Abstract:
A device is provided that includes (a) an antenna that includes at least one conductor, (b) a housing that includes an inner-upper surface and an inner-lower surface separated by a first distance, (c) a battery disposed within the housing, where a base surface of the battery is proximate to the inner-lower surface of the housing, where a first portion of the battery has a height, which is substantially equal to the first distance, and where a second portion of the battery is of lesser height than the first portion of the battery such that space exists between the second portion of the battery and the inner-upper surface of the housing, and (d) where the one conductor is arranged over the second portion of the battery in the space, such that the one conductor and the battery do not contact one another, and where, as arranged, the antenna is capable of a far-field communication.
Abstract:
A dipole antenna assembly for an electronic device includes a rear mount having electronic components exposed at one of its surfaces, an antenna, a printed circuit board, and a battery. The antenna may be adjacent the rear flexible mount. The antenna includes a first portion and a second portion. The second portion comprises a transmission line. The printed circuit board can be connected to the antenna and the battery can be connected to a portion of the rear flexible mount and the printed circuit board. A positive arm of the dipole antenna assembly can include the battery, and a negative arm of the dipole antenna assembly can include the outside surface of the transmission line.
Abstract:
Embodiments describe a semi-transparent or transparent module antenna assembly disposed on a transparent portion of a user wearable device (e.g., a head wearable display or a smartwatch). Embodiments describe semi-transparent or transparent antenna assemblies disposed on portions of a wearable computing device not in direct contact with the user when the device is worn to increase the antenna's efficiency for receiving radio signals and to decrease the radiation absorbed by the user's body. Furthermore, the antenna is disposed on a transparent or semi-transparent surface to further increase the antenna's efficiency. For some embodiments utilized by head wearable displays, the portion of the device including the semi-transparent or transparent antenna assembly may be the optical system, which includes a transparent portion (e.g., a prism) for displaying CGI to a user; in other embodiments, the head wearable display including the semi-transparent or transparent antenna assembly is the lens.
Abstract:
A wireless device can include an antenna element, a printed circuit board, an antenna feed, a conductive surface, and a conductive connector. The printed circuit board can have a ground plane. The antenna feed can be connected, at a first point, to the antenna element and to the ground plane. The conductive surface can be disposed substantially parallel to the ground plane. The conductive connector can be connected, at a second point, to the ground plane and to the conductive surface. A distance between the first point and the second point can be substantially equal to one quarter of a wavelength of an electromagnetic wave to be exploited by the wireless device. At all other points, the ground plane and the conductive surface can lack a conductive connection between the ground plane and the conductive surface.
Abstract:
Systems and techniques are provided for a co-located NFC reader. A top conductive layer may include an inner PCB section, including a circuit for an electronic device, and an outer PCB section, including a near-field communications (NFC) chipset, separated by a gap in which an NFC antenna connected to the NFC chipset may be located. A substrate layer may include an inner PCB section and an outer PCB section separated by the gap. A bridge including a trace may cross the gap. A lower conductive layer may include an inner PCB section, including a circuit for the electronic device electrically connected to the circuit for the electronic device located on the inner PCB section of the top conductive layer, and an outer PCB section, including a circuit for the electronic device, separated by the gap.
Abstract:
Systems and techniques are provided for a co-located NFC reader. A top conductive layer may include an inner PCB section, including a circuit for an electronic device, and an outer PCB section, including a near-field communications (NFC) chipset, separated by a gap in which an NFC antenna connected to the NFC chipset may be located. A substrate layer may include an inner PCB section and an outer PCB section separated by the gap. A bridge including a trace may cross the gap. A lower conductive layer may include an inner PCB section, including a circuit for the electronic device electrically connected to the circuit for the electronic device located on the inner PCB section of the top conductive layer, and an outer PCB section, including a circuit for the electronic device, separated by the gap.
Abstract:
A dipole antenna assembly for an electronic device includes a rear mount having electronic components exposed at one of its surfaces, an antenna, a printed circuit board, and a battery. The antenna may be adjacent the rear flexible mount. The antenna includes a first portion and a second portion. The second portion comprises a transmission line. The printed circuit board can be connected to the antenna and the battery can be connected to a portion of the rear flexible mount and the printed circuit board. A positive arm of the dipole antenna assembly can include the battery, and a negative arm of the dipole antenna assembly can include the outside surface of the transmission line.
Abstract:
Various adaptive antenna systems are presented in which the structure of the antenna is configured to realize different radiation patterns. Such arrangements can include electrically connecting and disconnecting portions of the antenna structure to determine an arrangement that results in a higher signal strength in an unknown operating environment, such as in a home in which wireless devices that communicate with each other may be placed in varying directions with respect to each other.
Abstract:
A wireless device can include an antenna element, a printed circuit board, an antenna feed, a conductive surface, and a conductive connector. The printed circuit board can have a ground plane. The antenna feed can be connected, at a first point, to the antenna element and to the ground plane. The conductive surface can be disposed substantially parallel to the ground plane. The conductive connector can be connected, at a second point, to the ground plane and to the conductive surface. A distance between the first point and the second point can be substantially equal to one quarter of a wavelength of an electromagnetic wave to be exploited by the wireless device. At all other points, the ground plane and the conductive surface can lack a conductive connection between the ground plane and the conductive surface.
Abstract:
A device is provided that includes (a) an antenna that includes at least one conductor, (b) a housing that includes an inner-upper surface and an inner-lower surface separated by a first distance, (c) a battery disposed within the housing, where a base surface of the battery is proximate to the inner-lower surface of the housing, where a first portion of the battery has a height, which is substantially equal to the first distance, and where a second portion of the battery is of lesser height than the first portion of the battery such that space exists between the second portion of the battery and the inner-upper surface of the housing, and (d) where the one conductor is arranged over the second portion of the battery in the space, such that the one conductor and the battery do not contact one another, and where, as arranged, the antenna is capable of a far-field communication.