Abstract: An electronic device may include a housing, and a finger sensor carried by the housing to sense a user's finger placement at different rotational angles. The electronic device may also include an orientation sensor carried by the housing to sense an orientation thereof, and a processor coupled to the finger sensor and the orientation sensor. The processor may acquire finger-matching biometric data of the user's finger at an unknown rotational angle relative to a known rotational angle of finger-enrollment data, generate an estimated rotational angle of the acquired finger-matching biometric data and based upon a sensed orientation of the housing, and attempt an authentication of the user based upon the estimated acquired rotational angle.

Abstract: A biometric sensor device, such as a fingerprint sensor, comprises a substrate to which is mounted a die on which is formed a sensor array and at least one conductive bezel. The die and the bezel are encased in a unitary encapsulation structure to protect those elements from mechanical, electrical, and environmental damage, yet with a portion of the sensor array and the bezel exposed or at most thinly covered by the encapsulation or other coating material structure.

Abstract: An electronic device may include a finger-operated input device, and a finger sensor carried by the finger-operated input device to sense a user's finger. The electronic device may further include a processor to perform applications and perform at least one device function responsive to an operation of the finger-operated input device. The processor may acquire finger-matching biometric data of the user's finger responsive to each operation of the finger-operated input device. The processor may further authenticate the user based upon an authentication request from one of the applications. The authentication may be based upon a match of most recently acquired finger-matching biometric data and finger-enrollment biometric data.

Abstract: An electronic device may include a finger-operated input device, and a finger sensor carried by the finger-operated input device to sense a user's finger. The electronic device may also include a processor to perform at least one device function responsive to operation of the finger-operated input device. The processor may also acquire finger-enrollment biometric data of the user's finger from the finger sensor responsive to each of multiple operations of the finger-operated input device. The processor may further acquire finger-matching biometric data of the user's finger from the finger sensor responsive to a subsequent operation of the finger-operated input device, and authenticate the user based upon a match between the acquired finger-matching biometric data and the finger-enrollment biometric data.

Abstract: An electronic device may include a housing and at least one infrared (IR) proximity sensor carried by the housing. The at least one IR proximity sensor may include an IR emitter configured to emit IR illumination toward a user, and an IR sensor configured to sense reflected IR illumination from the user. The electronic device may also include a camera carried by the housing and configured to capture an image of the user's face based upon the reflected IR illumination. The electronic device may further include a controller configured to apply facial recognition to the captured image of the user's face based upon the reflected IR illumination.

Abstract: A biometric sensor assembly comprises a substrate to which is mounted a die containing sensor circuitry, at least one conductive bezel having a visual indicator region formed therein, and electrically connected to said die by way of said substrate, a light source, and a light-directing region directing light from the light source to the visual indicator region. The die, the light-directing region, and the bezel are encased in an encapsulation structure such that a portion of a surface of the die and the visual indication region are exposed or at most thinly covered by the encapsulation structure. The light-directing region directs light emitted by the light source within the encapsulation structure to the visual indicator region. Desired indicia in the visual indicator region may thereby be illuminated, while the die and bezel, and optionally the light source, are protected by the encapsulation structure.

Abstract: An electronic device may include a finger biometric sensor and an audio output transducer. The electronic device may further include a controller cooperating with the finger biometric sensor for determining at least one biometric characteristic of a user's finger. The controller may also cooperate with the finger biometric sensor for causing the audio output transducer to generate at least one musical tone changing based upon movement of a user's finger relative to the finger biometric sensor.

Abstract: A finger sensor assembly may include a circuit board and an integrated circuit (IC) finger sensor grid array package including a grid array on a lower end thereof mounted to the circuit board, and a finger sensing area on an upper end thereof. The finger sensor assembly may further include at least one visible light source carried by the circuit board and a visible light guide optically coupled to the at least one visible light source. The at least one visible light source may at least partially laterally surround the upper end of the IC finger sensor grid array package to provide visual light indications. The IC finger sensor grid array package may also include circuitry for controlling the at least one visible light source.

Abstract: An authentication device may include a housing and a finger sensor carried by the housing and including first processing circuitry and a finger sensing area coupled thereto. The first processing circuitry may be configured to generate finger image data based upon a finger positioned adjacent the finger sensing area, and generate and store a first template based upon the finger image data. The authentication device may include second processing circuitry carried by the housing and configured to obtain the finger image data from the first processing circuitry. The second processing circuitry may be configured to generate a second template based upon the finger image data. The first processing circuitry may further be configured to obtain the second template from second processing circuitry, and validate the second template against the first template.

Abstract: An electronic device may include a housing with a connector member opening therein, electronic circuitry within the housing, and a finger sensor assembly carried by the housing. The finger assembly may include a thinned finger sensing integrated circuit (IC) secured to the housing that has a thickness less than 200 microns. The finger sensor assembly may also include a connector member extending through the connector member opening in the housing and coupling together the thinned finger sensing IC and the electronic circuitry. The thinned finger sensing IC may be adhesively secured to the housing, such as using a pressure sensitive adhesive, and the thinned finger sensing IC may conform to a non-planar surface.

Abstract: An electronic device may include a housing and a finger biometric sensing area exposed on the housing. The electronic device may also include an optical indicator at least partially surrounding the finger biometric sensing area and exposed on the housing. The electronic device may also include a controller for performing at least one function based upon the finger biometric sensing area, and activating the optical indicator based upon communications with a remote web site.

Abstract: An electronic device may include a housing and circuitry carried by the housing. The electronic device may also include a finger sensing device carried by the housing and coupled to the circuitry. The finger sensing device may include a mounting substrate, and a semiconductor interposer having a lower surface adjacent the mounting substrate. The finger sensing device may also include a plurality of semiconductor finger sensing die on an upper surface of the semiconductor interposer in side-by-side and abutting relation, and defining a finger sensing surface to receive at least one finger thereon.

Abstract: A biometric sensor device, such as a fingerprint sensor, comprises a substrate to which is mounted a die on which is formed a sensor array and at least one conductive bezel. The die and the bezel are encased in a unitary encapsulation structure to protect those elements from mechanical, electrical, and environmental damage, yet with a portion of the sensor array and the bezel exposed or at most thinly covered by the encapsulation or other coating material structure.

Abstract: An electronic device may include a housing with a connector member opening therein, electronic circuitry within the housing, and a finger sensor assembly carried by the housing. The finger assembly may include a thinned finger sensing integrated circuit (IC) secured to the housing that has a thickness less than 200 microns. The finger sensor assembly may also include a connector member extending through the connector member opening in the housing and coupling together the thinned finger sensing IC and the electronic circuitry. The thinned finger sensing IC may be adhesively secured to the housing, such as using a pressure sensitive adhesive, and the thinned finger sensing IC may conform to a non-planar surface.

Abstract: An approach for protecting digital contents includes a content delivery phase wherein a client stores digital contents or retrieves them in streaming, transmits to a user device the digital content in a protected format along with an enabling code for enabling the user device to access or read the protected digital content. The approach includes a key generation phase in a DRM (Digital Right Management) server which derives at least one key for encrypting the digital contents. A key transmission phase involves the derived key being transmitted from the DRM server to the client. For decrypting the digital content, the user device requests the key from the DRM server, with the request including a key identification defined by the enabling code transmitted by the client to the user device which is used by the DRM server to derive the key for the user device.

Abstract: The approach is for controlling a data rate of proxy server of a user device that includes a multimedia player, and a proxy server adapted to communicate with the multimedia player. The proxy server also communicates with a multimedia server. The approach includes receiving a request for a multimedia content from the multimedia player, requesting the multimedia content to the multimedia server, receiving a plurality of packets for the multimedia content from the multimedia server, estimating a data rate between the user device and the multimedia server, and sending a data stream for the multimedia content to the multimedia player based on the estimated data rate.

Abstract: The method and system are for playing digital contents protected by a DRM scheme, wherein the digital contents are stored in a server and downloaded or streamed to a user device. The approach includes executing a DRM application inside the user device implementing a proxy between the server and a native player of the user device, and connecting the DRM proxy application to the server, selecting a digital content to be downloaded and retrieving a corresponding remote playlist. Also, the approach includes transforming the remote playlist into a local playlist having a format readable from the native player and executing a plurality of local packets of the local playlist inside the native player.

Abstract: An electronic device may include a finger sensor, a display, and a controller coupled to the finger sensor and the display. The controller may be configured to collect finger data from multiple portions of a user's finger as the user's finger is moved around on the finger sensor along a finger travel path. The controller may also be configured to generate on the display a finger movement trace corresponding to the finger movement travel path.

Abstract: A finger sensor may include a finger sensing area and a controller cooperating with the finger sensing area for storing enrollment data including finger feature locations. The controller may be for generating authentication data including finger feature locations based upon positioning of an object adjacent the finger sensing area. The controller may also be for performing aligning the authentication data and the enrollment data, matching between the aligned enrollment and authentication data, and spoof attempt detecting based upon corresponding pairs of finger features and their spatial locations in the aligned enrollment and authentication data. The controller may further be for performing an authentication decision based upon the matching and spoof detecting.

Abstract: A contact detector having power switches for disconnecting power to portions of the contact sensor when an over current is detected is disclosed. The power switches thus protect the contact sensor from over-current as the result of latch-up or other current-generating conditions. These current-generating conditions are often the result of ESD events on a surface of the contact detector. A contact detector comprises an exposed surface for detecting the presence of an object, an insulating surface, and a protection element disposed under the insulating surface for controlling power to the contact detector. The protection element is configured to disconnect power to the contact detector when a current to the contact detector is detected above a threshold. Preferably, the contact detector is a finger swipe sensor, but it can be a finger placement sensor or any other type of device that functions on contact with a finger or other patterned object.