Abstract: A medical system for treating incontinence includes an implantable medical device (IMD) implantable proximate to a tibial nerve of a patient comprising therapy delivery circuitry configured to provide electrical stimulation therapy proximate the tibial nerve of the patient for treating incontinence, and processing circuitry configured to: during an implant period, determine a set of stimulation parameters to control the therapy delivery circuitry, during an induction period after the implant period, initiate electrical stimulation therapy according to the set of stimulation parameters, during a first maintenance period, determine an adjustment to the set of stimulation parameters as first maintenance period stimulation parameters to reduce the electrical stimulation therapy from the induction period, and during a second maintenance period, determine an adjustment to the set of stimulation parameters as second maintenance period stimulation parameters to reduce the electrical stimulation therapy from the first

Abstract: A method includes identifying an image captured by an image capture device set at a first angle about an axis, the image corresponding to a time at which the image was captured, identifying within the image, a region of interest including an object to be used for calibration, determining, an image coordinate at which the object is displayed within the image, determining a camera angle corresponding to a position of the image capture system relative to the axis when the image was captured, identifying a bearing of the object relative to the reference direction, the bearing of the object determined using a geolocation of the image capture system and the time at which the image was captured, and determining, using the image coordinate, the camera angle, and the bearing of the object, an angular offset between the first angle and the reference direction to determine a second angle.

Abstract: Some embodiments relate to a spine of a chassis (e.g., an electrical panel). The spine includes receiving compartments configured to receive chassis modules, wherein each receiving compartment is formed by: a portion of a panel, a portion of a wall raised from a first edge of the panel and extending along the first edge, portions of two bus bars spaced apart from each other and fixed to the panel; and one or more guiding structures extending from a surface of the first wall, where the guiding structures configured to (a) engage with chassis modules and (b) prevent the received chassis modules from sliding into an adjacent receiving compartment.

Abstract: Some embodiments relate to a chassis module for a chassis, the chassis module includes an insertion element configured to slide into one of a plurality of receiving compartments of a spine of the chassis. The insertion element includes a first electrical contact and a second electrical contact. The first electrical contact is on a first side of the insertion element and is configured to physically contact a first bus bar of the spine. The second electrical contact is on a second side of the insertion element opposite the first side. The second electrical contact is configured to contact a second bus bar of the spine.

Abstract: The present disclosure provides transmit/receive (T/R) systems for NMR or MRI systems. In one configuration, the systems and methods provided herein may use passively-shielded coils that are compatible with low-field operational environment to replace conventional T/R systems and spatial gradient systems. In some configurations, a low-field imaging T/R system is provided that is designed for nuclear magnetic stimulation and local flux sensitivity, while automatically rejecting incident radiant electromagnetic noise. The design advantageously leverages low required frequencies to distribute the pulse synthesis task, yielding a smaller system with easier maintenance and lower cost. The system may include distributed coil nodes that include a primary radiofrequency (RF) coil configured to transmit and receive RF signals and a secondary coil configured to passively shield the primary RF coil.

Abstract: A user interface for a power transfer device configured to wirelessly transfer transcutaneous power to an implantable medical device. The user interface may enable a user to start and stop power transfer, e.g., to recharge a battery? on the implantable medical device. In some examples, the user interface may present the user a display that indicates whether the power transfer device is performing open or closed loop recharging, indicate and control therapy delivery? status of the implantable medical device and indicate both die power transfer device battery? level and/or indicate the battery level for the implantable medical device, lire user interface may communicate with the user with a set of indicator lights that may flash, pulse and change color as needed.

Abstract: A method includes identifying an image captured by an image capture device set at a first angle about an axis, the image corresponding to a time at which the image was captured, identifying within the image, a region of interest including an object to be used for calibration, determining, an image coordinate at which the object is displayed within the image, determining a camera angle corresponding to a position of the image capture system relative to the axis when the image was captured, identifying a bearing of the object relative to the reference direction, the bearing of the object determined using a geolocation of the image capture system and the time at which the image was captured, and determining, using the image coordinate, the camera angle, and the bearing of the object, an angular offset between the first angle and the reference direction to determine a second angle.

Abstract: A portion of an electrical panelboard may include an arc fault circuit interruption (AFCI) protection system configured to detect arc fault events occurring in branch circuits and interrupt the flow of electricity in one or more of the branch circuits, where interruption switching devices of the AFCI protection system are electrically coupled between (a) one or more bus bars of the electrical panelboard and (b) branch circuit terminals of the electrical panelboard. The portion of the panelboard may also include an interface panel that enables a user to interact with the AFCI protection system.

Abstract: A method includes identifying an image captured by an image capture device set at a first angle about an axis, the image corresponding to a time at which the image was captured, identifying within the image, a region of interest including an object to be used for calibration, determining, an image coordinate at which the object is displayed within the image, determining a camera angle corresponding to a position of the image capture system relative to the axis when the image was captured, identifying a bearing of the object relative to the reference direction, the bearing of the object determined using a geolocation of the image capture system and the time at which the image was captured, and determining, using the image coordinate, the camera angle, and the bearing of the object, an angular offset between the first angle and the reference direction to determine a second angle.

Abstract: A method includes identifying an image captured by an image capture device set at a first angle about an axis, the image corresponding to a time at which the image was captured, identifying within the image, a region of interest including an object to be used for calibration, determining, an image coordinate at which the object is displayed within the image, determining a camera angle corresponding to a position of the image capture system relative to the axis when the image was captured, identifying a bearing of the object relative to the reference direction, the bearing of the object determined using a geolocation of the image capture system and the time at which the image was captured, and determining, using the image coordinate, the camera angle, and the bearing of the object, an angular offset between the first angle and the reference direction to determine a second angle.

Abstract: A method includes identifying an image captured by an image capture device set at a first angle about an axis, the image corresponding to a time at which the image was captured, identifying within the image, a region of interest including an object to be used for calibration, determining, an image coordinate at which the object is displayed within the image, determining a camera angle corresponding to a position of the image capture system relative to the axis when the image was captured, identifying a bearing of the object relative to the reference direction, the bearing of the object determined using a geolocation of the image capture system and the time at which the image was captured, and determining, using the image coordinate, the camera angle, and the bearing of the object, an angular offset between the first angle and the reference direction to determine a second angle.

Abstract: A method includes identifying an image captured by an image capture device set at a first angle about an axis, the image corresponding to a time at which the image was captured, identifying within the image, a region of interest including an object to be used for calibration, determining, an image coordinate at which the object is displayed within the image, determining a camera angle corresponding to a position of the image capture system relative to the axis when the image was captured, identifying a bearing of the object relative to the reference direction, the bearing of the object determined using a geolocation of the image capture system and the time at which the image was captured, and determining, using the image coordinate, the camera angle, and the bearing of the object, an angular offset between the first angle and the reference direction to determine a second angle.

Abstract: The present disclosure provides transmit/receive (T/R) systems for NMR or MRI systems. In one configuration, the systems and methods provided herein may use passively-shielded coils that are compatible with low-field operational environment to replace conventional T/R systems and spatial gradient systems. In some configurations, a low-field imaging T/R system is provided that is designed for nuclear magnetic stimulation and local flux sensitivity, while automatically rejecting incident radiant electromagnetic noise. The design advantageously leverages low required frequencies to distribute the pulse synthesis task, yielding a smaller system with easier maintenance and lower cost. The system may include distributed coil nodes that include a primary radiofrequency (RF) coil configured to transmit and receive RF signals and a secondary coil configured to passively shield the primary RF coil.

Abstract: A portable hoist and a winch. The winch and hoist can be integrated in a single housing or can be attached to one another. The portable hoist provides a user with the ability to hang the portable hoist without the use of other lifting devices, cranes, or rigging and allows the user to do it in a safer manner with less man power. The portable hoist can have a safety pin configured to secure the winch hook in a secured position so as to allow the hoist to lift increased loads.