Abstract: Exemplary embodiments of the present disclosure include systems and methods for treatment of occlusions, including coronary artery chronic total occlusions.

Abstract: There is provided a method of mounting equipment to an aircraft. The method comprises attaching a mounting structure to the fuselage of the aircraft, the fuselage extending lengthwise along a longitudinal axis. This comprises irremovably attaching a plurality of substantially planar frames to the exterior of the fuselage, such that each frame is oriented orthogonal to the longitudinal axis and spaced apart from an adjacent frame; and irremovably attaching a plurality of intercostal ribs between pairs of adjacent frames of the plurality frames, such that each rib is oriented parallel to the longitudinal axis and attached to each of a pair of said adjacent frames. The method further comprises mounting equipment to or within the mounting structure; and covering the mounting structure and the equipment mounted thereon or therein with a cover. The method further comprises removably attaching the cover to the mounting structure or the fuselage. An assembly, structure, tailplane and aircraft are also provided.

Abstract: The present disclosure includes catheter systems and methods for treatment of occlusions, including coronary artery chronic total occlusions. The catheter system comprises a catheter coupled to a control system with a distal end inserted into a patient and proximal to a location within a blood vessel with an occlusion. The catheter comprises a flexible outer sheath surrounding a housing with a plurality of lumens to perform various functions to penetrate occlusions.

Abstract: There is provided a method of mounting equipment to an aircraft having an empennage. The method comprises mounting equipment to a mounting structure for mounting to the aircraft; removing an access panel from the outer skin of the empennage of the aircraft to reveal an access panel opening into the empennage; and attaching the mounting structure to or within the access panel opening such that at least a portion of the equipment extends beyond the outer skin of the empennage. The shape of the mounting structure at least partly conforms to the shape of the access panel opening. The method also comprises covering the mounting structure and the equipment mounted thereon with a cover, and attaching the cover to the mounting structure or the empennage. An assembly, structure, tailplane and aircraft are also provided.

Abstract: A personal patient warming apparatus includes a blanket having at least one pneumatic pathway formed therethrough and a plurality of orifices formed through at least one side thereof through which warmed air can exit to warm a patient. The blanket further includes a first portion configured to cover a first appendage of the patient when the blanket is disposed over the patient and a second portion configured to cover a second appendage of the patient when the blanket is disposed over the patient. Both the first portion and the second portion each include at least one tear line configured to form, when torn, an opening in the blanket through which at least one of the patient's appendages and an operating room table appendage board is disposed when disposing the blanket over the patient.

Abstract: A system and method for processing alarms includes receiving alarm data from a third-party data source, the alarm data having visual data, an area of interest, and a sought target. The system processes the visual data to detect an object in the area of interest, and then classifies the object either in conformance with the sought target or in nonconformance with the sought target. The system issues a positive alarm when the object is in conformance with the sought target, and issuing issues a false alarm when the object is in nonconformance with the sought target. Feedback is received from the third-party data source regarding an accuracy of the respective positive alarm and the false alarm.

Abstract: A system and method for processing alarms includes receiving alarm data from a third-party data source, the alarm data having visual data, an area of interest, and a sought target. The system processes the visual data to detect an object in the area of interest, and then classifies the object either in conformance with the sought target or in nonconformance with the sought target. The system issues a positive alarm when the object is in conformance with the sought target, and issuing issues a false alarm when the object is in nonconformance with the sought target. Feedback is received from the third-party data source regarding an accuracy of the respective positive alarm and the false alarm.

Abstract: There is provided a method of mounting equipment to an aircraft having an empennage. The method comprises mounting equipment to a mounting structure for mounting to the aircraft; removing an access panel from the outer skin of the empennage of the aircraft to reveal an access panel opening into the empennage; and attaching the mounting structure to or within the access panel opening such that at least a portion of the equipment extends beyond the outer skin of the empennage. The shape of the mounting structure at least partly conforms to the shape of the access panel opening. The method also comprises covering the mounting structure and the equipment mounted thereon with a cover, and attaching the cover to the mounting structure or the empennage. An assembly, structure, tailplane and aircraft are also provided.

Abstract: There is provided a method of mounting equipment to an aircraft. The method comprises attaching a mounting structure to the fuselage of the aircraft, the fuselage extending lengthwise along a longitudinal axis. This comprises irremovably attaching a plurality of substantially planar frames to the exterior of the fuselage, such that each frame is oriented orthogonal to the longitudinal axis and spaced apart from an adjacent frame; and irremovably attaching a plurality of intercostal ribs between pairs of adjacent frames of the plurality frames, such that each rib is oriented parallel to the longitudinal axis and attached to each of a pair of said adjacent frames. The method further comprises mounting equipment to or within the mounting structure; and covering the mounting structure and the equipment mounted thereon or therein with a cover. The method further comprises removably attaching the cover to the mounting structure or the fuselage. An assembly, structure, tailplane and aircraft are also provided.

Abstract: An anti-microbial air processor is configured and arranged to fit at least substantially across an airway in a personal patient-warming apparatus to thereby inactivate airborne microbes before those airborne microbes are exposed to a patient via warming air delivered by the personal patient-warming apparatus. By one approach, the anti-microbial air processor comprises an anti-microbial air filter. By another approach, in lieu of the foregoing or in combination therewith, the anti-microbial air processor comprises one or more ultraviolet light sources configured to expose at least one inner surface of the personal patient-warming apparatus to ultraviolet light to thereby inactivate microbes.

Abstract: An anti-microbial air processor is configured and arranged to fit at least substantially across an airway in a personal patient-warming apparatus to thereby inactivate airborne microbes before those airborne microbes are exposed to a patient via warming air delivered by the personal patient-warming apparatus. By one approach, the anti-microbial air processor comprises an anti-microbial air filter. By another approach, in lieu of the foregoing or in combination therewith, the anti-microbial air processor comprises one or more ultraviolet light sources configured to expose at least one inner surface of the personal patient-warming apparatus to ultraviolet light to thereby inactivate microbes.

Abstract: A personal patient warming apparatus includes a blanket having at least one pneumatic pathway formed therethrough and a plurality of orifices formed through at least one side thereof through which warmed air can exit to warm a patient. The blanket further includes a first portion configured to cover a first appendage of the patient when the blanket is disposed over the patient and a second portion configured to cover a second appendage of the patient when the blanket is disposed over the patient. Both the first portion and the second portion each include at least one tear line configured to form, when torn, an opening in the blanket through which at least one of the patient's appendages and an operating room table appendage board is disposed when disposing the blanket over the patient.

Abstract: Method for input and output of data with non-standard I/O devices for web and other applications is presented. In one aspect, non-standard input data is received from the non-standard input device at a client, and the non-standard input data is provided as equivalent standard input data to the standard browser running on the client, so that the standard browser can submit the input data to an application running on a server in communication with the client over a network.

Abstract: A control circuit wirelessly couples to at least one free-standing wireless temperature sensor that the control circuit employs to monitor a temperature corresponding to a patient and thereby provide monitored-temperature information that the control circuit then uses to control personal warming of the patient. By one approach the control circuit can also wirelessly couple to one or more non-free-standing wireless temperature sensors the control circuit can also use to provide additional monitored-temperature information regarding the patient, which additional monitored-temperature information the control circuit can further use when controlling personal warming of the patient.

Abstract: An anti-microbial air processor is configured and arranged to fit at least substantially across an airway in a personal patient-warming apparatus to thereby inactivate airborne microbes before those airborne microbes are exposed to a patient via warming air delivered by the personal patient-warming apparatus. By one approach, the anti-microbial air processor comprises an anti-microbial air filter. By another approach, in lieu of the foregoing or in combination therewith, the anti-microbial air processor comprises one or more ultraviolet light sources configured to expose at least one inner surface of the personal patient-warming apparatus to ultraviolet light to thereby inactivate microbes.

Abstract: A patient warming apparatus includes a compressible patient support pad and an electrically-resistive heating film disposed in conjunction with the compressible patient support pad that is configured to provide heat to at least a portion of a patient that is supported atop the compressible patient support pad. By one approach the electrically-resistive heating film comprises a substantially non-resilient, dead-foldable film substrate. By one approach the substantially non-resilient, dead-foldable film substrate comprises a polyimide cloth-like film having a conductive coating permanently adhered to one side thereof. This conductive coating can form two physically-separated electrodes. By one approach these electrodes need not be electrically coupled by conductive traces.

Abstract: A patient-warming apparatus integrally comprises a patient-support substrate, a patient-heating element disposed proximal to the patient-support substrate, and an electrosurgical return electrode that is also disposed proximal to the patient-support substrate. By one approach the electrosurgical return electrode is integral to the patient-heating element. By another approach the electrosurgical return electrode is disposed between the patient-support substrate and the patient-heating element. In all of these cases, if desired, the electrosurgical return electrode comprises a part of a capacitively-coupled electrosurgical return electrode.

Abstract: Performing local peer volume polling by a mobile device is provided. In response to determining that a polling function is enabled in a mobile device, a request is transmitted to each of the peer mobile devices using the polling function. The polling function requests audible operation level setting data from peer mobile devices within a predetermined distance of the mobile device. A map is computed of the peer mobile devices, along with their associated audible operation level settings, based on responses to the request for the audible operation level setting data. The map and audible operation level settings for the peer mobile devices are analyzed using rules to detect an inappropriate volume setting for the mobile device. In response to determining that a current audible operation level setting for the mobile device is inappropriate using the rules, a new audible operation level setting is applied to the mobile device.

Abstract: A system for performing peer volume polling is presented. A request is transmitted to peer mobile devices using a polling function in a mobile device. The polling function requests audible operation level setting data from peer mobile devices within a predetermined distance of the mobile device. A map is computed of the peer mobile devices, along with their associated audible operation level settings, based on responses to the request. The map and audible operation level settings are analyzed using rules to detect an inappropriate volume setting for the mobile device. In response to determining that a current audible operation level setting for the mobile device is inappropriate, a new audible operation level setting is applied to the mobile device.