Abstract: A sealing system includes an outer member having a bore and an inner member received in the bore, the inner member including an outer surface with a shoulder. A seal member includes an outer annular insert having a first diameter and an inner annular insert having a second smaller diameter. An elastomeric body includes an outer portion over-molded on the outer annular insert and an inner portion over-molded on the inner annular insert and including an inner seal member extending radially inward from the inner annular insert. The elastomeric body including a webbing connecting the outer portion to the inner portion. the elastomeric body including a plurality of ribs extending radially outward from the inner portion of the elastomeric body along an interface between the webbing and the inner portion of the elastomeric body. The inner portion of the elastomeric body is against the shoulder on the inner member.

Abstract: A system and a method of non-invasive continuous echocardiographic monitoring is provided with an ultrasound transducer and a bedside monitor. The beside monitor includes a monitor central processing unit (CPU). First, the ultrasound transducer is attached onto a specific skin portion of a patient. The specific skin portion is positioned adjacent to a patient's heart. Next, continuous echocardiographic data is sensed with the ultrasound transducer. After relaying the continuous echocardiographic data from the ultrasound transducer to the monitor CPU, the monitor CPU generates a real-time ultrasound image of the heart from the continuous echocardiographic data. Finally, the real-time ultrasound image is outputted with the bedside monitor. If the bedside monitor has a main screen, then the real-time ultrasound image is displayed through a picture-in-picture format with the main screen.

Abstract: A monitoring apparatus and method includes a monitor, a sensor comprising a wireless connection with the monitor, and an adapter comprising the wireless connection with the monitor and a wired or wireless connection with a remote monitoring station. The monitor is designed to wirelessly pair with the sensor and/or the adapter when being only positioned by a user in a closed proximity to the sensor and/or the adapter or in a direct contact with the sensor and/or the adapter and without an additional action by the user and/or a wired connection between the monitor and the sensor and/or the adapter. A pairing alignment mark may be provided on each of the monitor, sensor and adapter.

Abstract: A system and method of monitoring a life-threating medical situation based on an ejection-fraction measurement is provided with a medical monitoring system. The medical monitoring system includes a system central processing unit (CPU), and a normal ejection-fraction range managed by the system CPU. First, continuous echocardiographic data for a heart of a patient is received with system CPU. Next, a real-time ejection-fraction measurement is derived from the continuous echocardiographic data with the system CPU. Finally, if the real-time ejection-fraction measurement is outside of the normal ejection-fraction range, a life-threatening situation alert is outputted with the medical monitoring system.

Abstract: An image capture device, including: a heatsink, an integrated sensor and lens assembly (ISLA), and a battery cage. The heatsink includes a mounting flange. The ISLA extends through the heatsink. The battery cage being in communication with a finger mounting flange of the mounting flange to support the battery cage within the image capture device.

Abstract: An image capture device including first and second heatsinks and a printed circuit board that separates the first and second heatsinks and includes a processor configured to generate heat. The image capture device includes a conductor assembly that is configured to transfer heat by conduction and extends between the first heatsink, the processor, and the second heatsink.

Abstract: An image capture device includes a heatsink that absorbs thermal energy and a first component that generates thermal energy. The image capture device includes a second component that generates thermal energy and a first conductor that extends between the first component and the heatsink, and the first conductor moves thermal energy from the first component to the heatsink by conduction. The image capture device includes a second conductor that extends between the second component and the heatsink, and the second conductor has a portion perpendicularly extended relative to the first conductor. The second conductor moves thermal energy from the second component to the heatsink by conduction.

Abstract: An interaction checking method, device, and system determines health interactions, in real time, as images are collected from an environment and provides augmented informational data presentations of the same. The interactions are based on health information, historical information, and stored interaction data. In particular, the images are received from a camera viewing the environment and an identity is determined of the objects in the environment. Based on the identity determined, information about the objects is retrieved from a memory device, and an interaction warning is determined for a specific combination of the objects if the objects were to be used together. A display device augments visual data of the environment with the information about the objects in a presentation to a user that includes the interaction warning and information about the objects.

Abstract: A method for skeletonizing the strands of a composite material part in a 3D image having a step of detecting oriented section centers of the strands and a link from each center to the closest center having the same orientation, the detection being carried out by means of at least one reference volume having an oriented centered strand pattern, the detection step having, for each reference volume: • a step of determining portions of the image, • a step of calculating a correlation score between the reference volume and each portion associated with the central voxel of each portion, so as to obtain a correlation score for each voxel of the image; and • a step of determining the strand centers corresponding to the voxels having a correlation score which corresponds to a local maximum.

Abstract: A system and a method of non-invasive continuous echocardiographic monitoring is provided with an ultrasound transducer and a bedside monitor. The beside monitor includes a monitor central processing unit (CPU). First, the ultrasound transducer is attached onto a specific skin portion of a patient. The specific skin portion is positioned adjacent to a patient's heart. Next, continuous echocardiographic data is sensed with the ultrasound transducer. After relaying the continuous echocardiographic data from the ultrasound transducer to the monitor CPU, the monitor CPU generates a real-time ultrasound image of the heart from the continuous echocardiographic data. Finally, the real-time ultrasound image is outputted with the bedside monitor. If the bedside monitor has a main screen, then the real-time ultrasound image is displayed through a picture-in-picture format with the main screen.

Abstract: A system and a method of non-invasive continuous echocardiographic monitoring is provided with an ultrasound transducer and a bedside monitor. The beside monitor includes a monitor central processing unit (CPU). First, the ultrasound transducer is attached onto a specific skin portion of a patient. The specific skin portion is positioned adjacent to a patient's heart. Next, continuous echocardiographic data is sensed with the ultrasound transducer. After relaying the continuous echocardiographic data from the ultrasound transducer to the monitor CPU, the monitor CPU generates a real-time ultrasound image of the heart from the continuous echocardiographic data. Finally, the real-time ultrasound image is outputted with the bedside monitor. If the bedside monitor has a main screen, then the real-time ultrasound image is displayed through a picture-in-picture format with the main screen.

Abstract: A system and a method of non-invasive continuous echocardiographic monitoring is provided with an ultrasound transducer and a bedside monitor. The beside monitor includes a monitor central processing unit (CPU). First, the ultrasound transducer is attached onto a specific skin portion of a patient. The specific skin portion is positioned adjacent to a patient's heart. Next, continuous echocardiographic data is sensed with the ultrasound transducer. After relaying the continuous echocardiographic data from the ultrasound transducer to the monitor CPU, the monitor CPU generates a real-time ultrasound image of the heart from the continuous echocardiographic data. Finally, the real-time ultrasound image is outputted with the bedside monitor. If the bedside monitor has a main screen, then the real-time ultrasound image is displayed through a picture-in-picture format with the main screen.

Abstract: An image capture device, including: a heatsink, an integrated sensor and lens assembly (ISLA), and a battery cage. The heatsink includes a mounting flange. The ISLA extends through the heatsink. The battery cage being in communication with a finger mounting flange of the mounting flange to support the battery cage within the image capture device.

Abstract: An image capture device includes a heatsink having a cutout within the heatsink. The image capture device also includes a housing, a mounting structure located on an external side of the housing, and an integrated sensor and lens assembly (ISLA) extending through the cutout in the heatsink and connecting to the mounting structure. The ISLA is free of contact with the heatsink. The heatsink can include mounting flanges to support components including printed circuit boards and battery cages.

Abstract: An image capture device includes a heatsink that absorbs thermal energy and a first component that generates thermal energy. The image capture device includes a second component that generates thermal energy and a first conductor that extends between the first component and the heatsink, and the first conductor moves thermal energy from the first component to the heatsink by conduction. The image capture device includes a second conductor that extends between the second component and the heatsink, and the second conductor has a portion perpendicularly extended relative to the first conductor. The second conductor moves thermal energy from the second component to the heatsink by conduction.

Abstract: A passive cooling device is disclosed for use with a speaker integrated electronic device. Also disclosed is a method of using the device for generating passive cooling and increasing the sound output by the speaker integrated electronic device when outputting low frequency sound. The electronic device has an internal housing in which the speaker is located with a diaphragm extending through a void in the housing wall. The internal housing also has an air flow channel in fluid communication with the housing interior and an outlet adjacent an electronic component. Movement of the diaphragm directs moving air through the channel to reduce the operating temperature of the electronic component during speaker activation, while air movement in the internal housing increase the sound output by the speaker integrated electronic device.

Abstract: An image capture device includes a first component that is configured to provide thermal energy. A heatsink is spaced a distance apart from the first component, and a second component is positioned between the first component and the heatsink. A conductor contacts the first component and the heatsink, and the conductor extends from the first component along sides of the second component to the heatsink.

Abstract: An image capture device includes a first component that is configured to provide thermal energy. A heatsink is spaced a distance apart from the first component, and a second component is positioned between the first component and the heatsink. A conductor contacts the first component and the heatsink, and the conductor extends from the first component along sides of the second component to the heatsink.

Abstract: An image capture device includes a heatsink having a cutout within the heatsink. The image capture device also includes a housing, a mounting structure located on an external side of the housing, and an integrated sensor and lens assembly (ISLA) extending through the cutout in the heatsink and connecting to the mounting structure. The ISLA is free of contact with the heatsink. The heatsink can include mounting flanges to support components including printed circuit boards and battery cages.

Abstract: The method of assisting driving a vehicle includes constructing a digital model defining a quality index for a 3D inference image derived from an original image, the index being a function of similarity metrics defined between the original image and the 3D inference image, the construction making use of a set of observations obtained from reference 3D inference images resulting from applying 3D inference methods to a plurality of reference original images, these observations including measured values for 3D information represented on the reference 3D inference images; acquiring a first image of a three-dimensional scene that might have an influence on the driving of the vehicle; generating a 3D inference second image from the first image; estimating similarity metrics between the first and second images; evaluating the quality index for the second image by using the digital model and the estimated similarity metrics; and as a function of the quality index as estimated, a step of using the second image to assi