Recessed substrates ensure complete dielectric filling to prevent peeling and outgassing during MEMS fusion bonding.
A plate step displaces the voice coil from yoke leakage flux to maintain symmetric amplitude and reduce distortion at high output levels.
Resilient shock absorbing elements dissipate kinetic energy to protect internal components from impact damage in rigid portable medical device housings.
Removing the structural frame allows a larger magnetic circuit unit, increasing vibration space and sensitivity in compact micro-speakers.
Paired Halbach arrays drive a planar voicecoil to reduce z-height, eliminating bulky magnetic return structures in compact audio devices.
Bone conduction in a wearable oral device delivers private audio without air radiation, resolving privacy conflicts during social interactions.
Magnetic force sensors detect accessory attachment through intensity and polarity analysis, eliminating wireless communication costs.
An elastic member dynamically opens a ventilation hole to balance front and rear chamber pressures, protecting the diaphragm from blowing damage.
A protruding supporting section on the voice coil body enables stress-free gluing of the suspension holder and diaphragm.
An inverted dual coil transducer design positions the magnet assembly forward of a concave diaphragm to create a low-profile acoustic component.
A secondary loudspeaker within a back enclosure generates anti-noise waveforms to cancel backside radiation from the primary driver.
A networked speaker system detects device locations using signal strength to automatically assign audio channels and optimize sound distribution.
Segmented magnets and optimized suspension reduce spurious vibrations while maintaining thin profiles for portable devices.
Positioning a loudspeaker damper near the magnetic circuit reduces acoustic strain and improves driving efficiency.
Elastomer cords suspend a rigid bracket to isolate drum microphones from stage vibrations, reducing floor noise and simplifying setup.