Abstract: Disclosed herein is a method of treating Idiopathic Pulmonary Fibrosis (IPF). The method includes administering to a subject in need thereof the deuterium-enriched pirfenidonc LYT-100 at a total daily dose from about 1650 mg to about 2500 mg.

Abstract: Electric fields that can cause corrosion of contacts can be compensated for by embodiments of the present invention. For example, voltage waveforms at the contacts can be made to have a zero volt average, and therefore have a zero net electric field. Galvanic voltages generated by dissimilar metals used by a contact and a housing can generate an electric field, and currents motivated by the galvanic electric field can be blocked by capacitively coupling the contacts to their corresponding circuits.

Abstract: Examples provide magnets for electronic devices. The magnets can be formed as unitary structures using metal-injection molding. The magnets can be referred to as neodymium magnets. That is, they can be formed of neodymium, iron, and boron. The magnet can comprise a plurality of easy axes, where the plurality of easy axes are not parallel.

Abstract: A connector includes a housing that includes an engagement member and defines a recess that is configured to receive a retaining structure of a corresponding connector of a device, and a release. When the connector is mated with the corresponding connector of the device, the release is configured to cause movement of the engagement member to displace the retaining structure from the recess.

Abstract: A component for a wearable electronic device can include a housing defining an internal volume, a first connector that is removably attachable to a head-mounted display. the first connector configured to electrically connect to the head-mounted display. and a second connector that is removably attachable to a supplemental unit. the second connector configured to electrically connect to the supplemental unit. The component can include a stiffener disposed in the internal volume, and the stiffener can be flexible along a first axis and rigid along two axes that are perpendicular to the first axis and to each other. An operational component can be disposed in the internal volume, and the operational component can be electrically connected to at least one of the first connector or the second connector.

Abstract: A magnetic alignment system can include a primary annular magnetic alignment component and a secondary annular magnetic alignment component. The primary alignment component can include an inner annular region having a first magnetic orientation, an outer annular region having a second magnetic orientation opposite to the first magnetic orientation, and a non-magnetized central annular region disposed between the primary inner annular region and the primary outer annular region. The secondary alignment component can have a magnetic orientation with a radial component. Additional features, such as a rotational magnetic alignment component and/or an NFC coil and circuitry can be included.

Abstract: A magnetic alignment system can include a primary annular magnetic alignment component and a secondary annular magnetic alignment component. The primary alignment component can include an inner annular region having a first magnetic orientation, an outer annular region having a second magnetic orientation opposite to the first magnetic orientation, and a non-magnetized central annular region disposed between the primary inner annular region and the primary outer annular region. The secondary alignment component can have a magnetic orientation with a radial component.

Abstract: A wirelessly locatable tag may include a first housing member defining an exterior surface of the wirelessly locatable tag and a frame member attached to the first housing member and defining a battery cavity configured to receive a button cell battery and an opening through the frame member. The wirelessly locatable tag may further include a circuit board positioned between the first housing member and the frame member, a battery connector coupled to the circuit board and comprising a deflectable arm extending into the battery cavity through the opening in the frame member, a second housing member removably coupled to the frame member, and a biasing member configured to bias the button cell battery into the battery cavity of the frame member and against the deflectable arm of the battery connector.

Abstract: Charging devices that can securely hold an electronic device in a useful position, fold into a compact shape, and provide power to the electronic device. One example can provide a wireless charger that can include a wireless charging assembly, a base, and a hinge connecting the wireless charging assembly to the base. When opened, the wireless charging assembly can be positioned upright relative to the base such that an electronic device being charged by the wireless charging assembly can be maintained in an upright position for easy viewing. The wireless charging assembly can be rotated, folded, or otherwise closed into a cavity or passage in the base, which can provide for easy transport. The hinge can be configured to readily open for use, while providing increased friction to resist closing. This increased friction can help the charger to securely hold the electronic device in place while charging.

Abstract: A wireless charging mat and method of operating the same. The wireless charging mat includes a detection system configured to determine a location and an orientation of an electronic device on the wireless charging mat. The location and orientation are determined based on detected locations of one or more structural features of the electronic device. The wireless charging mat is operated according to the detected location and orientation.

Abstract: An electronic device can include an enclosure and a receptacle connector coupled to the enclosure. The receptacle connector can include a housing defining an aperture and an internal volume. In some examples, the housing is configured to receive a plug connector of a support within the internal volume. The receptacle connector can include one or more electrical contacts at least partially disposed within the internal volume and contacting one or more correlating electrical contacts on the plug connector. In some examples, the plug connector and the receptacle connector can define respective convex surfaces and respective concave surfaces such that a cross-sectional shape of the plug connector and/or the receptacle connector has a curved longitudinal axis.

Abstract: An electronic device can include plug connectors and receptacle connectors for providing connections between components of the electronic device. A receptacle connector for an electronic device can include a cavity configured to receive a plug connector; a latch extending at least partially into the cavity; a spring coupled to the latch; and a lever arm coupled to the spring. The latch can be configured to transition between an engaged configuration and an un-engaged configuration. The latch can be configured to retain the plug connector in the cavity when the latch is in the engaged configuration. The spring can be configured to retain the latch in the engaged configuration. The lever arm can be configured to transition the latch to the un-engaged configuration in response to pressure from a tool.

Abstract: An electronic device can include a housing forming an aperture within an exterior surface of the housing. An electronic component can be disposed within the housing and include a receptacle coupled to the electronic component. The housing and the receptacle can form an electrical port. The electronic device can further include a first engagement feature and a cable having a first plug connector and a second plug connector. The first plug connector can include a boot, a plug, and a second engagement feature. The boot is receivable within the aperture formed within the exterior surface of the housing. The plug is receivable within the receptacle to electrically couple the electronic device with the cable. The second engagement feature can interconnect or otherwise engage the first engagement feature to retain the cable to the electronic device.

Abstract: A wireless charging mat and method of operating the same. The wireless charging mat includes a detection system configured to determine a location and an orientation of an electronic device on the wireless charging mat. The location and orientation are determined based on detected locations of one or more structural features of the electronic device. The wireless charging mat is operated according to the detected location and orientation.

Abstract: A receptacle connector includes a receptacle housing, pin contacts, and a retainer. The receptacle housing has a convex wall portion, a concave wall portion, a first side wall portion that extends between the convex wall portion and the concave wall portion, and a second side wall portion that extends between the convex wall portion and the concave wall portion. The convex wall portion, the concave wall portion, the first side wall portion, and the second side wall portion at least partially define a cavity having an open end. The pin contacts are located in the cavity of the receptacle housing. The retainer has a first side latch and a second side latch that are configured to extend into the cavity in an engaged position and to move outward from the cavity to a disengaged position.

Abstract: Adapters that can mount phones or other electronic devices on camera stabilizers, where the adapters are portable, can capable of charging, and can allow cameras on the phones to be easily leveled or adjusted to any orientation. An adapter can include a base portion having an opening, where a fastener in the opening can attach the adapter to a camera stabilizer, as well as an upright portion having an enclosure and a contacting surface. The enclosure can house a first magnet array for magnetically attracting a second magnet array in a phone, such that the phone can be readily mounted to a camera stabilizer. The enclosure can further house near-field communication circuits and components for identification. The upright portion and base portion can be connected by a fixed right angle or by a hinge, which can allow the adapter to fold into a more convenient form.

Abstract: A magnetic alignment system can include a primary annular magnetic alignment component and a secondary annular magnetic alignment component. The primary alignment component can include an inner annular region having a first magnetic orientation, an outer annular region having a second magnetic orientation opposite to the first magnetic orientation, and a non-magnetized central annular region disposed between the primary inner annular region and the primary outer annular region. The secondary alignment component can have a magnetic orientation with a radial component. Additional features, such as a rotational magnetic alignment component and/or an NFC coil and circuitry can be included.

Abstract: A shield for redirecting magnetic field generated from a plurality of transmitter coils includes a ferromagnetic structure divided into segments by a plurality of boundary regions, each segment comprises a first material having a first magnetic permeability and each boundary region comprises a second material having a second magnetic permeability lower than the first magnetic permeability, where the plurality of boundary regions are configured to resist a propagation of magnetic field from a first area of the ferromagnetic structure to a second area of the ferromagnetic structure, where the first area intercepts the magnetic field generated from at least one active transmitter coil of the plurality of transmitter coils.

Abstract: A magnetic alignment system can include a primary annular magnetic alignment component and a secondary annular magnetic alignment component. The primary alignment component can include an inner annular region having a first magnetic orientation, an outer annular region having a second magnetic orientation opposite to the first magnetic orientation, and a non-magnetized central annular region disposed between the primary inner annular region and the primary outer annular region. The secondary alignment component can have a magnetic orientation with a radial component.