Abstract: Various embodiments of a bioelectric sensor device and a method of utilizing such device are disclosed. The bioelectric sensor device includes a central portion and an arm extending from the central portion, where at least a portion of the arm extends along an arm axis. The central portion includes an anatomical alignment mark adapted to align the central portion with an anatomical feature of a lateral surface of a torso of a patient. Further, the arm is adapted to be disposed on an anterior or posterior surface of the torso. The bioelectric sensor device also includes a sensor disposed on the arm along the arm axis, and a connector electrically connected to the sensor.

Abstract: In some examples, a catheter assembly includes a delivery catheter defining a delivery catheter lumen, a delivery catheter handle connected to the delivery catheter, a retrieval catheter defining a retrieval catheter lumen configured to receive the delivery catheter, and a retrieval catheter handle connected to the retrieval catheter. A proximal end of the retrieval catheter handle is configured to removably couple to a distal end of the delivery catheter handle.

Abstract: Techniques for systems and methods for remotely monitoring a patient are provided. The system comprises a plurality of input sources operable to acquire patient-specific information corresponding to a condition of a patient. A patient-centric threshold is computed based on relevant environmental, cultural, societal, religion, and economic data for evaluation of the acquired physiological parameters. Risk stratification is performed to determine the risk level of the patient based on the patient-centric threshold, and a recommendation is generated. The recommendation includes a treatment/care plan that can consist of prescriptions and patient education tailored to the risk stratification and patient-specific information.

Abstract: Techniques for systems and methods for remotely monitoring a patient are provided. The system comprises a plurality of input sources operable to acquire patient-specific information corresponding to a condition of a patient. A patient-centric threshold is computed based on relevant environmental, cultural, societal, religion, and economic data for evaluation of the acquired physiological parameters. Risk stratification is performed to determine the risk level of the patient based on the patient-centric threshold, and a recommendation is generated. The recommendation includes a treatment/care plan that can consist of prescriptions and patient education tailored to the risk stratification and patient-specific information.

Abstract: Techniques for facilitating telemetry with an implantable device are provided. In one embodiment, an implantable device includes a detection component configured to detect first vibration activity generated by a mobile electronic device external to the implantable device. The first vibration activity includes one or more defined vibration behaviors. The implantable device further includes a memory that stores executable components, and a processor that executes the executable components stored in the memory. In some embodiments, an executable component includes an analysis component configured to determine whether the first vibration activity has a defined level of similarity with a first vibration pattern identifier.

Abstract: Techniques for facilitating telemetry with an implantable device are provided. In one embodiment, an implantable device includes a detection component configured to detect first vibration activity generated by a mobile electronic device external to the implantable device. The first vibration activity includes one or more defined vibration behaviors. The implantable device further includes a memory that stores executable components, and a processor that executes the executable components stored in the memory. In some embodiments, an executable component includes an analysis component configured to determine whether the first vibration activity has a defined level of similarity with a first vibration pattern identifier.

Abstract: A nasal air filtration device includes a pair of either planar or concave-convex filters, a support structure incorporating a pair of generally annular bases or sleeves for supporting the filters, and a bridge that couples the bases or sleeves to maintain them in a desired spaced-apart relation and to determine a desired angular relationship. The support structure is insertable into the nasal cavities to position the filters within corresponding nasal cavities. Flexible rims maintain the support structure and the filters in spaced-apart relation to the surrounding nasal wall. The filters may be placed within the bases at an angle with respect to the walls of the bases. Also, the filtration device may be flesh tone in color, thereby blending with the skin tone of the user. In some embodiments, a post structure is supplied for supplying a scent or aroma to the wearer.

Abstract: A nasal air filtration device includes a pair of either planar or concave-convex filters, a support structure incorporating a pair of generally annular bases or sleeves for supporting the filters, and a bridge that couples the bases or sleeves to maintain them in a desired spaced-apart relation and to determine a desired angular relationship. The support structure is insertable into the nasal cavities to position the filters within corresponding nasal cavities. Flexible rims maintain the support structure and the filters in spaced-apart relation to the surrounding nasal wall. The filters may be placed within the bases at an angle with respect to the walls of the bases. Also, the filtration device may be flesh tone in color, thereby blending with the skin tone of the user. In some embodiments, a post structure is supplied for supplying a scent or aroma to the wearer.

Abstract: Devices, systems, and methods for measuring tissue oxygen saturation (StO2) within the body are disclosed. A patient interface for use with a tissue measurement instrument can include a spring clip having a first arm and a second arm, a spring configured to bias the first and second arms together, and a means for optically connecting the patient interface to the tissue measurement instrument. The patient interface can be used in conjunction with an optical sourcing and receiving unit of a monitor for measuring tissue oxygen saturation at a measurement site on the patient. A testing interface on an external portion of the instrument housing and a testing module can be used to perform tests on the instrument.

Abstract: A nasal air filtration device includes a pair of either planar or concave-convex filters, a support structure incorporating a pair of generally annular bases or sleeves for supporting the filters, and a bridge that couples the bases or sleeves to maintain them in a desired spaced-apart relation and to determine a desired angular relationship. The support structure is insertable into the nasal cavities to position the filters within corresponding nasal cavities. Flexible rims maintain the support structure and the filters in spaced-apart relation to the surrounding nasal wall. The rims conform to surrounding nasal tissue to form seals. The rims can be selectively inclined to facilitate insertion and resist accidental removal. In certain embodiments the device is combined with a filter that covers the mouth to provide an air filtration system.

Abstract: Devices, systems, and methods for measuring tissue oxygen saturation (StO2) within the body are disclosed. A patient interface for use with a tissue measurement instrument can include a spring clip having a first arm and a second arm, a spring configured to bias the first and second arms together, and a means for optically connecting the patient interface to the tissue measurement instrument. The patient interface can be used in conjunction with an optical sourcing and receiving unit of a monitor for measuring tissue oxygen saturation at a measurement site on the patient. A testing interface on an external portion of the instrument housing and a testing module can be used to perform tests on the instrument.

Abstract: A nasal air filtration device includes a pair of either planar or concave-convex filters, a support structure incorporating a pair of generally annular bases or sleeves for supporting the filters, and a bridge that couples the bases or sleeves to maintain them in a desired spaced-apart relation and to determine a desired angular relationship. The support structure is insertable into the nasal cavities to position the filters within corresponding nasal cavities. Flexible rims maintain the support structure and the filters in spaced-apart relation to the surrounding nasal wall. The filters may be placed within the bases at an angle with respect to the walls of the bases. Also, the filtration device may be flesh tone in color, thereby blending with the skin tone of the user. In some embodiments, a post structure is supplied for supplying a scent or aroma to the wearer.

Abstract: A nasal air filtration device includes a pair of either planar or concave-convex filters, a support structure incorporating a pair of generally annular bases or sleeves for supporting the filters, and a bridge that couples the bases or sleeves to maintain them in a desired spaced-apart relation and to determine a desired angular relationship. The support structure is insertable into the nasal cavities to position the filters within corresponding nasal cavities. Flexible rims maintain the support structure and the filters in spaced-apart relation to the surrounding nasal wall. The rims conform to surrounding nasal tissue to form seals. The rims can be selectively inclined to facilitate insertion and resist accidental removal. In certain embodiments the device is combined with a filter that covers the mouth to provide an air filtration system.