Whether magnetic switches are quieter than mechanical ones influences purchasing decisions for typists, gamers and office workers. The answer depends on more than the sensing method: construction, keycap design, typing force and the switch type all shape the final keyboard sound. This guide explains the difference and identifies the Krome Keyboards models that offer the quietest experience.
Are magnetic switches quieter than mechanical keyboards?
In most cases, yes. A hall effect keyboard usually produces a quieter actuation sound than traditional mechanical keyboards because no metal contacts meet during a keypress. That removes one source of noise, but a magnetic keyboard is not automatically silent; several other factors determine the noise level heard during typing.

Why magnetic actuation is quieter
By contrast, a Hall effect switch places a magnet inside the stem and a sensor on the PCB. The magnet never touches the sensor, so the actuation itself adds no contact noise.
A comparison of hall effect keyboard sound on the Krome Keyboards blog examines the same distinction in greater detail.
- No metal-to-metal contact: Magnetic actuation registers a keypress without a physical collision between electrical components, removing the snap and contact noise associated with standard mechanical keyboards.
- No electrical bounce noise: Mechanical switches can generate contact bounce at actuation, whereas Hall effect sensing avoids that event and produces a more consistent, muted actuation signature.
- No click mechanism: Magnetic switches do not use a click or snap mechanism at the actuation point. Unlike clicky mechanical variants, their internal contribution to keyboard noise is therefore minimal by design.
- Consistent acoustic character: Because the switch housing does not rely on contacts that wear against each other, its sound profile can remain stable over the rated lifespan rather than becoming scratchy or inconsistent.
The Akko MOD68 HE shows this in practice: its AstroAim switches have a lower-pitched acoustic signature than Astrolink switches, so design matters even within the Hall effect category. The magnet-and-sensor arrangement keeps the internal actuation mechanism acoustically neutral, leaving keycap impact as the main sound source.
For a broader comparison of mechanical vs magnetic keyboards, including sound, typing feel and features, the Krome Keyboards resource on comparing magnetic and mechanical keyboard switches examines specific models and measurements. It provides a useful basis for choosing between the two technologies.
Why a magnetic keyboard is not silent
Quietness at the actuation point does not make the entire keystroke silent. On any magnetic keyboard, the main audible events are the keycap striking the bottom of the switch housing and the stem returning to the top of its travel. Those sounds occur regardless of how the switch registers position.
Typing force also matters. With firm bottoming out, the impact can become as loud as a well-dampened mechanical keyboard, because the keycap strikes the housing more forcefully. Keycap material, thickness and profile can alter pitch and volume independently of the switch type.
Construction has a similar effect. A hollow plastic case can amplify impact resonance, while gasket mounting and Poron case foam reduce transmitted vibration and soften that hollow quality.
Magnetic and mechanical switches compared
The comparison between these two technologies involves more than noise level. Each switch type creates a distinct feel, feedback character, and set of customisation trade-offs. Those differences help identify the right option for a particular workflow, environment, or preference, including whether the acoustic advantage of magnetic designs justifies moving away from familiar mechanical options.

Sound and feedback options
Magnetic switches in the Krome Keyboards range use the Akko AstroAim sensor for contact-free actuation. Mechanical keyboards, by contrast, span three main feel and sound families: linear, tactile, and clicky. The better choice depends on the user’s preferred feedback and the value placed on adjustable actuation rather than a wider range of physical cues. Clicky mechanical switches sit at the loudest end, while silent linear mechanical designs can reduce the gap considerably.
- Clicky mechanical Produces an intentional audible click alongside a tactile event at actuation. This is the loudest switch type and the least suitable option for quiet offices or shared spaces.
- Tactile mechanical Provides a noticeable bump without a deliberate click, offering physical confirmation at a moderate noise level for typists who want feedback without disturbing others.
- Linear mechanical Delivers smooth, uninterrupted travel, with sound ranging from deep thock to crisp clack according to the switch model, keycaps, and board construction.
- Magnetic linear Actuates without physical contact, so there is no internal click or snap. Bottom-out impact and case resonance determine the final sound, making construction especially important for quietness.
Mechanical keyboards offer greater acoustic variety, from deliberately loud clicky feedback to subtler linear and silent options. Magnetic keyboards offer a more uniform, muted baseline because the sensing mechanism itself produces no sound. The case for magnetic designs in quiet environments is strongest when the board also uses gasket mounting and foam dampening to control keycap impact.
| Switch category | Actuation noise | Tactile feedback | Acoustic variety | Adjustable actuation |
| Clicky mechanical | High | Yes, with click | Loud and distinctive | No |
| Tactile mechanical | Moderate | Yes, no click | Medium range | No |
| Linear mechanical | Low to moderate | No | Wide (thock to clack) | No |
| Magnetic Hall effect | Very low at actuation | No | Consistent and muted | Yes (0.1 mm–3.4 mm) |
The typing feel of each switch
Typing feel separates the two technologies as clearly as sound. A similar comparison arises when considering whether optical switches are better than mechanical ones: both optical and magnetic sensing remove contact noise, but they differ from mechanical designs mainly in how they deliver physical feedback. Magnetic switches, such as those in the Akko AstroAim, combine factory lubrication with a 35gf initial force and 3.5mm total travel for smooth, uninterrupted motion throughout the keystroke.
Some typists find magnetic linear switches less defined than tactile mechanical options because no bump or click confirms key registration. That lack of feedback can interrupt the rhythm of users who have built their accuracy around physical cues. Mechanical keyboards remain a reliable choice for typists who depend on tactile or audible confirmation to maintain speed and reduce errors during extended sessions.
Magnetic switches for quieter gaming
Response speed, input precision and quick recovery are three examples; magnetic switches improve all three without relying on dampening. The difference comes down to how position is sensed.

Position sensing and rapid trigger
Hall effect keyboards measure a key’s continuous position across the full 4.0mm travel instead of reporting only a binary pressed or unpressed state at one fixed point. Mechanical switches require a debounce delay of roughly 5 to 10 milliseconds to filter false inputs caused by metal contact bounce; Hall effect sensing removes that requirement at hardware level. This difference in speed helps explain why magnetic switches suit gaming particularly well when rapid directional changes and repeated inputs affect the outcome.
The Akko MOD68 HE supports actuation adjustment from 0.1mm to 3.4mm, allowing each player to choose the sensitivity that matches their playstyle. From there, Rapid Trigger responds dynamically as the key moves rather than waiting for a fixed reset point.
Performance beyond the sound difference
Quieter actuation helps in shared rooms and late-night sessions, but the main performance gain comes from continuous position sensing and the removal of debounce delay.
Noise level during gaming also depends heavily on typing force. The AstroAim switches in the MOD68 HE produce lower-pitched acoustics than Astrolink switches, contributing to a quieter overall signature. The lower-pitched sound of AstroAim switches also masks bottom-out impact more effectively than higher-pitched Astrolink switches.
Magnetic switches do not currently offer a tactile variant. Players who use a physical bump to judge registration and maintain rhythm through long sessions should factor in that limitation when considering Hall effect hardware. Magnetic sensing delivers measurable performance gains, but a tactile mechanical switch from the Krome Keyboards range remains the option when physical feedback matters.
Building a quieter magnetic keyboard
Selecting a Hall effect keyboard can reduce actuation noise, but genuine quietness depends on the entire construction. On a magnetic keyboard, the keycap striking the base at bottom-out is usually the dominant audible event. The mounting system, internal damping, keycap choice and stabiliser tuning therefore matter as much as the switch type itself.
Reduce bottom-out and case sound
Discussions on Reddit about whether magnetic switches are quieter than mechanical boards regularly identify bottom-out thud as the main complaint. Even when the actuation mechanism produces little sound, the keycap still hits the housing base.
- Gasket mounting: This isolates the typing assembly from the outer case, reducing transmitted impact vibration and softening the overall keyboard noise without changing switch feel.
- Poron case foam: Positioned between the PCB and case, Poron foam dampens impact resonance and reduces the hollow quality that can amplify bottom-out sound in thinner plastic enclosures.
- Keycap selection: Thicker PBT keycaps create a lower-pitched, more damped impact than thin ABS alternatives. The keycap profile also affects the angle and force of each keypress at bottom-out.
- Stabiliser tuning: Larger keys with poorly lubricated or rattling stabilisers introduce ticking and rattle, undermining quietness regardless of the switches or mounting system.
The Akko MOD68 HE combines AstroAim switches with a construction approach designed to address these variables, producing a lower-pitched acoustic character than boards using Astrolink switches. In practice, a well-specified magnetic keyboard with gasket mounting and foam dampening can approach the quietness of the most silent mechanical configurations. The difference comes down to how thoroughly each source of keyboard noise has been handled during the build.
Durability and long-term consistency
Hall effect switches are commonly rated beyond 100 million keystrokes because their sensing mechanism has no metal electrical contacts to corrode or wear. By contrast, mechanical switches typically carry ratings of 50 to 70 million keypresses, with budget designs often at the lower end of that range. Over time, mechanical contact wear can cause chatter, inconsistent resistance or missed inputs, while magnetic sensing avoids those contact-related failure paths. That stability helps a keyboard retain the same sound after years of heavy typing.
Actual keyboard lifespan extends beyond the switch rating. The housing, solder joints and stabilisers can all degrade independently, and their condition influences perceived quietness as much as any figure on a data sheet. A magnetic keyboard built with quality stabilisers and a robust case should maintain its acoustic profile longer than one whose surrounding components wear first. Switch lifespan sets the ceiling; construction quality determines how close the rest of the board comes to it.
Frequently asked questions
Are magnetic switches always quieter than mechanical ones?
Magnetic switches usually produce less noise at the actuation point than most mechanical designs because no metal contacts meet during a keypress. They are not automatically quieter in every situation, however. A well-built mechanical keyboard with silent linear switches, gasket mounting and foam damping can be as quiet as an undamped magnetic keyboard. The switch type establishes the actuation noise floor, while construction, keycap material and typing force shape the sound heard in practice.
What are the main disadvantages of a magnetic switch?
The main limitation is the lack of tactile or clicky variants. Magnetic switches are inherently linear, providing smooth travel without a physical bump or audible click at actuation. Adjustable actuation and Rapid Trigger also require firmware support; the Akko MOD68 HE is one board that provides these Hall effect features.
Do construction features matter more than switch technology for quietness?
On a magnetic keyboard, construction can influence quietness more than the switches themselves. In the Akko MOD68 HE, since actuation is contactless, the main sound sources are keycap bottom-out impact and case resonance. Gasket mounting reduces transmitted vibration, Poron case foam dampens hollow resonance, thick PBT keycaps lower the pitch of each impact, and properly lubricated stabilisers remove rattle from larger keys. A magnetic keyboard without these features may sound louder in daily use than a carefully assembled mechanical keyboard with silent switches. The difference comes down to matching switch technology with the board’s construction.