Abstract: A near-field communication device having one or more processors configured to control the near-field communication device, an energy supplier having an energy supply circuit and a supply antenna configured to provide energy to a second antenna circuit arranged externally to the near-field communication device, wherein the supply antenna of the energy supplier is galvanically coupled to the energy supply circuit, and a first antenna circuit having a first communication circuit and a first antenna, wherein the first communication circuit is configured for communication with a second communication circuit of the second antenna circuit by means of an inductive coupling by means of the first antenna of the first antenna circuit.

Abstract: A near-field communication device having one or more processors configured to control the near-field communication device, an energy supplier having an energy supply circuit and a supply antenna configured to provide energy to a second antenna circuit arranged externally to the near-field communication device, wherein the supply antenna of the energy supplier is galvanically coupled to the energy supply circuit, and a first antenna circuit having a first communication circuit and a first antenna, wherein the first communication circuit is configured for communication with a second communication circuit of the second antenna circuit by means of an inductive coupling by means of the first antenna of the first antenna circuit.

Abstract: A smartcard having a security controller, a fingerprint sensor, and an energy supply circuit configured to supply the security controller and the fingerprint sensor with energy, wherein the security controller and the fingerprint sensor are configured to communicate with one another by means of inductive coupling.

Abstract: An electronic inhaler, including: an antenna; a contactless module configured to receive via the antenna from an authentication circuit of a removably-mounted liquid container, a liquid container authentication signal; and a processor configured to control an operational state of a heater, which is configured to vaporize a liquid of the removably-mounted liquid container, based on the liquid container authentication signal.

Abstract: In various embodiments, an electronic component is provided. The electronic component may include a supply bus configured to provide a supply voltage for an electronic circuit. The electronic component may further include a voltage-controlled oscillator, which is coupled to the supply bus and is configured to generate a clock signal with a clock frequency according to the supply voltage. The electronic component may further include at least one reference oscillator, which is configured to generate a reference clock signal with a reference clock frequency, and a comparator, which is coupled to the voltage-controlled oscillator and the at least one reference oscillator and is configured to compare the clock signal with the reference clock signal and, on the basis of the comparison, either to output the clock signal to the electronic circuit or to suppress it.

Abstract: According to one embodiment, an electronic circuit is described comprising an output circuit configured to output data elements, an input circuit configured to receive the data elements from the output circuit wherein the input circuit is clocked by a clock signal and receives the data elements in accordance with its clocking, a signaling circuit configured to, when the output circuit switches from the output of one data element to the output of a following data element, signal to interrupt the clocking of the input circuit and a controller configured to interrupt the clocking of the input circuit in response to the signaling.

Abstract: In various embodiments, an electronic component is provided. The electronic component may include a supply bus configured to provide a supply voltage for an electronic circuit. The electronic component may further include a voltage-controlled oscillator, which is coupled to the supply bus and is configured to generate a clock signal with a clock frequency according to the supply voltage. The electronic component may further include at least one reference oscillator, which is configured to generate a reference clock signal with a reference clock frequency, and a comparator, which is coupled to the voltage-controlled oscillator and the at least one reference oscillator and is configured to compare the clock signal with the reference clock signal and, on the basis of the comparison, either to output the clock signal to the electronic circuit or to suppress it.

Abstract: According to one embodiment, an electronic circuit is described comprising an output circuit configured to output data elements, an input circuit configured to receive the data elements from the output circuit wherein the input circuit is clocked by a clock signal and receives the data elements in accordance with its clocking, a signaling circuit configured to, when the output circuit switches from the output of one data element to the output of a following data element, signal to interrupt the clocking of the input circuit and a controller configured to interrupt the clocking of the input circuit in response to the signaling.

Abstract: Different exemplary embodiments provide a power supply apparatus for providing a voltage from an electromagnetic field, which apparatus has a conversion device which is set up to derive a voltage from a wirelessly received electromagnetic field, and a decoupling device which is coupled to the conversion device and has a first connection and a second connection, at each of which a supply voltage is provided, the decoupling device suppressing an effect of the circuits coupled to the first and second connections on the power supply apparatus.

Abstract: In accordance with various embodiments, a radio communication processor arrangement including a chip and a battery integrated into the chip is provided.

Abstract: In various embodiments, an antenna arrangement is provided. The antenna arrangement includes a first antenna and a second antenna. The first antenna and the second antenna are arranged substantially in the same plane. The first antenna and the second antenna are arranged with respect to one another in such a manner that an intermediate area is defined between the first antenna and the second antenna. The antenna arrangement further includes a controller which is configured to control the first antenna and the second antenna in such a manner that a magnetic field produced in the intermediate area is greater, in terms of magnitude, than the magnetic field generated by the first antenna in the intermediate area and the magnetic field generated by the second antenna in the intermediate area.

Abstract: A system including a first device having a push-pull circuit configured to transmit a synchronization symbol; and a second device coupled to the first device by a single wire interface, and configured to, in response to receiving the synchronization symbol, transmit a data symbol to the first device while the push-pull circuit is in a tristate phase.

Abstract: A system including a first device having a push-pull circuit configured to transmit a synchronization symbol; and a second device coupled to the first device by a single wire interface, and configured to, in response to receiving the synchronization symbol, transmit a data symbol to the first device while the push-pull circuit is in a tristate phase.

Abstract: A method for controlling the flow of data in a near field communication appliance having a plurality of secure elements is provided. The method includes receiving a first communication, sent by an external appliance, which is intended for an application located in one of a plurality of secure elements of the near field communication appliance. The method further includes determining which of the secure elements contains the application, and taking measures in order to ensure that a further communication exclusively between the external appliance and the secure element contains the addressed application. In addition, appropriate mobile terminals for NFC communication are disclosed.

Abstract: In various embodiments, an antenna arrangement is provided. The antenna arrangement includes a first antenna and a second antenna. The first antenna and the second antenna are arranged substantially in the same plane. The first antenna and the second antenna are arranged with respect to one another in such a manner that an intermediate area is defined between the first antenna and the second antenna. The antenna arrangement further includes a controller which is configured to control the first antenna and the second antenna in such a manner that a magnetic field produced in the intermediate area is greater, in terms of magnitude, than the magnetic field generated by the first antenna in the intermediate area and the magnetic field generated by the second antenna in the intermediate area.

Abstract: A circuit arrangement is provided, having an antenna, a first circuit coupled to the antenna and configured to receive an antenna signal, which contains first data, and to process the antenna signal, as a result of which it produces a processed antenna signal having a different voltage level than that of the antenna signal. The first data are data transmitted from a communication device to the arrangement. The arrangement further includes a second circuit coupled to the first circuit via a wire-based interface. The first circuit is configured to transmit the processed antenna signal to the second circuit by a first channel of the wire-based interface and the second circuit is configured to transmit second data to the first circuit by a second channel of the wire-based interface. The first channel and the second channel are different. The second data are configuration data for configuring the first circuit.

Abstract: In accordance with various embodiments, a smart card is described which has an antenna, which is configured to receive an electromagnetic signal, a rectifier, which is configured to rectify the received signal, and a capacitive or an inductive DC-to-DC voltage converter, which is configured to provide a supply voltage on the basis of the rectified signal.

Abstract: A method for controlling the flow of data in a near field communication appliance having an interposed element and a plurality of secure elements is disclosed. The method includes: receiving a first communication, sent by an external appliance, which is intended for an application located in one of the secure elements; determining whether a first one of the secure elements contains the application; and deactivating an interface from the interposed element to the first secure element if the first secure element does not contain the application. Corresponding systems and appliances for near field communication are also disclosed.

Abstract: A method for controlling the flow of data in a near field communication appliance having an interposed element and a plurality of secure elements connected to the interposed element is disclosed. The method includes receiving a first communication at a first one of the secure elements. The first communication is sent by an external appliance and suited to an application located in one of the secure elements. The method further includes testing, by means of the first secure element, whether the first secure element contains the application. The first secure element is muted if the first secure element does not contain the application. A corresponding near field communication appliance and terminals are also disclosed.

Abstract: A contactless communication device including an energy interface configured to activate the contactless communication device or a contactless communication partner based on a first carrier signal; and a contactless high speed data interface configured to enable data communication between the contactless communication device and the contactless communication partner based on a second carrier signal having a frequency greater than a high frequency (HF).