Abstract: A modular biometric station system is used to form one or more modular biometric stations with cohesive form factors. Such biometric stations include a core unit, one or more end caps, and one or more modules. The modules may be configured to communicably and electrically couple to one or more of the end caps. The end caps may be configured to communicably and electrically couple to the core unit and/or one or more of the modules and may communicably and electrically couple one or more of the modules to the core unit. The core unit, end caps, and/or the modules may be able to communicably interact when coupled together. The core unit, end caps, and modules may all share a form factor. The core unit may include hardware and/or software that satisfies common requirements, and the modules may include peripherals and/or other components that can be coupled to the core unit to adapt the modular biometric station to a variety of different needs of different applications.

Abstract: A modular biometric station system is used to form one or more modular biometric stations with cohesive form factors. Such biometric stations include a core unit, one or more end caps, and one or more modules. The modules may be configured to communicably and electrically couple to one or more of the end caps. The end caps may be configured to communicably and electrically couple to the core unit and/or one or more of the modules and may communicably and electrically couple one or more of the modules to the core unit. The core unit, end caps, and/or the modules may be able to communicably interact when coupled together. The core unit, end caps, and modules may all share a form factor. The core unit may include hardware and/or software that satisfies common requirements, and the modules may include peripherals and/or other components that can be coupled to the core unit to adapt the modular biometric station to a variety of different needs of different applications.

Abstract: An underwater directional light is provided. The directional light includes a lamp assembly, a tube assembly, and a printed circuit board assembly. The lamp assembly includes a housing and a lamp having a plurality of lighting elements. The tube assembly is coupled to the lamp and has a hollow interior. The printed circuit board assembly is mechanically coupled to the tube assembly and electrically coupled to the lamp.

Abstract: An underwater directional light is provided. The directional light includes a lamp assembly, a tube assembly, and a printed circuit board assembly. The lamp assembly includes a housing and a lamp having a plurality of lighting elements. The tube assembly is coupled to the lamp and has a hollow interior. The printed circuit board assembly is mechanically coupled to the tube assembly and electrically coupled to the lamp.

Abstract: An underwater directional light is provided. The directional light includes a lamp assembly, a tube assembly, and a printed circuit board assembly. The lamp assembly includes a housing and a lamp having a plurality of lighting elements. The tube assembly is coupled to the lamp and has a hollow interior. The printed circuit board assembly is mechanically coupled to the tube assembly and electrically coupled to the lamp.

Abstract: An underwater directional light is provided. The directional light includes a lamp assembly, a tube assembly, and a printed circuit board assembly. The lamp assembly includes a housing and a lamp having a plurality of lighting elements. The tube assembly is coupled to the lamp and has a hollow interior. The printed circuit board assembly is mechanically coupled to the tube assembly and electrically coupled to the lamp.

Abstract: An underwater directional light is provided. The directional light includes a lamp assembly, a tube assembly, and a printed circuit board assembly. The lamp assembly includes a housing and a lamp having a plurality of lighting elements. The tube assembly is coupled to the lamp and has a hollow interior. The printed circuit board assembly is mechanically coupled to the tube assembly and electrically coupled to the lamp.

Abstract: An underwater directional light is provided. The directional light includes a lamp assembly, a tube assembly, and a printed circuit board assembly. The lamp assembly includes a housing and a lamp having a plurality of lighting elements. The tube assembly is coupled to the lamp and has a hollow interior. The printed circuit board assembly is mechanically coupled to the tube assembly and electrically coupled to the lamp.

Abstract: A modular biometric station system is used to form one or more modular biometric stations with cohesive form factors. Such biometric stations include a core unit, one or more end caps, and one or more modules. The modules may be configured to communicably and electrically couple to one or more of the end caps. The end caps may be configured to communicably and electrically couple to the core unit and/or one or more of the modules and may communicably and electrically couple one or more of the modules to the core unit. The core unit, end caps, and/or the modules may be able to communicably interact when coupled together. The core unit, end caps, and modules may all share a form factor. The core unit may include hardware and/or software that satisfies common requirements, and the modules may include peripherals and/or other components that can be coupled to the core unit to adapt the modular biometric station to a variety of different needs of different applications.

Abstract: A mobile device with edge activation is provided. The mobile device comprises: a housing; a data capture component; an actuator disposed on a side of the housing and configured to activate the data capture component when actuated; a display, disposed within the housing; a touch screen disposed on the display; a tactile indicator at the housing between the actuator and the touch screen; and, an activation area of the touch screen, adjacent the tactile indicator, the activation area configured to initiate a digital location for activating the data capture component when touch input is received at the activation area.

Abstract: A mobile device with edge activation is provided. The mobile device comprises: a housing; a data capture component; an actuator disposed on a side of the housing and configured to activate the data capture component when actuated; a display, disposed within the housing; a touch screen disposed on the display; a tactile indicator at the housing between the actuator and the touch screen; and, an activation area of the touch screen, adjacent the tactile indicator, the activation area configured to initiate a digital location for activating the data capture component when touch input is received at the activation area.

Abstract: An adapter for a mobile device is provided. The adapter comprises a plug including an outer surface and an inner surface, the inner surface opposite the outer surface. The adapter further comprises a surface mount connection port located at the outer surface. The adapter further comprises a male connector extending from the inner surface. The adapter further comprises one or more electrical connections between the male connector and the surface mount connection port. The plug is configured to mate with a socket of a device, and the male connector is configured to mate with a respective female connection port of the device located within the socket, the outer surface of the plug being flush with a respective outer surface of the device when the plug is mated with the socket.

Abstract: An adapter for a mobile device is provided. The adapter comprises a plug including an outer surface and an inner surface, the inner surface opposite the outer surface. The adapter further comprises a surface mount connection port located at the outer surface. The adapter further comprises a male connector extending from the inner surface. The adapter further comprises one or more electrical connections between the male connector and the surface mount connection port. The plug is configured to mate with a socket of a device, and the male connector is configured to mate with a respective female connection port of the device located within the socket, the outer surface of the plug being flush with a respective outer surface of the device when the plug is mated with the socket.

Abstract: The invention relates to a system and method for automatically adapting a user interface for a computer operated device in response to the manner in which the device is physically operated and the conditions surrounding operation. The system provides sensors on or within a device in order to detect the physical position, identity, or orientation of an object used for interfacing with the device. The orientation of the device and the environmental conditions around the device are also determined. In turn, the system adapts the interactive control or input elements and/or the non-interactive elements of the UI in order to optimize usability of the device.