Abstract: Methods of operating an audio device are provided. A method includes measuring sound pressure levels (SPLECM) for acoustic energy received by an ear canal microphone (ECM) during a time increment ?t; and calculating a SPL_Dose?t during the time increment ?t using SPLECM.

Abstract: A device or a method using the device includes a balloon configured to seal a user's orifice, where the balloon is configured to produce an acoustic seal between a first side and a second side of the balloon in an ear canal. At least a second side of the balloon is fitted into the ear canal. Audio processing circuitry produces an audio signal for driving a speaker in the device and to measure sound level using output from the microphone in the device while the speaker is being driven by the audio signal. The device or method further includes control circuitry to evaluate a seal quality of the device. Other embodiments are disclosed.

Abstract: A device or a method using the device includes a sealing section configured to seal a user's orifice, where the sealing section is configured to produce an acoustic seal between a first side of the sealing section and a second side of the sealing section and audio processing circuitry to produce an audio signal for driving a speaker in the device and to measure sound level using output from the microphone in the device while the speaker is being driven by the audio signal. The device or method further includes control circuitry to evaluate a seal quality of the device. Other embodiments are disclosed.

Abstract: The present invention relates to systems and methods for monitoring the amplification of DNA molecules and the dissociation behavior of the DNA molecules.

Abstract: At least one exemplary embodiment is directed to an electronic device configured to collect acoustic information or a method including the steps of collecting acoustic data by a microphone communicatively coupled to a mobile device, analyzing the acoustic data for a sound signature, tagging the sound signature with metadata, sending the sound signature with metadata to an acoustic database, associating sounds within the acoustic data with information, presenting the information on a map on the mobile device, and accessing at least audio from the acoustic database when a cursor is placed over a specific location on the map corresponding to captured ambient sounds from a geographic location and wherein acoustic information can be retrieved corresponding to the geographic location and for different selected periods of time.

Abstract: At least one exemplary embodiment is directed to a system configured to occlude an ear canal. The system comprises a support structure, an expandable device, a housing, a resilient reservoir, and a threaded device. Resilient reservoir resides within housing and is filled with a medium. The threaded device couples to a threaded region of support structure. Threaded device fits in an opening of housing. Rotating threaded device reduces an interior volume of housing thereby transferring the medium from resilient reservoir to expandable device. Threaded device is rotated to displace sufficient medium within resilient reservoir to expand expandable device to occlude the ear canal. Resilient reservoir is passively filled when expandable device is in an un-expanded state.

Abstract: At least one exemplary embodiment is directed to an earphone having a first and second tab that are configured to be engaged by fingers, where when fingers squeeze the tabs together pressure on a reservoir is reduced so that a medium flows from an expandable tip reducing the size of the expandable tip.

Abstract: At least one embodiment is directed to an earpiece comprising a housing; and a field responsive fluid, where the field responsive fluid is in the housing, where the housing is part of the earpiece, and where the earpiece is configured to vary a field to vary an acoustical property of the field responsive fluid.

Abstract: A system for monitoring sound pressure levels at the ear includes an ambient sound microphone (ASM) for receiving ambient sounds and an ear canal microphone (ECM) for producing audio signals as a function of ambient sound received at the ambient sound microphone and a sound signal received from an associated personal audio device. A logic circuit is operatively associated with the ASM and ECM calculates a total SPL_Dose experienced by the ear at a time t. The total SPL_Dose is calculated by determining SPL_Dose for periods ?t as measured at the ECM. The logic circuit may select an action parameter in response to the Total SPL_Dose.

Abstract: At least one exemplary embodiment is directed to an electronic device configured to collect acoustic information or a method including the steps of collecting acoustic data by a microphone communicatively coupled to a mobile device, analyzing the acoustic data for a sound signature, tagging the sound signature with metadata, sending the sound signature with metadata to an acoustic database, associating sounds within the acoustic data with information, presenting the information on a map on the mobile device, and accessing at least audio from the acoustic database when a cursor is placed over a specific location on the map corresponding to captured ambient sounds from a geographic location and wherein acoustic information can be retrieved corresponding to the geographic location and for different selected periods of time.

Abstract: At least one exemplary embodiment is directed to a website configured to collect sound signatures from around the world and beyond. A communication device automatically stores acoustic information received by a microphone of the communication device. The acoustic information is analyzed for a trigger event. The trigger event stores the acoustic information, attaches metadata, creates a Gaussian Mixture Model, and measures sound pressure level. The communication device automatically sends the sound signature to a database when a communication path is opened to communication device. Each sound signature has associated metadata including a time stamp and geocode. Automatically collecting sounds using a communication device adapted for the process enables a database that captures sounds globally on a continuous basis.

Abstract: The present invention relates to systems and methods for monitoring the amplification of DNA molecules and the dissociation behavior of the DNA molecules.

Abstract: An earpiece, earphone, earbud or earplug includes an inflatable element operatively attached to a distal end by an inflation channel, and an anti-distal end of the inflation channel that provides a pressuring force via fluid transfer of a fluid to maintain an expansion of the inflatable element. The inflatable element can be pressurized to a gauge pressure range between 0.05 bar and 3.0 bar. In some embodiments, the inflatable element is pressurized to a gauge pressure range from 0.3 bar to 0.25 bar and maintains such gauge pressure range for at least 12 hours. In some embodiments, the inflatable element uses a material of a predetermined permeability for a given density of fluid and a given thickness of the inflatable element such that an inflation pressure drops from 1.2 atmospheres to 1 atmospheres in 8 hours after the inflatable element is pressurized to 1.2 atmospheres. Other embodiments are disclosed.

Abstract: A personalized sound management system for an acoustic space includes at least one transducer, a data communication system, one or more processors operatively coupled to the data communication system and the at least one transducer, and a medium coupled to the one or more processors. The processors access a database of sonic signatures and display a plurality of personalized sound management applications that perform at least one or more tasks among identifying a sonic signature, calculating a sound pressure level, storing metadata related to a sonic signature, monitoring sound pressure level dosage levels, switching to an ear canal microphone in a noisy environment, recording a user's voice, storing the user's voice in a memory of an earpiece device, or storing the user's voice in a memory of a server system, or converting received text received in texts or emails to voice using text to speech conversion. Other embodiments are disclosed.

Abstract: A device includes a core, a membrane, at least one first electrode coupled to the core, at least one second electrode coupled to the core or the membrane and a collapsible electroactive polymer element. The collapsible polymer element is configured to extend from or extend around at least a portion of the core where the element is in an expanded configuration without application of a voltage and in a collapsed configuration with the application of the voltage or in a collapsed configuration without application of a voltage and in an expanded configuration with the application of the voltage. The voltage is applied via the at least one first electrode and the at least one second electrode. Other embodiments are disclosed.

Abstract: A device or a method using the device includes a sealing section configured to seal a user's orifice, where the sealing section is configured to produce an acoustic seal between a first side of the sealing section and a second side of the sealing section and audio processing circuitry to produce an audio signal for driving a speaker in the device and to measure sound level using output from the microphone in the device while the speaker is being driven by the audio signal. The device or method further includes control circuitry to evaluate a seal quality of the device. Other embodiments are disclosed.

Abstract: An earplug is provided. The earplug includes at least a partially flexible distal end; an inflatable element; and a flexible anti-distal end. The anti-distal end has at least one portion that is deformable. The inflatable element is operatively attached to the distal end by an inflation channel. When the at least one portion is deformed the inflatable element expands to an adjustable pressure. At least one portion of the anti-distal end provides a pressurizing force to maintain the expansion of the inflatable element.

Abstract: Methods for personalized sound management are provided. A module comprising hardware and software is provided to manufacturers to build a device. A process is architected for remote enabling of a device with personalized sound management applications. Consumers select applications for managing their sound environment through purchased and subscription hardware and applications via a web environment. All products developed by manufacturers are tested and certified running the personalized sound management applications. Manufacturers and consumers may both be covered under liability insurance. Users may remotely purchase, update hardware, and add and download subscription based applications through the web environment.

Abstract: At least embodiment is directed to an earpiece comprising a housing; and a field responsive fluid, where the field responsive fluid is in the housing, where the housing is part of the earpiece, and where the earpiece is configured to vary a field to vary an acoustical property of the field responsive fluid.

Abstract: A test signal emitted by an earpiece is compared against the acoustic signal to determine if a sealing section of the earpiece is sealed properly. The degree of acoustic sealing is used to adjust the attenuation level of a sealing section of the earpiece or alert the user that the sealing section of the seal status.