Abstract: A personal watercraft comprises a hull, a deck and a seal. The deck is provided to the hull. The deck includes a first deck and a second deck that is disposed rearward relative to the first deck. The first deck and the second deck are connected to each other at overlapping sections thereof that overlap each other in a vertical direction to form an overlapping portion of the deck. The seal is sandwiched between the overlapping sections of the first and second decks. The seal includes a first seal member that continuously and laterally extends between lateral ends of the overlapping portion of the deck, and a pair of second seal members provided in vicinities of the lateral ends of the overlapping portion of the deck, the second seal members being further adjacent to end portions of the first seal member in a longitudinal direction of the personal watercraft, respectively.

Abstract: A personal watercraft is provided that comprises a hull, a deck, a handlebar, a steering column and a frame. The deck is provided to the hull. The handlebar has a steering shaft. The steering column rotatably supports the steering shaft. The frame is disposed between the hull and the deck and supports the steering column.

Abstract: A personal watercraft comprises a hull assembly and a deck. The hull assembly includes a hull and a liner. The hull has an outer peripheral support portion. The outer peripheral support portion has a first section with a first upper surface and a second section with a second upper surface. The liner has an outer ledge portion adhesively attached to the first upper surface of the first section of the outer peripheral support portion such that the outer ledge portion does not overlap the second upper surface of the second section of the outer peripheral support portion. The deck is provided to the hull assembly in a watertight manner. The first upper surface is located at a height position that is different from a height position of the second upper surface with respect to a vertical direction.

Abstract: Systems, methods, and computer-readable media are described for creating custom user interface (“UI”) controls. A networked computing service may determine that an action performed by a user of the service is likely to be repeated, based on previous actions performed by the user and/or other users, parameters of the action including characteristics of an item associated with the action, and other criteria. The networked computing service may generate, or recommend generation of, a custom UI control that automates performance of the action. The networked computing service may automatically determine parameters of the action, and may determine alternative parameters and/or alternative actions if the action cannot be performed using the determined parameters. Custom UI controls may be associated with various computing devices and/or other electronic devices, and categories of custom UI controls may be determined and displayed.

Abstract: A modular medical device employs a defibrillator/monitor (20) and one or more pouch modules (60). The defibrillator/monitor (20) includes a defibrillator and/or an electrocardiogram (“ECG”) monitor (e.g., a defibrillator module and a ECG monitor module). Each pouch module (60) is permanently or detachably adjoined to the defibrillator/monitor (20) and is structurally configured to store one or more accessory items (40, 50) in support of an operation of the defibrillator/monitor (20) (e.g., ECG cable(s), electrode(s), transducer(s), pad(s), data storage device(s), paper, communication device(s), first aid product(s)/fluid(s) and medical supply(ies)/tool(s)). Alternatively, a cradle module (70) having a frame may be employed by the modular medical device to adjoin the pouch module(s) (60) to the defibrillator/monitor (20) and may partially, if not entirely, encircle the defibrillator/monitor (20).

Abstract: Systems, methods, and computer-readable media are described for creating custom user interface (“UP”) controls. A networked computing service may determine that an action performed by a user of the service is likely to be repeated, based on previous actions performed by the user and/or other users, parameters of the action including characteristics of an item associated with the action, and other criteria. The networked computing service may generate, or recommend generation of, a custom UI control that automates performance of the action. The networked computing service may automatically determine parameters of the action, and may determine alternative parameters and/or alternative actions if the action cannot be performed using the determined parameters. Custom UI controls may be associated with various computing devices and/or other electronic devices, and categories of custom UI controls may be determined and displayed.

Abstract: Imaging apparatus (100, 200, 1200) includes a semiconductor substrate (312) and an array (202) of pixel circuits (1202, 1204), which are arranged in a matrix on the semiconductor substrate and define respective pixels (212) of the apparatus. Pixel electrodes (1208) are respectively coupled to the pixel circuits, and a photosensitive (1206) is formed over the pixel electrodes. A common electrode (1207), which is at least partially transparent, is formed over the photosensitive film. An opaque metallization layer (1214) is formed over the photosensitive film on one or more of the pixels and coupled in ohmic contact to the common electrode. Control circuitry (208, 1212) is coupled to apply a bias to the common electrode via the opaque metallization layer while correcting a black level of the output values from the pixels using the signals received from the one or more of the pixels over which the opaque metallization layer is formed.

Abstract: Various embodiments include methods and apparatuses for forming and using pixels for image sensors. In one embodiment, an image sensor is disclosed. The image sensor includes an optically sensitive material; a plurality of electrodes proximate the optically sensitive material, including at least a first electrode, a second electrode and a third electrode; and a charge store. The first electrode is coupled to the charge store, and the first electrode and the second electrode are configured to provide a bias to the optically sensitive material to direct photocarriers to the charge store. Other methods and apparatuses are disclosed.

Abstract: Systems, methods, and computer-readable media are described for creating custom user interface (“UI”) controls. A networked computing service may determine that an action performed by a user of the service is likely to be repeated, based on previous actions performed by the user and/or other users, parameters of the action including characteristics of an item associated with the action, and other criteria. The networked computing service may generate, or recommend generation of, a custom UI control that automates performance of the action. The networked computing service may automatically determine parameters of the action, and may determine alternative parameters and/or alternative actions if the action cannot be performed using the determined parameters. Custom UI controls may be associated with various computing devices and/or other electronic devices, and categories of custom UI controls may be determined and displayed.

Abstract: In various embodiments, image sensors and methods of making images sensors are disclosed. In an embodiment, an image sensor includes a first pixel region having a pixel electrode, an optically sensitive material of a first thickness, and a counterelectrode. The images sensor also includes a second pixel region comprising a pixel electrode, an optically sensitive material of a second thickness, and a counterelectrode. The first pixel region is configured to detect light in a first spectral band and the second pixel region is configured to detect light in a second spectral band. The first and second spectral bands include an overlapping spectral range. The second spectral band also includes a spectral range that is substantially undetectable by the first pixel region. Other image sensors and methods of making images sensors are also disclosed.

Abstract: Systems, methods, and computer-readable media are described for selecting and displaying custom user interface (“UI”) controls. A user of a networked computing service may create custom UI controls that perform user-specified actions, and the networked computing service may present these custom UI controls as part of its user interface. The networked computing service may determine which of a set of custom UI controls to present based on criteria such as frequency or recency of recurring usage, a context or a category associated with the custom UI controls, user preferences, the status of a pending action, usage of similar custom UI controls by other users, or other criteria. The networked computing service may present an interface that enables further customization or modification of the custom UI controls.

Abstract: Imaging apparatus (100, 200, 1200) includes a semiconductor substrate (312) and an array (202) of pixel circuits (1202, 1204), which are arranged in a matrix on the semiconductor substrate and define respective pixels (212) of the apparatus. Pixel electrodes (1208) are respectively coupled to the pixel circuits, and a photosensitive (1206) is formed over the pixel electrodes. A common electrode (1207), which is at least partially transparent, is formed over the photosensitive film. An opaque metallization layer (1214) is formed over the photosensitive film on one or more of the pixels and coupled in ohmic contact to the common electrode. Control circuitry (208, 1212) is coupled to apply a bias to the common electrode via the opaque metallization layer while correcting a black level of the output values from the pixels using the signals received from the one or more of the pixels over which the opaque metallization layer is formed.

Abstract: Systems, methods, and computer-readable media are described for creating custom user interface (“UI”) controls. A networked computing service may determine that an action performed by a user of the service is likely to be repeated, based on previous actions performed by the user and/or other users, parameters of the action including characteristics of an item associated with the action, and other criteria. The networked computing service may generate, or recommend generation of, a custom UI control that automates performance of the action. The networked computing service may automatically determine parameters of the action, and may determine alternative parameters and/or alternative actions if the action cannot be performed using the determined parameters. Custom UI controls may be associated with various computing devices and/or other electronic devices, and categories of custom UI controls may be determined and displayed.

Abstract: Described herein are LED chips incorporating self-aligned floating mirror layers that can be configured with contact vias. These mirror layers can be utilized to reduce dim areas seen around the contact vias due to underlying material layers without the need for the mirror layer to be designed at some tolerance distance from the electrical via. This increases mirror area, eliminating lower light reflection in the proximity of the via and producing higher light output with greater light emission uniformity. In some embodiments, the mirror layer is formed with a contact via. This allows for a self-aligning process and results in the mirror layer extending substantially from the edge of the via.

Abstract: In various embodiments, image sensors and methods of making images sensors are disclosed. In an embodiment, an image sensor includes a first pixel region having a pixel electrode, an optically sensitive material of a first thickness, and a counterelectrode. The images sensor also includes a second pixel region comprising a pixel electrode, an optically sensitive material of a second thickness, and a counterelectrode. The first pixel region is configured to detect light in a first spectral band and the second pixel region is configured to detect light in a second spectral band. The first and second spectral bands include an overlapping spectral range. The second spectral band also includes a spectral range that is substantially undetectable by the first pixel region. Other image sensors and methods of making images sensors are also disclosed.

Abstract: Systems, methods, and computer-readable media are described for creating custom user interface (“UP”) controls. A networked computing service may determine that an action performed by a user of the service is likely to be repeated, based on previous actions performed by the user and/or other users, parameters of the action including characteristics of an item associated with the action, and other criteria. The networked computing service may generate, or recommend generation of, a custom UI control that automates performance of the action. The networked computing service may automatically determine parameters of the action, and may determine alternative parameters and/or alternative actions if the action cannot be performed using the determined parameters. Custom UI controls may be associated with various computing devices and/or other electronic devices, and categories of custom UI controls may be determined and displayed.

Abstract: Various embodiments include methods and apparatuses for forming and using pixels for image sensors. In one embodiment, an image sensor is disclosed. The image sensor includes an optically sensitive material; a plurality of electrodes proximate the optically sensitive material, including at least a first electrode, a second electrode and a third electrode; and a charge store. The first electrode is coupled to the charge store, and the first electrode and the second electrode are configured to provide a bias to the optically sensitive material to direct photocarriers to the charge store. Other methods and apparatuses are disclosed.

Abstract: Systems, methods, and computer-readable media are described for creating custom user interface (“UI”) controls. A networked computing service may determine that an action performed by a user of the service is likely to be repeated, based on previous actions performed by the user and/or other users, parameters of the action including characteristics of an item associated with the action, and other criteria. The networked computing service may generate, or recommend generation of, a custom UI control that automates performance of the action. The networked computing service may automatically determine parameters of the action, and may determine alternative parameters and/or alternative actions if the action cannot be performed using the determined parameters. Custom UI controls may be associated with various computing devices and/or other electronic devices, and categories of custom UI controls may be determined and displayed.

Abstract: In various embodiments, image sensors and methods of making images sensors are disclosed. In an embodiment, an image sensor includes a first pixel region having a pixel electrode, an optically sensitive material of a first thickness, and a counterelectrode. The images sensor also includes a second pixel region comprising a pixel electrode, an optically sensitive material of a second thickness, and a counterelectrode. The first pixel region is configured to detect light in a first spectral band and the second pixel region is configured to detect light in a second spectral band. The first and second spectral bands include an overlapping spectral range. The second spectral band also includes a spectral range that is substantially undetectable by the first pixel region. Other image sensors and methods of making images sensors are also disclosed.