currie calculates the minimum bit depth to represent each segment of a PCM waveform without audible distortion. Though it is intended as a preprocessor for reducing bit rates in audio compression, pushing the quality setting lower produces bitcrush distortion.[1]

The control for sample rate reduction (a.k.a. "downsampling" or "averaging") is sometimes shown in Hz for a new sample rate, or as a reduction factor. Sample rate reduction is sometimes shown instead as the number of consecutive samples to average together to create a new sample. A value of 20 reduces the sample rate to 1/20 of its original rate.

References

[edit]
Revisions and contributorsEdit on WikipediaRead on Wikipedia

Bitcrusher

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from Grokipedia
A bitcrusher is an audio effect that intentionally degrades the quality of a signal by reducing its bit depth and/or sample rate, introducing quantization noise, , and harmonic distortion to produce a gritty, lo-fi sound often used for creative texture in music production. This effect emulates the limitations of early hardware, such as low-resolution sampling, and has become a staple in workstations (DAWs) for adding artificial or extreme distortions. Bitcrushing emerged in the late alongside advancements in (DSP), gaining prominence in the as affordable computer technology enabled precise manipulation of audio in DAWs. Initially rooted in the technical constraints of early —where limited bit depths (e.g., 8-bit or 12-bit) and sample rates created inherent artifacts—it evolved from a necessity into a deliberate artistic tool, particularly in electronic music genres like IDM, , and lo-fi hip-hop. By the , software implementations such as Emagic's Bitcrusher in Logic Audio (introduced around 1993) formalized the effect, combining bit reduction with downsampling and options to control the resulting noise. In musical applications, bitcrushing is applied to elements like , synths, vocals, and guitars to alter and add vintage degradation, often evoking 1980s aesthetics or industrial grit. Notable examples include Aphex Twin's use of heavy bitcrushing on in "Come to Daddy" (1997) for an aggressive, mangled texture; 's application to vocoded vocals in "Do You Know Squarepusher" (2002) at around 8 bits to enhance character; and ' reduction of guitar tones to approximately 2 bits in "We're In This Together" (1999) for raw . More recently, artists like have employed subtle bitcrushing on synths in tracks such as "Talk to Me You'll Understand" (2016) to infuse dreamlike warmth, reflecting its resurgence in lo-fi house and movements. Plugins like Ableton's Redux, ' offerings, and hardware from Strymon continue to popularize it, allowing producers to dial in parameters for effects ranging from subtle warmth to extreme sonic destruction.

Overview

Definition and Purpose

A bitcrusher is a digital audio effect that intentionally degrades the quality of an by reducing its sample rate and/or bit depth, thereby introducing in the form of quantization and to create a harsh, lo-fi sound. This effect emulates the technical limitations of early hardware, transforming clean signals into gritty, low-resolution outputs. Central to the bitcrusher's operation are the foundational concepts of digital audio representation: sample rate, which measures the number of samples captured per second from an analog , and bit depth, which specifies the number of bits allocated to encode the value of each sample's . Reducing these parameters limits the frequency range and amplitude precision, respectively, leading to audible artifacts that define the effect's characteristic degradation. The purpose of a bitcrusher lies in its creative application within music production, sound design, and live performance, where it generates retro or aggressive tones by contrasting the pristine clarity of contemporary with evocative, vintage-style imperfections. Producers employ it to evoke the aesthetics of 8-bit soundtracks or early samplers, adding texture and nostalgia to instruments, vocals, or entire mixes.

Historical Development

The bitcrusher effect traces its roots to the hardware constraints of early in the , when limited processing power and memory in devices like video game consoles necessitated low-resolution sound synthesis. The (NES), launched in 1985, exemplified this through its 8-bit audio chip, which produced music characterized by reduced bit depth and sample rates, creating inherent as a byproduct rather than a deliberate choice. These limitations in early digital sampling and synthesis laid the groundwork for the lo-fi aesthetic that bitcrushing would later emulate. By the mid-1990s, as workstations proliferated, bit reduction evolved into an intentional effect, popularized in experimental electronic genres such as , (IDM), and trip-hop as a to polished production trends. Producers began using hardware samplers and early software to downsample audio deliberately, with artists like employing bitcrushing for abrasive, innovative textures, as heard in the 1997 remix of "Come to Daddy." Tools in platforms like Logic Audio, which included bit reduction features by the late 1990s, further enabled this shift in and IDM scenes. In the , bitcrushers became standard in workstations, with integrations like Live's Redux effect—introduced around the mid-decade—facilitating its adoption in mainstream electronic production. This era marked a full transition from constraint to creative staple, influencing broader . The effect's cultural significance grew in the 2010s through revivals in and genres like , which repurposed 8-bit and 16-bit era sounds for nostalgic, ironic commentary on consumer technology. Over time, what began as a technical hurdle in the shift from 8-bit to higher resolutions became a versatile artistic tool for evoking retro and sonic experimentation.

Technical Operation

Sample Rate Reduction

Sample rate reduction is a core mechanism in bitcrushers that intentionally downsamples the incoming audio signal to a lower rate, often from the standard compact disc rate of 44.1 kHz down to as low as 1–10 kHz, thereby inducing aliasing distortion. This downsampling causes frequencies above the reduced Nyquist limit to fold back into the audible spectrum through frequency folding, generating harsh, metallic, or buzzing artifacts that characterize the lo-fi aesthetic of bitcrushed audio. Unlike standard resampling in digital audio processing, bitcrusher implementations typically employ minimal or no anti-aliasing filtering prior to downsampling to preserve and emphasize these nonlinear artifacts for creative effect. The process begins with decimation, where samples are selectively removed to achieve the target lower rate, effectively compressing the of the signal. This is often followed by to upsample the signal back to the original rate for seamless integration in a chain, during which the components manifest as inharmonic distortions. The , which defines the highest frequency representable without , is given by fNyquist=fs2,f_\text{Nyquist} = \frac{f_s}{2}, where fsf_s is the sampling rate; when input frequencies exceed this threshold due to the reduced fsf_s, they alias to lower frequencies, creating the signature timbral alterations. Sonically, sample rate reduction introduces pronounced high-frequency harshness and a loss of smooth high-end detail, resulting in a gritty, digital degradation that evokes early computer or audio. This effect is inherently digital, relying on the discrete nature of sampled signals to produce artifacts absent in analog equivalents, and it contributes to the overall perceptual roughness when combined with other bitcrusher elements like quantization.

Bit Depth Reduction

Bit depth reduction in a bitcrusher involves quantizing the of an to a lower number of bits than the original representation, typically decreasing from 16 bits (offering 65,536 discrete levels) to 4–8 bits (yielding 16–256 levels). This process approximates continuous signal values to the nearest available discrete level, introducing rounding errors known as quantization error. These errors manifest as granular quantization noise and harmonic distortion, altering the signal's by adding a layer of digital grit. The quantization process rounds each sample's amplitude value to the closest representable level within the reduced bit depth. The quantization step size, denoted as Δ\Delta, is calculated as Δ=full scale2bit depth\Delta = \frac{\text{full scale}}{2^{\text{bit depth}}}, where full scale is the maximum range (e.g., -1 to +1 for normalized signals). The resulting quantization noise can be modeled as uniform random noise with power (variance) given by σq2≈Δ212,\sigma_q^2 \approx \frac{\Delta^2}{12}, assuming a uniform distribution of errors over the step size. This noise power increases as bit depth decreases, since smaller bit depths enlarge Δ\Delta and thus amplify the error magnitude. For instance, reducing to 8 bits raises the noise floor significantly compared to 16-bit audio, where the theoretical is approximately 96 dB. The sonic effects of bit depth reduction produce a "crunchy" or "dirty" texture, characterized by a compressed that brings low-level signals closer to the elevated . This compression limits the signal's ability to capture subtle variations, resulting in a lo-fi aesthetic with added content that enhances perceived and aggression. Unlike frequency-domain alterations, these changes primarily affect resolution, creating focused on and granularity rather than spectral folding. In practice, bit depth reduction is often paired with sample rate reduction to compound the , though its core impact remains on quantization.

Additional Distortion Methods

In addition to core sample rate and bit depth reductions, bitcrushers often incorporate supplementary distortion techniques to expand their sonic palette, enabling more nuanced and experimental audio manipulation. These methods introduce unique harmonic content, controlled noise, or modulation-based artifacts, drawing from historical digital audio constraints while adapting to modern creative needs. Foldback distortion represents a variant of clipping applied during downsampling processes, where waveform peaks exceeding a defined threshold are inverted rather than truncated, generating sum and difference harmonics that mimic aliasing without full anti-aliasing filtering. This technique, implemented in plugins like PreSonus Studio One's Bitcrusher, produces a softer, more organic distortion compared to hard digital clipping, enriching signals with additional even and odd harmonics for a textured, lo-fi character. Similarly, wrap modes in tools such as Logic Pro's Bitcrusher fold the signal in a modular arithmetic fashion, creating wraparound effects that yield smoother harmonic overtones, particularly effective at moderate drive levels. Noise dithering serves as a controlled grain-adding method in advanced bitcrushers, where low-level random is injected to decorrelate quantization errors and introduce subtle, texture without overwhelming the signal. By applying triangular or noise-shaped dither, these effects transform harsh bit reduction artifacts into a more analog-like grit, often used to emulate vintage sampler warmth while preventing static buildup. This approach enhances versatility in lo-fi production, allowing producers to balance clarity and dirt in real-time . Buffer-based resampling extends downsampling by employing fixed-size audio buffers to approximate variable-rate reduction, potentially leading to overflow artifacts that simulate hardware limitations like those in early digital consoles. This method facilitates aliasing-heavy effects through abrupt buffer decimation, producing metallic or granular tones ideal for rhythmic pulsing. Nonlinear processing via provides another layer of , encoding signals as differences between consecutive samples to achieve extreme low-bit resolution with inherent instability and . Originating from techniques in the Nintendo Entertainment System's (NES) delta modulation channel, this method—exemplified in Xfer Records' Delta Modulator plugin—deviates from traditional bitcrushing by emphasizing temporal prediction errors, resulting in a gritty, chiptune-esque sound suitable for percussion and leads. Post-2000s developments, including such plugins released around 2012, have integrated these methods to create "analog-like" digital dirt, bridging retro emulation with contemporary experimental synthesis, such as hybrids with granular processing for evolving textures.

Implementation

Software Implementations

Software implementations of bitcrushers are widely available as plugins in formats like VST, , and AAX, as well as built-in effects within digital audio workstations (DAWs), enabling real-time processing with efficient (DSP) algorithms that minimize CPU usage even on lower-end hardware. For instance, D16 Group's Decimort 2, released in 2016, models analog-style bit depth and sample rate reduction using anti-aliasing filters and dithering for smoother degradation, achieving low-latency performance suitable for live applications. Similarly, has included a native bitcrusher effect, known as Redux, since version 4.0 (), which combines downsampling with bit reduction and has been optimized over updates for efficient real-time use across tracks. Free options like Togu Audio Line's TAL-Bitcrusher, a lightweight VST/ plugin, provide basic bit depth control (0-32 bits) alongside EQ and noise modulation, running efficiently on modest systems without taxing resources. Unique to software bitcrushers are features like adjustable oversampling, which processes audio at higher rates internally to reduce aliasing artifacts from sample rate reduction, as seen in plugins such as Tritik's Krush and HoRNet's ADDA, allowing up to 4x oversampling for cleaner distortion. Preset banks tailored to genres, such as lo-fi hip-hop or chiptune, are common in tools like Cableguys' CrushShaper, facilitating quick setup for specific sonic aesthetics. Integration with modular environments like Pure Data is straightforward, where users can build custom bitcrusher patches using objects like [tabread4~] for sample rate decimation and [quantize~] for bit depth control, enabling experimental, real-time audio manipulation in open-source workflows. Software bitcrushers offer advantages in accessibility and low cost, often available for free or as bundled DAW features, making them ideal for home producers compared to hardware's physical interfaces. Automation capabilities stand out, allowing dynamic parameter changes over time—such as gradually reducing bit depth during a breakdown—which is seamlessly integrated into DAW timelines for creative builds without manual intervention. Development trends in the saw a rise in open-source options, particularly plugins for Linux-based audio systems, with examples like the simple bitcrusher.lv2 on providing gain-controlled crushing and multiband variants like Sound of Music for precise frequency-specific degradation, promoting community-driven enhancements and compatibility with hosts like Ardour. As of 2025, Ableton's Redux continues to receive optimizations in Live 12 for enhanced downsampling controls.

Hardware Implementations

Hardware implementations of bitcrushers emerged from early digital samplers and evolved into dedicated pedals and modular components, leveraging analog-digital hybrid circuits with DAC and ADC chips to achieve sample rate and bit depth reduction. The E-mu Emulator II, released in 1984, served as an early unintentional bitcrusher through its 8-bit sampling at a fixed rate of approximately 27 kHz, producing characteristic lo-fi distortion due to quantization noise and limited resolution. In the early 1990s, Roland units like the Boss SP-202 Dr. Sample (1991) utilized 16-bit processing but allowed variable sample rates down to 3.91 kHz via onboard ADC/DAC conversion, enabling deliberate bitcrushing effects in analog-digital workflows despite fixed hardware constraints. Modern dedicated hardware bitcrushers often appear as guitar pedals, such as the Electro-Harmonix Mainframe (2020), which employs digital processing for sample rate reduction from 48 kHz to 110 Hz and bit depth control, integrated into stompbox formats for live performance. Similarly, the Red Panda Bitmap 2 (2018) offers fractional bit reduction from 24 bits to 1 bit and sample rate modulation down to 110 Hz, using high-performance ARM processors and 24-bit/48 kHz converters in a compact pedal design that includes waveshaping for added distortion. These devices highlight the shift toward boutique pedals during the 2010s stompbox revival, where independent builders emphasized unique digital mangling in accessible formats. More recent examples include the Noisemaker Effects Noisetendo bitcrusher pedal, released in a limited run in 2025, combining fuzz and bit reduction for lo-fi effects. In modular synthesis, Eurorack-compatible bitcrushers adapt core distortion methods to hardware modules, such as the Doepfer A-189-1, a voltage-controlled bit modifier module offering functions like voltage-controlled bit crunching and sample rate reduction in analog-hybrid setups. While some oscillators like the Make Noise DPO can incorporate external bitcrushing modifications via patching, dedicated modules provide more precise control over digital degradation. Hardware implementations generally offer advantages like tactile knob-based adjustments and sub-millisecond latency for real-time live use, contrasting software's greater flexibility in parameter ranges, though fixed rates in early designs limited experimentation compared to modern DSP-based units.

Controls and Applications

Principal Controls

Bitcrushers typically feature a core set of adjustable parameters that allow users to control the intensity and character of the digital degradation effect. The primary controls include a sample rate reduction knob, often ranging from as low as 1 kHz up to the standard 44.1 kHz, which down-samples the audio signal to introduce aliasing artifacts that alter the pitch and timbre by folding high frequencies into the audible range. A bit depth slider, adjustable from 1 to 16 bits, reduces the resolution of the signal, generating quantization noise that adds a gritty, lo-fi texture as fewer amplitude levels are available for representation. Additional standard controls encompass a dry/wet mix blend, which balances the processed signal against the original audio for parallel processing and subtle integration, and an output gain adjustment to compensate for volume loss caused by the reduction processes, preventing clipping while maintaining perceived . Many implementations also include downsample mode options, such as for smoother transitions or nearest-neighbor decimation for harsher, more abrupt artifacts, enabling users to tailor the quality. The sample rate control primarily influences the content and perceived pitch drop, with lower settings creating a telephone-like muffling or timbre, while bit depth reduction heightens and dynamic compression, emphasizing subtle signal details as . These parameters interact cumulatively: combining low sample rates with reduced bit depth amplifies overall grit by layering upon quantization errors, resulting in maximally degraded, aggressive tones. To avoid muddiness in practical tuning, users often start with moderate sample rate reductions and gradually lower bit depth while monitoring for unwanted low-end buildup, adjusting the dry/wet mix to retain clarity. These principal controls are universally present across both software plugins and hardware devices, though variations exist—such as additional drive stages in software like Tritik Krush for pre- warmth or sequencer-controlled decimation in hardware like the Meris Ottobit—allowing consistent effect shaping regardless of platform.

Musical and Creative Uses

Bitcrushers are prominently featured in electronic music genres, where they contribute to the gritty, digital characteristic of revival and substyles. In , the effect is often applied to basslines to create "talking wobble" sounds or add a crispy high-end sheen during drops, enhancing the genre's aggressive texture. Similarly, in lo-fi hip-hop, bitcrushing emulates vintage digital warmth by reducing audio fidelity, a staple in beat production since the . In , guitarists use bitcrusher pedals to generate harsh, clangorous that contrasts with traditional overdrive, producing dissonant tones for experimental edges. Sound designers employ bitcrushers in films and video games to evoke retro , such as pixelated 8-bit effects that align audio degradation with visual styles like low-resolution graphics. For instance, in game audio, the effect adds aggression and pace to soundscapes, simulating old arcade hardware limitations while modernizing influences. Creative techniques with bitcrushers include parallel processing, where a dry signal blends with a crushed duplicate to introduce subtle grit without overpowering clarity; automating the dry/wet mix on this parallel channel evolves textures over time. Layering follows, often routing crushed signals through reverb or delay for smeared, lo-fi tails that build atmospheric depth. Extreme settings, like 1-bit reduction, emulate square-wave synthesis, transforming smooth waveforms into blocky, retro pulses ideal for rhythmic emphasis. Notable tracks showcase these applications, such as Aphex Twin's "Come to Daddy" (), where bitcrushing drives the track's abrasive, degraded electronic chaos. In live DJ performances, bitcrushers facilitate dynamic transitions by automating sample rate drops on builds, adding glitchy flair to sets without disrupting flow. Beyond music, bitcrushers tie into visual media by syncing audio's quantized harshness to 8-bit visuals, reinforcing nostalgic themes in animations or interactive installations that draw from early gaming heritage.

References

  1. https://blog.native-instruments.com/bitcrushing/
  2. https://support.apple.com/guide/logicpro/bitcrusher-controls-lgcef1a8f27c/mac
  3. https://www.mdpi.com/2076-3417/10/3/791
  4. https://www.strymon.net/what-is-a-bitcrusher/
  5. https://www.edmprod.com/bitcrushing/
  6. https://www.deniseaudio.com/blog-posts/recreate-bit-crushing-used-in-famous-songs-four-examples-by-music-producer-nrec
  7. https://pearl.plymouth.ac.uk/cgi/viewcontent.cgi?article=2548&context=secam-research
  8. https://www.soundonsound.com/techniques/cubase-13-creating-lo-fi-effects
  9. https://www.bbc.co.uk/bitesize/guides/zfspfcw/revision/9
  10. https://www.attackmagazine.com/technique/beat-dissected/industrial-techno/
  11. https://www.attackmagazine.com/technique/synth-secrets/make-rave-stabs-like-the-landlord-stab/
  12. https://help.apple.com/pdf/fcp-logic-effects/en_US/final-cut-pro-logic-effects.pdf
  13. https://blog.soundtrap.com/how-to-use-bitcrusher-like-a-pro/
  14. https://www.researchgate.net/publication/363752069_Chiptunes
  15. https://www.deniseaudio.com/blog-posts/vst-bitcrusher-plugins-explained-with-history-and-pro-production-tips
  16. https://modwiggler.com/forum/viewtopic.php?t=99900
  17. https://unison.audio/bitcrushing-and-downsampling/
  18. https://www.analog.com/media/en/training-seminars/tutorials/mt-002.pdf
  19. https://web.njit.edu/~joelsd/Fundamentals/coursework/BME310computingcw6.pdf
  20. https://www.perfectcircuit.com/signal/weird-fx-bitcrushers
  21. https://www.analog.com/media/en/training-seminars/tutorials/MT-001.pdf
  22. https://science-of-sound.net/2016/01/quantization-noise-and-bit-depth/
  23. https://pcaudiolabs.com/how-to-use-presonus-bitcrusher-in-studio-one-4/
  24. https://mastering.com/bitcrusher/
  25. https://www.loopmasters.com/articles/2604-Create-A-Lo-Fi-Effect-In-FL-Studio-With-Bitcrushing-Dithering
  26. https://www.audiotechnology.com/free-stuff/xfer-records-deltamodulator
  27. https://bedroomproducersblog.com/2012/06/03/delta-modulator-free-nintendo-nes-style-bitcrusher-by-steve-duda/
  28. https://www.tritik.com/product/krush/
  29. https://d16.pl/decimort2
  30. https://www.ableton.com/en/manual/live-audio-effect-reference/
  31. https://tal-software.com/products/tal-effects
  32. https://www.hornetplugins.com/plugins/hornet-adda/
  33. https://blog.landr.com/best-bitcrushing-plugins/
  34. https://bedroomproducersblog.com/free-vst-plugins/bitcrusher/
  35. https://github.com/krig/bitcrusher.lv2
  36. https://linuxmusicians.com/viewtopic.php?t=26449
  37. https://www.ableton.com/en/release-notes/live-12/
  38. https://www.soundonsound.com/reviews/emu-systems-emulator-ii-part-1-retro
  39. https://www.vintagesynth.com/e-mu/emulator-ii
  40. https://www.soundonsound.com/reviews/boss-dr-sample-sp202
  41. https://gearspace.com/board/electronic-music-instruments-and-electronic-music-production/1395984-lowering-sample-rate.html
  42. https://www.ehx.com/products/mainframe/
  43. https://www.redpandalab.com/products/bitmap
  44. https://www.guitarpedalx.com/news/news/red-panda-releases-very-significantly-enhanced-v2-edition-of-its-bitmap-bitcrusher-pedal
  45. https://reverb.com/item/91853054-noisemaker-effects-noisetendo-bit-crusher-and-lofi-fuzz-2025-bowsette-limited-run
  46. https://www.doepfer.de/a1891_e.htm
  47. https://gearspace.com/board/electronic-music-instruments-and-electronic-music-production/1257956-there-any-reason-own-hardware-effects-2019-a-16.html
  48. https://www.youtube.com/watch?v=U3R4hR3fTWk
  49. https://www.soundonsound.com/reviews/meris-ottobit
  50. https://www.soundonsound.com/reviews/arturia-origin-keyboard
  51. https://help.izotope.com/docs/izotope-trash2-help.pdf
  52. https://www.soundonsound.com/techniques/sequencer-creative-effects-masterclass
  53. https://www.youtube.com/watch?v=dA3EBDlCgtc
  54. https://blog.native-instruments.com/how-to-make-dubstep/
  55. https://hub.yamaha.com/proaudio/recording/how-to-create-lo-fi/
  56. https://www.premierguitar.com/the-recording-guitarist-breaking-bits
  57. https://joeysturgistones.com/blogs/learn/the-case-for-adding-bitcrushed-audio-to-music-film-video-games
  58. https://www.youtube.com/watch?v=8sIbpIJvf_k
  59. https://unison.audio/creative-automation-techniques/
  60. https://www.sweetwater.com/insync/effects-tip-dirty-up-your-reverb-with-a-bit-crusher/
  61. https://mixedinkey.com/wiki/5-ways-to-add-live-performance-to-your-dj-set/
  62. https://community.adobe.com/t5/after-effects-beta-discussions/new-audio-plugins-for-after-effects-in-ae-26-0x8/m-p/15560357
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