Abstract: A system and method are used bi-directional authorization as a security precaution during exchange or transactions of any kind. Identification data (e.g., biometric data, a universally unique identifier (UUID) data, or the like) is authenticated from a first object (e.g., a guardian, a requester, a consumer, a governmental official, a law enforcement official, or the like) and, if verified, then from a second object (e.g., a child, a requestee, a private citizen, a detainee, a product provider, a service provider, or the like). If both sets of identification data are authenticated, then an exchange or transaction for information, people, service, products, or things can take place. In some cases, information about the exchange or transaction is stored locally or remotely to possibly prepare a statistical analysis (e.g., if a law enforcement official is using racial profiling, or the like).

Abstract: Systems and methods are used to “check-in” and monitor individuals from an initial checkpoint of a facility to a final checkpoint of a facility. At the initial checkpoint, the systems and methods authenticate an identity of the individual, generate a biometric representation of the individual as an output, and associate the output to an object associated with the individual. The output can be machine-readable code, which can be encrypted or digitally signed. After this initial process, as the individual and the object associated with the individual travel through the facility, the individual's identity is re-authenticated one or more times either at discrete checkpoints or randomly throughout the facility. The object is also checked against the identity of the individual by using the output associate with the object to ensure the object should be with that individual.

Abstract: A method and system of obtaining a ten-print plain impression fingerprint includes scanning a print image, processing the scanned image, separating the processed image into individual fingerprint images, and determining how many print images have been scanned. The method also includes comparing the print image to a previously scanned print image, quality classifying the separated images, indicating a quality classification of the print image based on the classifying step, and determining whether the print image is of a good quality. The system can include a ten-print scanner having a finger guide and a platen used to position four finger slaps onto the platen.

Abstract: A system and method for obtaining a biometric image such as a ten-print fingerprint impression is provided. The system and method can include a ten-print scanner having a platen and a finger guide coupled to the platen. The finger guide can be used to guide positioning a finger slap of four fingers at a time onto the platen. The ten-print scanner can also include at least four indicators that indicate an acceptable scan condition of each finger of a finger slap in response to a detected finger slap image.

Abstract: Systems and methods for illuminating a platen are provided. A hybrid illumination system uses both diffusion and collimation to efficiently provide a flat, uniform illumination at a platen. One or more diffusers are disposed between the illumination source array and a collimating lens. An illumination system is provided which uses diffused light to illuminate a platen in a print scanner. The illumination system has an illumination source array and a light wedge. The light wedge reflects light internally which makes the illumination even more diffuse. An illumination source array has a plurality of sources that emit blue/green light. In one preferred example, the blue/green light is equal to or approximately equal to 510 nm. Sources are divided into at least a center region and a perimeter region. The density of sources provided in the perimeter region is greater than in the center region to correct for natural light falloff in the illumination system.

Abstract: Devices and methods for applying heat to a platen of a biometric image capturing device are described that remove and prevent the formation of excess moisture on the platen. These devices and methods prevent undesirable interruptions of total internal reflection of a prism that result in biometric images having a halo effect. In embodiments of the invention, an electrically conductive transparent material is used to apply heat to the platen. In other embodiments, resistive heating elements attached to non-optical areas of the platen (e.g., the ends) are used to apply heat to the platen. Heater assemblies according to the invention can be used to heat an area where a biometric object is placed, or an area adjacent to where the biometric object is placed, to remove and prevent the formation of excess moisture on the platen.

Abstract: The present invention relates to systems and methods for enhancement of biometric object image capturing. These systems and methods prevent undesirable interruptions of total internal reflection of a prism that result in improper biometric images. In embodiments of the invention, a thermal assembly comprising a plurality of thermal elements is placed adjacent to the image capturing device. The thermal elements upon supply of a current are capable of either heating or cooling the image capturing device or a platen of the image capturing device. If cooling of the biometric object receiving surface is required, the thermal elements can be controlled to decrease temperature of an area where a biometric object is placed, or an area adjacent to where the biometric object is placed.

Abstract: An electronic driver for use with linear and non-linear transducers includes a voltage controlled oscillator (1630) to generate an output signal (1603) in response to a frequency control signal (1625); a transducer driver (1604), coupled to the voltage controlled oscillator (1630) and to the transducer (600), includes an electromagnetic driver (604) to generate an electromagnetic field in response to the output signal (1603), and a power control circuit (2104, 2106) to suspend generation of the electromagnetic field for a portion of the output signal, the electromagnetic field generating movement of a magnetic motional mass (636) which is transformed into tactile energy; and a tactile energy monitor (1606) coupled to the electromagnetic driver (604) for monitoring a level of tactile energy generated by the movement of the magnetic motional mass (636), and in response thereto generates the frequency control signal (1625) to maximize the level of tactile energy generated.

Abstract: A data communication receiver (100) for operating in a demonstration mode comprises a receiving circuit (110) for receiving and decoding radio frequency signals, a battery (140) for powering the receiving circuit (110), and a display (150) for displaying information. A switch (142) coupled between the battery (140) and the receiving circuit (110) disconnects the receiving circuit (110) from the battery (140) to disable the receiving circuit (110) when a signal has been received indicating that the data communication receiver (100) is to operate in the demonstration mode. A demonstration element (165, 170) coupled to the display (150) provides at least one demonstration screen to the display (150) in response to the disabling of the receiving circuit (110).