Electric Tinnitus Maskers TRIZ Cases

Tracks customized tinnitus masking sounds and usage over time so therapy parameters and volume can adapt to each patient's changing tinnitus.

Adjustable sound templates match a patient's tinnitus frequency and intensity more completely than fixed masking algorithms.

Wearer interactions and use context are inferred to adjust hearing aid settings automatically, improving sound clarity and comfort.

Automatic hearing aid changes use wearer interactions, use context, and population data to reduce manual adjustment and improve listening.

Physiological sounds from blood flow, heartbeat, and respiration are processed and played back to mask tinnitus while limiting unsafe amplification.

A bone-conduction tinnitus headset pairs with a phone or computer to deliver adjustable therapy signals and collect treatment feedback.

Migraine symptoms and triggers vary widely, so sensor fusion combines physiological, microphone, and contextual signals for earlier detection.

Machine learning enables objective tinnitus detection and personalized treatment.

Integrated plug with flexible seal connects sound tube to socket, eliminating separate components while ensuring moisture resistance.

Physiologic sensors measure wearer conditions to enable automatic tinnitus detection and dynamic masking sound adjustment, eliminating manual user intervention.

Dynamic signal modulation creates natural soundscapes that reduce auditory fatigue while minimizing memory storage requirements.

Patients adjust tinnitus therapy output levels and frequency response via a hearing aid interface to overcome limited professional programming control.

A programmable hearing aid uses button press duration to switch between preloaded acoustic programs for patient evaluation.

A hearing device system processes audiogram images to generate configuration settings for autonomous fitting.

A hearing aid system uses a Gaussian process to optimize parameter settings based on user preferences for relaxing sounds.

An integral injection-molded hearing instrument casing uses a microphone as a fixation bolt secured by spring force to hold the internal frame.

A media enhancement server applies personalized audio processing parameters to improve speech intelligibility for specific listeners.

Repositioning the auricle via a pressure point body changes sound refraction paths, addressing insufficient effectiveness in conventional tinnitus treatments.

Segmented signal modules generate accurate tinnitus profiles to overcome the complexity of traditional diagnostic equipment.

An automated tinnitus masker uses a speech intelligibility model to adjust therapy parameters, reducing speech understanding interference during treatment.

A speech intelligibility model computes therapy impact scores to automatically adjust tinnitus-masker parameters.

Notched audio signal reduces tinnitus loudness by filtering specific frequencies, avoiding lengthy daily therapy sessions.

A hearing prosthesis delivers concurrent test and remediation signals to suppress distracting sounds during device evaluation.

Band-stop filter suppresses individual tinnitus frequencies in audio signals, resolving patient discomfort while maintaining therapeutic effectiveness.

A wearable device uses electro-acoustic transducers and contact elements to deliver combined audio and vibration therapy for tinnitus management.

An apparatus uses a physiological ear model to establish probability correlations, reducing octave confusion for unpracticed listeners.

A receiver tube connector integrates electrical and mechanical links to allow variable longitudinal displacement and rotation of hearing instrument tubes.

Synchronized electrical stimulation modulates auditory neural activity, reducing acoustic feedback distortion while suppressing tinnitus symptoms.

A sound system generates low-frequency audio signals to stimulate the somatosensory cortex and body sensors for tinnitus treatment.

An oral transducer generates sound vibrations transmitted through teeth to the inner ear for tinnitus masking.

Wireless transceivers transfer programming information between hearing instruments, eliminating reprogramming visits for replacement devices.

An adaptive sound enrichment system classifies the ambient environment and modulates noise signals to mask tinnitus while preserving speech intelligibility.

A remote fitting system transfers adjustable parameters to a user interface for direct adjustment within specified ranges.

A hearing device generates a tinnitus stimulation signal and applies a predefined limiting scheme to constrain output levels before superimposing the signal onto processed acoustic input.

Compact electronic system generates personalized sound signals to match and cancel tinnitus noise in each ear independently.

A hearing apparatus uses voice and activity measures to adjust signal processing algorithms.

A self-managed sound enhancement system captures individualized auditory profiles to automatically adjust audio signals for personalized listening.

Sealed battery packs integrate wireless charging and signal electronics to maintain moisture protection while delivering predetermined utilizable voltage.

A hearing device uses a controllable filter to attenuate tinnitus frequency components within broadband input signals.

A mobile device generates customizable sound signals via an audio transducer to facilitate auditory disorder treatment.

A hybrid hearing instrument connector uses spatially oriented connections to decouple signal paths and simplify mechanical assembly.

Descending Shepard scale tones with pause intervals accelerate neural adaptation, reducing treatment time compared to continuous sound therapy.

A hearing aid system adapts sound settings using Gaussian process modeling for efficient user personalization.

A printed circuit board forms a structural wall within the hearing instrument housing to minimize space and enable deeper ear canal positioning.

Unified interface structure resolves complexity trade-offs by enabling reliable state of charge detection without increasing device volume.

A hearing aid system screens ears at incremental frequencies to determine preferred ranges.

A hearing aid system generates enriched sound by splitting white noise into frequency bands and applying dynamic gain values to each band.

A hollow-cylindrical sensor carrier nests against the ear canal wall to detect vital parameters.

A user programmable hearing aid enables patients to select and fine-tune audio processing programs independently.