Abstract: In an example, a biometric sensor, includes a first communication interface to receive information associated with an enumeration of the biometric sensor from a host, a second communication interface, and input sensing circuitry to detect an input signal at the biometric sensor. The biometric sensor further includes a controller to, in response to detecting the input signal, transmit a message to wake up the host via the second communication interface, and in response to receiving an indication that a lid of the host has closed, control operation of the biometric sensor by placing the biometric sensor in a low power state.

Abstract: In an example, a biometric sensor, includes a first communication interface to receive information associated with an enumeration of the biometric sensor from a host, a second communication interface, and input sensing circuitry to detect an input signal at the biometric sensor.

Abstract: An example method includes sensing a first touch event on a touch sensitive surface of a computing device, where the first touch event is associated with a touch contact; and classifying the touch contact as being a finger contact or a palm contact based on biometric information. The method includes providing an input to the computing device based on the classification of the touch contact; and associating the first touch event with a time sequence of touch events that are associated with the touch contact. The method includes, based on a feature of the time sequence of touch events, selectively reclassifying the touch contact; and selectively changing the input based on a result of the selective reclassification of the touch contact.

Abstract: A method for distinguishing non-input contact with a touch-sensitive user input device includes converting an input frame from the touch-sensitive user input device to an input luminance frame; and filtering the input luminance frame, based on a base luminance frame, using a Wronskian function, the Wronskian function producing a filtered luminance frame, the filtered luminance frame distinguishing input contact from non-input contact with the touch-sensitive user input device.

Abstract: Novel compositions comprising omega-3 fatty acids and uses thereof are disclosed.

Abstract: Novel compositions comprising omega-3 fatty acids and uses thereof are disclosed.

Abstract: An example method includes sensing a first touch event on a touch sensitive surface of a computing device, where the first touch event is associated with a touch contact; and classifying the touch contact as being a finger contact or a palm contact based on biometric information. The method includes providing an input to the computing device based on the classification of the touch contact; and associating the first touch event with a time sequence of touch events that are associated with the touch contact. The method includes, based on a feature of the time sequence of touch events, selectively reclassifying the touch contact; and selectively changing the input based on a result of the selective reclassification of the touch contact.

Abstract: A method for distinguishing non-input contact with a touch-sensitive user input device includes converting an input frame from the touch-sensitive user input device to an input luminance frame; and filtering the input luminance frame, based on a base luminance frame, using a Wronskian function, the Wronskian function producing a filtered luminance frame, the filtered luminance frame distinguishing input contact from non-input contact with the touch-sensitive user input device.

Abstract: Novel compositions comprising omega-3 fatty acids and uses thereof are disclosed.

Abstract: Emulsion and emulsion preconcentrate compositions comprising omega-3 fatty acids and uses thereof are disclosed.

Abstract: An apparatus (100) couples to a vehicle (101) movable in relation to a medium (103). The vehicle (101) comprises a vehicle wheel (105) attached to an axle (107). The apparatus (100) comprises a driving wheel (110) configured to couple to the vehicle wheel (105) or to a vehicle axle (107) or to couple directly to the medium (103); a generator (120) configured to generate electrical power based on a rotation of the driving wheel (110), wherein the vehicle wheel (105) rotates upon a motion of the vehicle (101) as consequence of a friction of the vehicle (101) with the medium (103); a battery (130), configured to store the generated electrical power; and a control unit (140) configured to transform the generated electrical power to a predetermined level used for charging the battery (130).

Abstract: An apparatus (100) couples to a vehicle (101) movable in relation to a medium (103). The vehicle (101) comprises a vehicle wheel (105) attached to an axle (107). The apparatus (100) comprises a driving wheel (110) configured to couple to the vehicle wheel (105) or to a vehicle axle (107) or to couple directly to the medium (103); a generator (120) configured to generate electrical power based on a rotation of the driving wheel (110), wherein the vehicle wheel (105) rotates upon a motion of the vehicle (101) as consequence of a friction of the vehicle (101) with the medium (103); a battery (130), configured to store the generated electrical power; and a control unit (140) configured to transform the generated electrical power to a predetermined level used for charging the battery (130).

Abstract: Novel compositions comprising omega-3 fatty acids and uses thereof are disclosed.

Abstract: A modified release pharmaceutical composition for oral administration comprising plural mini-tablets, comprising a therapeutically effective amount of a Factor Xa inhibitor within a matrix of polymer(s). The mini-tablets are suitably encapsulated within a gelatin capsule. A manufacturing process and method of use are also described.