Abstract: In a system and method of completing a transaction over a network, a personal electronic device (PED) receives transaction information; captures biometric information from the PED user; and uses such information to identify if the user is an authorized user of the PED. If the captured biometric information identifies an authorized user of the PED, the PED: enables a first one of a pair of cryptographic keys stored on the PED corresponding to the identified authorized user; generates a digital signature for the transaction using the enabled first key; generates an authenticated transaction request using the received transaction information; and transmits the authenticated transaction request to a transaction approval center via the network. The transaction approval center uses the authenticated transaction request to complete the transaction; and the PED receives confirmation regarding the transaction from the transaction approval center.

Abstract: Disclosed is a radio frequency identification (RFID) tag comprising: an RFID functional portion configured to enable wireless communication between the RFID tag and an RFID reader; a data processing functional portion with asymmetric cryptographic capability; and a power source configured to power the data processing functional portion.

Abstract: In a system and method of completing a transaction over a network, a personal electronic device (PED) receives transaction information; captures biometric information from the PED user; and uses such information to identify if the user is an authorized user of the PED. If the captured biometric information identifies an authorized user of the PED, the PED: enables a first one of a pair of cryptographic keys stored on the PED corresponding to the identified authorized user; generates a digital signature for the transaction using the enabled first key; generates an authenticated transaction request using the received transaction information; and transmits the authenticated transaction request to a transaction approval center via the network. The transaction approval center uses the authenticated transaction request to complete the transaction; and the PED receives confirmation regarding the transaction from the transaction approval center.

Abstract: Disclosed is a radio frequency identification (RFID) tag comprising: an RFID functional portion configured to enable wireless communication between the RFID tag and an RFID reader; a data processing functional portion with asymmetric cryptographic capability; and a power source configured to power the data processing functional portion.

Abstract: A biometric and cryptographic processing unit includes a biometric receiver receiving biometric information of a BCU user. A biometric unit of the BCU has a store of biometric information of an authorized BCU user and compares received biometric information with the stored biometric information to determine if the user is an authorized BCU user. A cryptographic unit generates/stores an asymmetric cryptographic public/private key pair associated with each authorized BCU user. An input/output port allows encrypted/unencrypted data to be input to/output from the BCU. The cryptographic unit operates in response to a specific authorized user giving permission to undertake a specific cryptographic operation on data input to the BCU only upon the specific authorized user being determined as an authorized BCU user, whereby a specific private key corresponding to the specific authorized user is enabled for use in the specific cryptographic operation after which the specific private key is disabled.

Abstract: A container to receive goods to be held securely. The container includes a hollow body with walls, and a lid with walls. A security assembly extends between one of the walls and one of the walls to provide evidence of opening and/or tamper. The security assembly includes a pair of inserts between which a tag (seal) extends that is altered if a container is opened or tampered with.

Abstract: A biometric and cryptographic processing unit includes a biometric receiver receiving biometric information of a BCU user. A biometric unit of the BCU has a store of biometric information of an authorized BCU user and compares received biometric information with the stored biometric information to determine if the user is an authorized BCU user. A cryptographic unit generates/stores an asymmetric cryptographic public/private key pair associated with each authorized BCU user. An input/output port allows encrypted/unencrypted data to be input to/output from the BCU. The cryptographic unit operates in response to a specific authorized user giving permission to undertake a specific cryptographic operation on data input to the BCU only upon the specific authorized user being determined as an authorized BCU user, whereby a specific private key corresponding to the specific authorized user is enabled for use in the specific cryptographic operation after which the specific private key is disabled.

Abstract: A biometric and cryptographic processing unit includes a biometric receiver receiving biometric information of a BCU user. A biometric unit of the BCU has a store of biometric information of an authorized BCU user and compares received biometric information with the stored biometric information to determine if the user is an authorized BCU user. A cryptographic unit generates/stores an asymmetric cryptographic public/private key pair associated with each authorized BCU user. An input/output port allows encrypted/unencrypted data to be input to/output from the BCU. The cryptographic unit operates in response to a specific authorized user giving permission to undertake a specific cryptographic operation on data input to the BCU only upon the specific authorized user being determined as an authorized BCU user, whereby a specific private key corresponding to the specific authorized user is enabled for use in the specific cryptographic operation after which the specific private key is disabled.

Abstract: An RFID tag includes a substrate having a top surface and a bottom surface. An RFID integrated circuit is disposed on the top surface of the substrate. A first electrically conductive region is associated with the top surface of the substrate and electrically coupled to the RFID integrated circuit. A second electrically conductive region is associated with the bottom surface of the substrate and electrically coupled to the first conductive region, the first and second conductive regions forming an RFID antenna. The RFID integrated circuit, first conductive region and second conductive region together provide an RFID function. An attachment layer is associated with the bottom surface of the substrate for attaching the tag to a surface. An adhesion modifying layer modifies the adhesion of the second conductive region such that the second conductive region is disrupted if the tag is tampered or removed from the surface.

Abstract: The RF antenna portion and the RFID electronics portion of an RFID tag are produced separately and assembled on the item to be tagged. This reduces the overall cost of the RFID tagging process, in addition to providing other benefits. Specifically, the RF antenna is pre-applied to an item that is to be tagged and the RFID electronics are applied separately to the item in the form of a discrete RFID electronics module that couples to the pre-applied RF antenna to provide an RFID capability for the item.

Abstract: An RFID tag includes a substrate having a top surface and a bottom surface. An RFID integrated circuit is disposed on the top surface of the substrate. A first electrically conductive region is associated with the top surface of the substrate and electrically coupled to the RFID integrated circuit. A second electrically conductive region is associated with the bottom surface of the substrate and electrically coupled to the first conductive region, the first and second conductive regions forming an RFID antenna. The RFID integrated circuit, first conductive region and second conductive region together provide an RFID function. An attachment layer is associated with the bottom surface of the substrate for attaching the tag to a surface. An adhesion modifying layer modifies the adhesion of the second conductive region such that the second conductive region is disrupted if the tag is tampered or removed from the surface.

Abstract: A tamper indicating label is provided. The label may include RFID components and a tamper track coupled to the RFID components. The tamper track should be constructed from a destructible conducting path. Additionally, the tamper track can be formed such that it is damaged when the label is tampered. In one embodiment, adhesion characteristics of the tamper track are adapted to break apart the tamper track when the label is tampered, for example, by removal from an object. The RFID components may retain their RF capability and detect when the tamper track has been damaged to indicate that the label has been tampered. Alternatively, the RFID capability of the RFID components may be disabled when the tamper track is damaged, indicating tampering.

Abstract: Materials and construction for a tamper indicating radio frequency identification (RFID) label are provided to permit the destruction of the label or its properties in the event of attempts to remove the label from a surface to which it has been applied. An adhesion modifying coating is applied to a label surface or portions thereof to affect the relative adhesion strengths between different layers or areas of the label. The adhesion modifying coating can be applied in selected patterns to achieve differential adhesion strengths and resulting differential separation of the label from a surface on which it has been applied.