Abstract: An ear-mountable listening device includes an adaptive phased array of microphones, a speaker, and electronics. The microphones are physically arranged into a ring pattern to capture sounds emanating from an environment. Each of the microphones is configured to output one of a plurality of first audio signals that is representative of the sounds captured by a respective one of the microphones. The speaker is arranged to emit audio into an ear. The electronics are coupled to the adaptive phased array and the speaker and include logic that when executed causes the ear-mountable listening device receive a user input identifying a first sound for cancelling or amplifying, steer a null or a lobe of the adaptive phased array based upon the user input, and generate a second audio signal that drives the speaker based upon a combination of one or more of the first audio signals.

Abstract: In some embodiments, an ear-mounted sound reproduction system is provided. The system includes an ear-mountable housing that sits within the pinna of the ear and occludes the ear canal. In some embodiments, the ear-mountable housing includes a plurality of external-facing microphones. Because the external-facing microphones may be situated within the pinna of the ear but outside of the ear canal, the microphones will experience some, but not all, of the three-dimensional acoustic effects of the pinna. In some embodiments, sound is reproduced by an internal-facing driver element of the housing using a plurality of filters applied to the signals received by the plurality of external-facing microphones to preserve three-dimensional localization cues that would be present at the eardrum in the absence of the housing, such that the housing is essentially transparent to the user. In some embodiments, techniques are provided for deriving the plurality of filters.

Abstract: An ear-mountable listening device includes an adaptive phased array of microphones, a speaker, and electronics. The microphones are physically arranged into a ring pattern to capture sounds emanating from an environment. Each of the microphones is configured to output one of a plurality of first audio signals that is representative of the sounds captured by a respective one of the microphones. The speaker is arranged to emit audio into an ear. The electronics are coupled to the adaptive phased array and the speaker and include logic that when executed causes the ear-mountable listening device receive a user input identifying a first sound for cancelling or amplifying, steer a null or a lobe of the adaptive phased array based upon the user input, and generate a second audio signal that drives the speaker based upon a combination of one or more of the first audio signals.

Abstract: An ear-mountable listening device includes an adaptive phased array of microphones, a speaker, and electronics. The microphones are physically arranged into a ring pattern to capture sounds emanating from an environment. Each of the microphones is configured to output one of a plurality of first audio signals that is representative of the sounds captured by a respective one of the microphones. The speaker is arranged to emit audio into an ear. The electronics are coupled to the adaptive phased array and the speaker and include logic that when executed causes the ear-mountable listening device receive a user input identifying a first sound for cancelling or amplifying, steer a null or a lobe of the adaptive phased array based upon the user input, and generate a second audio signal that drives the speaker based upon a combination of one or more of the first audio signals.

Abstract: In some embodiments, an ear-mounted sound reproduction system is provided. The system includes an ear-mountable housing that sits within the pinna of the ear and occludes the ear canal. In some embodiments, the ear-mountable housing includes a plurality of external-facing microphones. Because the external-facing microphones may be situated within the pinna of the ear but outside of the ear canal, the microphones will experience some, but not all, of the three-dimensional acoustic effects of the pinna. In some embodiments, sound is reproduced by an internal-facing driver element of the housing using a plurality of filters applied to the signals received by the plurality of external-facing microphones to preserve three-dimensional localization cues that would be present at the eardrum in the absence of the housing, such that the housing is essentially transparent to the user. In some embodiments, techniques are provided for deriving the plurality of filters.

Abstract: In some embodiments, an ear-mounted sound reproduction system is provided. The system includes an ear-mountable housing that sits within the pinna of the ear and occludes the ear canal. In some embodiments, the ear-mountable housing includes a plurality of external-facing microphones. Because the external-facing microphones may be situated within the pinna of the ear but outside of the ear canal, the microphones will experience some, but not all, of the three-dimensional acoustic effects of the pinna. In some embodiments, sound is reproduced by an internal-facing driver element of the housing using a plurality of filters applied to the signals received by the plurality of external-facing microphones to preserve three-dimensional localization cues that would be present at the eardrum in the absence of the housing, such that the housing is essentially transparent to the user. In some embodiments, techniques are provided for deriving the plurality of filters.

Abstract: In some embodiments, an ear-mounted sound reproduction system is provided. The system includes an ear-mountable housing that sits within the pinna of the ear and occludes the ear canal. In some embodiments, the ear-mountable housing includes a plurality of external-facing microphones. Because the external-facing microphones may be situated within the pinna of the ear but outside of the ear canal, the microphones will experience some, but not all, of the three-dimensional acoustic effects of the pinna. In some embodiments, sound is reproduced by an internal-facing driver element of the housing using a plurality of filters applied to the signals received by the plurality of external-facing microphones to preserve three-dimensional localization cues that would be present at the eardrum in the absence of the housing, such that the housing is essentially transparent to the user. In some embodiments, techniques are provided for deriving the plurality of filters.

Abstract: An improved device for enabling a non-sterile container of liquid, such as, for example, a bottle to be introduced into a sterile environment. In one embodiment, the device seals the non-sterile container within a drape so that the non-sterile container can be introduced into the sterile environment. The device may include a drape having an interior cavity for receiving the non-sterile container and a cap coupled to the enclosure for coupling to the non-sterile container so that the liquid product may flow through the sterile cap.

Abstract: An improved device for enabling a non-sterile container of liquid, such as, for example, a bottle to be introduced into a sterile environment. In one embodiment, the device seals the non-sterile container within a drape so that the non-sterile container can be introduced into the sterile environment. The device may include a drape having an interior cavity for receiving the non-sterile container and a cap coupled to the enclosure for coupling to the non-sterile container so that the liquid product may flow through the sterile cap.

Abstract: The present invention relates to disinfectant formulations containing: (i) an antimicrobial active agent selected from the group consisting of biguanides, monoguanides, and combinations thereof; (ii) a compound selected from the group consisting of a dialkyldimethyl ammonium salt, an alkyldimethylbenzyl ammonium salt, an alkyldimethyl(ethylbenzyl) ammonium salt, and combinations thereof wherein the formulation is free of sequestrants. The total amount of the component (i) and the component (ii) is from about 500 ppm to about 1000 ppm based on the weight of the disinfectant formulation, and the component (i) and the component (ii) are present in a range of weight ratios between about 1:1 and about 1:10.

Abstract: One example embodiment includes a system for securing a portion of a medical device. The system includes a first arm, where the first arm includes a gripper. The system also includes a second arm. The second arm is attached to the first arm, can move relative to the first arm and includes a gripper. The gripper of the first arm and the gripper of the second arm are configured to grip an external object. The system further includes a fastener, where the fastener is configured to releasably attach the first arm to the second arm, and a holder, where the holder is configured to hold at least a portion of a medical device.

Abstract: One example embodiment includes a system for securing a portion of a medical device. The system includes a first arm, where the first arm includes a gripper. The system also includes a second arm. The second arm is attached to the first arm, can move relative to the first arm and includes a gripper. The gripper of the first arm and the gripper of the second arm are configured to grip an external object. The system further includes a fastener, where the fastener is configured to releasably attach the first arm to the second arm, and a holder, where the holder is configured to hold at least a portion of a medical device.

Abstract: The present invention relates to a stable and effective sanitizer formulation for indirect food contact applications. The formulation contains: (a) an antimicrobial active agent selected from the group consisting of biguanides, monoguanides, and combinations thereof; (b) a dialkyldimethyl ammonium salt, and (c) a compound selected from the group consisting of an alkyldimethylbenzyl ammonium salt, an alkyldimethyl(ethylbenzyl) ammonium salt, an alkoxylated alcohol, and combinations thereof.

Abstract: A method and system for flexibly transferring data from one or more data sources to one or more data destinations within an information network where each of the one or more data sources have data in a particular source format and each of the one or more data destinations have data in the same or another particular destination format using a parameter database that includes parameters to control the transfer of data, a scheduler that initiates the transfer of data, and a data loader in communications with the parameter database and scheduler that, upon initiation by the scheduler, extracts data from the one or more data sources, manipulates the extracted source data into one or more destination formats associated with the one or more data destinations, and inserts the data into one or more data destinations according to the parameters within the parameter database.

Abstract: The combination of a coulter mounting and a coulter, the coulter mounting including an S-tyne spring, one end of which is securable to the coulter and the other end of which is securable to a support such that the angle between said other end of the spring and the horizontal is 36°±7°; and the coulter including a coulter tip having a width not greater than 12 millimetres.

Abstract: Method and apparatus for automatic reception enhancement of hearing assistance devices. The present subject matter relates to methods and apparatus for automatic reception enhancement in hearing assistance devices. It provides a power estimation scheme that is reliable against both steady and transient input. It provides a TSM estimation scheme that is effective and efficient both in terms of storage size and computational efficiency. The embodiments employing a decision tree provide a weight factor between the omnidirectional and compensated directional signal. The resulting decision logic improves speech intelligibility when talking under noisy conditions. The decision logic also improves listening comfort when exposed to noise. Additional method and apparatus can be found in the specification and as provided by the attached claims and their equivalents.

Abstract: A tool usage monitoring apparatus includes a housing in which is positioned a battery powered sensor and a processing unit. The processing unit is in communication with the sensor and controls power from the battery to the sensor, to switch the sensor from an active state and a dormant state. The processing unit includes a memory and a timer. The processing unit is programmed to switch the sensor from a dormant state to an active state at a preset periodic interval and record sensor data into the memory. The periodic time interval is not more than approximately every twenty minutes and not less than approximately every one minute, in order to maintain an accurate record of tool usage, while minimizing the size of the battery and the size of the memory required to record months of usage data.

Abstract: A system for fixing a substrate with a heat transferring device in an assembled orientation; the system comprising: a substantially rod-shaped positioning member having a length generally symmetrically oriented about an axis and a generally constant lateral expanse substantially perpendicular with said axis substantially along said length; said positioning member interferingly fitting within at least one of a first aperture in said substrate and a second aperture in said heat transferring device to maintain a predetermined separation between said substrate and said heat transferring device in said assembled orientation.

Abstract: A method and system for flexibly transferring data from one or more data sources to one or more data destinations within an information network where each of the one or more data sources have data in a particular source format and each of the one or more data destinations have data in the same or another particular destination format using a parameter database that includes parameters to control the transfer of data, a scheduler that initiates the transfer of data, and a data loader in communications with the parameter database and scheduler that, upon initiation by the scheduler, extracts data from the one or more data sources, manipulates the extracted source data into one or more destination formats associated with the one or more data destinations, and inserts the data into one or more data destinations according to the parameters within the parameter database.