Abstract: A control device includes a button assembly having one or more buttons and a button carrier that includes a plurality of resilient, independently deflectable spring arms. The control device may be configured as a wall-mounted keypad to control a load control device, or as a thermostat to control a temperature regulation appliance. The button carrier may be configured to prevent interference between the buttons during operation of the control device. The button assembly may be captured between a faceplate of the control device and a housing that is attached to a rear side of the faceplate. The control device may include one or more button retainers that are attached to the buttons and that are configured to align respective outer surfaces of the buttons relative to each other, and relative to the faceplate of the control device, when the buttons are in respective rest positions.

Abstract: A method and system for location-based communication. A selection of a source transceiver from a plurality of available transceivers associated with a source may be received. A telephony session may be initiated with the selected source transceiver. A mobile target transceiver may be geographically located. A result of the geographic location regarding the located mobile target transceiver may be provided. The located mobile target transceiver may be connected to the telephony session.

Abstract: A method and system for location-based communication. A selection of a source transceiver from a plurality of available transceivers associated with a source may be received. A telephony session may be initiated with the selected source transceiver. A mobile target transceiver may be geographically located. A result of the geographic location regarding the located mobile target transceiver may be provided. The located mobile target transceiver may be connected to the telephony session.

Abstract: A method and system for location-based communication. A selection of a source transceiver from a plurality of available transceivers associated with a source may be received. A telephony session may be initiated with the selected source transceiver. A mobile target transceiver may be geographically located. A result of the geographic location regarding the located mobile target transceiver may be provided. The located mobile target transceiver may be connected to the telephony session.

Abstract: A method and system for location-based communication. A selection of a source transceiver from a plurality of available transceivers associated with a source may be received. A telephony session may be initiated with the selected source transceiver. A mobile target transceiver may be geographically located. A result of the geographic location regarding the located mobile target transceiver may be provided. The located mobile target transceiver may be connected to the telephony session.

Abstract: A method and system for location-based communication. A selection of a source transceiver from a plurality of available transceivers associated with a source may be received. A telephony session may be initiated with the selected source transceiver. A mobile target transceiver may be geographically located. A result of the geographic location regarding the located mobile target transceiver may be provided. The located mobile target transceiver may be connected to the telephony session.

Abstract: A method and system for location-based communication. A selection of a source transceiver from a plurality of available transceivers associated with a source may be received. A telephony session may be initiated with the selected source transceiver. A mobile target transceiver may be geographically located. A result of the geographic location regarding the located mobile target transceiver may be provided. The located mobile target transceiver may be connected to the telephony session.

Abstract: Previously a number of techniques have been used in order to form single crystal or pre-determined crystallography components and articles. Each one of these techniques has its own particular problems, including susceptibility to error. By utilisation of a bi-crystal experiment to determine melt-back length LM and by consideration of the ingress distance d from potential initiation nucleation points on a perimeter of a seed crystal, it is possible to determine a maximum ingress length d. By ensuring that the maximum ingress length d is less than or equal to a seed crystal diameter R, it is possible to project locus from potential nucleation points C1, C2 in terms of potential radii for stray grain propagation. As the seed crystal will have a known crystalline orientation, it will be possible to consider two divergent growth curves of the crystal in terms of the stray grains propagating from the point C1, C2.