Abstract: A electronic device including an integrated circuit, the integrated circuit comprising a secure element electronic circuit and an electronic radio communication circuit, the secure element having stored therein firmware program code configured to implement operating system functions, the operating system functions including a data receiving function and a data transmitting function, wherein the firmware program code is further configured to control the secure element to determine in the received data custom program code for a custom application, and to store the custom program code in the memory of the secure element, and to implement an application programming interface configured to receive from the custom application requests for called operating system functions, and to execute the called operating system functions for the custom application.

Abstract: For communicating between an Internet of Things (IoT) device and a remote computer system, the IoT device may transmit an upload data message via a close range communication circuit to a mobile communication device, for forwarding to the remote computer system. The remote computer system may receive the upload data message via a mobile radio communication network and store an address of the mobile communication device, as a communication relay address for the IoT device. The remote computer system may transmit a download data message via the mobile radio communication network to the communication relay address, for forwarding to the IoT device. The IoT device may receive the download data message from the remote computer system, as forwarded by the mobile communication device via the close range communication circuit.

Abstract: An electronic device for securely determining current location information regarding the electronic device, the electronic device comprising a radio communication module and a secure element including a processor and a memory, the secure element being connected to the radio communication module and the processor being configured to obtain one or more beacon messages from one or more beacon devices; determine in real-time the current location information, the current location information comprising one or more distances between the electronic device and the beacon devices; and store the current location information in the memory of the secure element.

Abstract: A key fob, comprising an electronic communication circuit, a processor, and a battery configured to power the electronic communication circuit and the processor, further comprises: a communication module for exchanging data with an external electronic communication device, an access control module for exchanging access control data with an external electronic access control device, and a user activatable operating element which activates the communication module, or the access control module, depending on actuation of the operating element by a user.

Abstract: For communicating between an Internet of Things (IoT) device and a remote computer system, the IoT device transmits an upload data message via a close range communication circuit to a mobile communication device, for forwarding to the remote computer system. The remote computer system receives the upload data message via a mobile radio communication network and stores an address of the mobile communication device, as a communication relay address for the IoT device. The remote computer system transmits a download data message via the mobile radio communication network to the communication relay address, for forwarding to the IoT device. The IoT device receives the download data message from the remote computer system, as forwarded by the mobile communication device via the close range communication circuit.

Abstract: A Personal Identity Verification System for verifying the identity of an individual (600) carrying a wireless mobile communications device (400) is proposed, comprising image data of an area of the individual's body, said image data being stored in the wireless mobile communications device (400), at least one image capture device (100) configured to capture visual data of an area of the individual's body and at least one wireless communications module (200) configured to receive the image data from the wireless mobile communications device (400). Further, an electronic circuit (300) is provided that is configured to compare the visual data with the image data and to generate positive verification information when the visual data and the image data are established to be similar within a similarity-tolerance.

Abstract: For communicating securely between electronic devices using symmetric key encryption, a first electronic device transfers to a second electronic device metadata with positional information which indicates the position of a first cryptographic key in a cryptographic key hierarchy. The second electronic device derives the first cryptographic key by way of a one-way function from a second cryptographic key stored in the second electronic device, using the positional information received from the first electronic device. Subsequently, the first electronic device and the second electronic device communicate data securely with symmetric key encryption using the first cryptographic key.

Abstract: A key fob, comprising an electronic communication circuit, a processor, and a battery configured to power the electronic communication circuit and the processor, further comprises: a communication module for exchanging data with an external electronic communication device, an access control module for exchanging access control data with an external electronic access control device, and a user activatable operating element which activates the communication module, or the access control module, depending on actuation of the operating element by a user.

Abstract: For verifying authorization associated with a first electronic device by a second electronic device, using symmetric key encryption, the second electronic device receives from the first electronic device encrypted data and metadata with a key space identifier and positional information. The key space identifier defines a cryptographic key hierarchy and the positional information defines in the cryptographic key hierarchy the cryptographic key used to generate the encrypted data. The second electronic device derives the cryptographic key by way of a one-way function from cryptographic keys stored in the second electronic device, using the key space identifier and the positional information received from the first electronic device. The second electronic device decrypts the encrypted data, using the derived cryptographic key, for verifying the authorization associated with the first electronic device.

Abstract: For transmitting a secured data package from a computer system to a short-range communication device, the secured data package is transmitted from the computer system via a mobile radio network to a mobile communication apparatus. The mobile communication apparatus is placed in the communication range of the short-range communication device and receives from the short-range communication device a data read request, which includes device location information. The mobile communication apparatus determines the current location of the mobile communication apparatus. In case of correspondence of the current apparatus location with the received device location information, the mobile communication apparatus determines positive access authorization and transfers the secured data package to the short-range communication device.

Abstract: A method of communicating between a terminal device and a back-end system assigned to the terminal device, the terminal device receives via a direct wireless communication link an authorization code from the mobile communication device. Responsive to receiving the authorization code, the terminal device transmits via the direct wireless communication link to the mobile communication device a terminal report message which includes a message content part and a message addressing part. The mobile communication device transmits the terminal report message in a forwarding message via a telecommunications network to a remote message processing system determined by the addressing part. The remote message processing system determines from the addressing part the back-end system assigned to the electronic terminal device and transfers the content part of the terminal report message to the back-end system.

Abstract: A positioning system (10) for determining location information of/for a mobile radio transmitter (1) comprises an antenna system (2) which includes a plurality of antennas (21) aimed at different directions and arranged on one common antenna carrier (20). The positioning system (10) comprises a receiver system (3) electrically connected to the antennas (21) and configured to receive via each of the antennas (21) a radio signal (7) transmitted by the mobile radio transmitter (1). The positioning system (10) further comprises a processing circuit (4) electrically connected to the receiver system (3) and configured to calculate the location information of/for the mobile radio transmitter (1) based on the radio signal received at each of the antennas (21). The location information includes at least angular direction of the mobile radio transmitter (1) with respect to the antenna system (2).

Abstract: For transmitting a secured data package from a computer system to a short-range communication device, the secured data package is transmitted from the computer system via a mobile radio network to a mobile communication apparatus. The mobile communication apparatus is placed in the communication range of the short-range communication device and receives from the short-range communication device a data read request, which includes device location information. The mobile communication apparatus determines the current location of the mobile communication apparatus. In case of correspondence of the current apparatus location with the received device location information, the mobile communication apparatus determines positive access authorization and transfers the secured data package to the short-range communication device.

Abstract: An RFID receiver (1) comprises an antenna (11) configured to receive a radio signal (20) from an RFID transmitter (2) and to generate an electrical signal (110) from the radio signal (20) received from the RFID transmitter (2). A decoder circuit (10) is connected to the antenna (11) and configured to extract from the electrical signal (110) generated by the antenna (11) data bits encoded in the electrical signal (110). The decoder circuit (10) comprises an analog-to-digital converter (12) connected directly to the antenna (11) and configured to generate a digital input signal (13) from the electrical signal (110) generated by the antenna (11). A bit extractor (14) is connected to the analog-to-digital converter (12) and configured to extract the data bits from the digital input (13) signal generated by the analog-to-digital converter (12).

Abstract: An electronic access control device (1) includes a radio communication module (11) for wireless data exchange in a first radio frequency band with a mobile device (2) over a direct wireless communication link (3). The access control device has a controller (12) connected to the wireless radio communication module for generating an access control signal using an access key received from the mobile device. The electronic access control device further includes a proximity detector (13) for detecting a mobile device in defined proximity (P), using a radio frequency in a second radio frequency band, different from the first radio frequency band. The controller is connected to the proximity detector and controls the radio communication module to establish the direct wireless communication link with the mobile device, only if the mobile device is detected in defined proximity of the electronic access control device.

Abstract: An electronic access control device (1) including a radio communication module (11) for wireless data exchange in a first radio frequency band with a mobile device (2) over a direct wireless communication link (3). The access control device has a controller (12) connected to the wireless radio communication module for generating an access control signal using an access key received from the mobile device. The electronic access control device further includes a proximity detector (13) for detecting a mobile device in defined proximity (P), using a radio frequency in a second radio frequency band, different from the first radio frequency band. The controller is connected to the proximity detector and controls the radio communication module to establish the direct wireless communication link with the mobile device, only if the mobile device is detected in defined proximity of the electronic access control device.

Abstract: An electronic access control device (1) includes a radio communication module (11) for wireless data exchange in a first radio frequency band with a mobile device (2) over a direct wireless communication link (3). The access control device has a controller (12) connected to the wireless radio communication module for generating an access control signal using an access key received from the mobile device. The electronic access control device further includes a proximity detector (13) for detecting a mobile device in defined proximity (P), using a radio frequency in a second radio frequency band, different from the first radio frequency band. The controller is connected to the proximity detector and controls the radio communication module to establish the direct wireless communication link with the mobile device, only if the mobile device is detected in defined proximity of the electronic access control device.

Abstract: A mobile communication device (1) comprises a transceiver (13) for wireless data exchange and a processor (12) connected to the transceiver (13). The processor (12) is programmed to implement a card reader agent (121) which is configured to enable authentication and access control protocols between a smart card module (122) and a virtual card reader (421, 421?) which is arranged in a remote cloud-based computer center (1) by exchanging authentication and access control protocol data units between the smart card module (122) and the virtual card reader (421, 421?) via a telecommunications network (3).

Abstract: For controlling access rights between a read/write device (1) and a transponder module (2) configured to exchange data via an electromagnetic field (3), the read/write device (1) obtains via the electromagnetic field (3) from the transponder module (2) a technology release code (T) which indicates a version of technology of the transponder module (2). Subsequently, the read/write device (1) sets access rights for the transponder module (2) using the technology release code (T). Setting access rights based on a technology release code (T) obtained from a transponder module (2) makes it possible to block transponder modules (2) selectively, depending on their inherent technology release, so that transponder modules (2) with a technology release that is without a security breach may remain in operation whereas transponder modules (2) with a technology release having a compromised security can be blocked from access.

Abstract: A mobile electronic device (1) comprises a data store (11), a transceiver (13) for wireless data exchange with another electronic device (2), and a processor (12) connected to the transceiver (13) and the data store (11). The processor (12) is programmed to implement a virtual card reader (121) which is configured to communicate with a smart card module (122, 20) that is arranged in the mobile electronic device (1). The virtual card reader (121) is implemented as a program running on processor (12). At least one smart card module (122) is a virtual card implemented as a program running on the processor (12). The virtual card reader (121) makes it possible to access smart card modules which are implemented locally in the mobile electronic device as a virtual card, thereby enabling access to a smart card module, without requiring an external reader device.