Embedding the antenna in the shell wall reduces device volume while maintaining reliable wireless communication.
A hearing aid earwax filter uses a capillary trap and hydrophobic coating to block wax entry.
A system in package module stacks electronic subsystems on opposing substrates to maximize component density within constrained hearing aid enclosures.
Integrated elastic holding elements separate shock absorption from vibration isolation, reducing manufacturing costs and assembly complexity.
A metal or ceramic connecting piece fastens directly to a hearing device housing frame to stabilize the wearing hook and transmit sound.
Segmented fastener clips with bendable legs enclose the incus short process, reducing blood vessel damage risk while maintaining attachment strength.
A hearing device frame holds internal components and accepts pin-secured shells to enable rapid assembly.
A suspension system uses an asymmetric vibration isolator to disperse receiver energy away from the housing.
Segmented adhesive zones and extraction principles prevent drive surface contamination, avoiding unwanted damping of mechanical stimulation signals.
An integral injection-molding casing secures internal frames using a bolt and spring force, eliminating undercuts to prevent moisture ingress.
A moisture sensor detects liquid presence within a wearable electronic housing, triggering alerts or component shutdowns to prevent damage.
Thermoplastic elastomer mounts separate vibration isolation from shock absorption to reduce production costs and simplify assembly.
A bendable flex tab connector mates with a laminated epoxy glass receptacle to join hearing aid receiver modules without solder pads.
A receiver module uses a multi-layer valve system to inflate an external membrane for secure ear canal mounting.