Abstract: A method for manufacture of an electronic interface card including defining a pair of apertures in a substrate layer, associating an antenna with the substrate layer such that opposite ends of the antenna terminate at the apertures, placing a metal element in each of the apertures, connecting the ends of the antenna to the metal elements, laminating the substrate layer together with a top layer and a bottom layer, forming a recess in the top layer and the substrate layer, attaching ends of connection wires to the metal elements, attaching opposite ends of the connection wires to a chip module and sealing the chip module in the recess.

Abstract: A contactless bi-directional device including first and second generally mutually electromagnetically decoupled contactless loop antennas which are arranged in at least partially mutually overlapping orientation, first and second contactless communication chips, each of the first and second communications chips being connected to a corresponding one of the generally mutually electromagnetically decoupled contactless loop antennas, thereby providing bi-directional communication.

Abstract: A contactless bi-directional device including first and second generally mutually electromagnetically decoupled contactless loop antennas which are arranged in at least partially mutually overlapping orientation, first and second contactless communication chips, each of the first and second communications chips being connected to a corresponding one of the generally mutually electromagnetically decoupled contactless loop antennas, thereby providing bi-directional communication.

Abstract: A method for manufacture of an electronic interface card (100) including defining a pair of apertures in a substrate layer (116), associating an antenna (112) with the substrate layer (116) such that opposite ends of the antenna (112) terminate at the apertures, placing a metal element in each of the apertures, connecting the ends of the antenna to the metal elements, laminating the substrate layer together with a top layer (114) and a bottom layer (118), forming a recess (122) in the top layer and the substrate layer, attaching end of connection wires (130) to the metal elements, attaching opposite ends of the connection wires (130) to a chip module (120) and sealing the chip module in the recess (122).

Abstract: A method and device for manufacturing a smart card inlay includes attaching a first and a second end of a single wire antenna to a single first substrate, fixing the wire antenna, aside from the first and second ends thereof, to a second substrate. The method further includes thereafter relocating the first substrate relative to the second substrate such that the first and second ends of the wire antenna are at locations on the second substrate suitable for connection to a chip module, thereafter connecting the first end and the second end to the chip module, and thereafter removing the first substrate.

Abstract: A contactless bi-directional device including first and second generally mutually electromagnetically decoupled contactless loop antennas which are arranged in at least partially mutually overlapping orientation, first and second contactless communication chips, each of the first and second communications chips being connected to a corresponding one of the generally mutually electromagnetically decoupled contactless loop antennas, thereby providing bi-directional communication.

Abstract: A contactless bi-directional device including first and second generally mutually electromagnetically decoupled contactless loop antennas which are arranged in at least partially mutually overlapping orientation, first and second contactless communication chips, each of the first and second communications chips being connected to a corresponding one of the generally mutually electromagnetically decoupled contactless loop antennas, thereby providing bi-directional communication.

Abstract: A contactless transaction adaptor for use with a mobile communicator, including a thin SIM card signal interceptor portion arranged for insertion intermediate an existing SIM card, having SIM card-based contacts, and communicator based SIM card contacts located in a SIM card recess formed in the communicator, the interceptor portion having first contacts for communication with the communicator-based SIM card contacts and second contacts for communication with the SIM card-based contacts, a contactless communication circuit bearing portion arranged for insertion in the communicator, a contactless antenna and a contactless communication circuit both mounted onto the circuit bearing portion, a flexible connector portion interconnecting the intercept or portion and the circuit bearing portion, a first electrical path extending along the connector portion between the contacts of the interceptor portion and the contactless communication circuit, and a second electrical path extending along the circuit bearing porti

Abstract: A method for manufacture of a contactless smart card device including mounting at least one antenna and at least one smart card module onto a substrate layer, placing aramagnetic material over at least part of the at least one antenna, and laminating the substrate layer and the paramagnetic material to provide a laminate.

Abstract: A method for manufacture of an electronic interface card including defining a pair of apertures in a substrate layer, associating an antenna with the substrate layer such that opposite ends of the antenna terminate at the apertures, placing a conductor in each of the apertures, connecting the antenna to the conductor, forming a recess in the substrate layer, attaching continuous connection wires to a plurality of chip modules, attaching the continuous connection wires to a plurality of conductors on a corresponding plurality of the substrate layers, cutting the continuous connection wires so as to retain portions thereof which connect each chip module to a corresponding pair of conductors and sealing the chip module in the recess.

Abstract: A multi-application contactless smart card system and method. The user may select application using selection mechanism located on the smart card or at the contactless reader. The selection means may be connected to the contact I/O pin of the processor of the smart card. In some embodiments, the processor of the smart card may read the user selection through the contact I/O pin during a simulated contact transaction, evoke the desired application and perform the contactless transaction. During the simulated contact transaction power up sequence is preserved by extracting power signals to the contact VDD pin from the RF signal. Alternatively, the state of the selection mechanism may be sampled continuously or at convenient time intervals, enabling further switching between applications during a single contactless session.

Abstract: A contactless bi-directional device including first and second generally mutually electromagnetically decoupled contactless loop antennas which are arranged in at least partially mutually overlapping orientation, first and second contactless communication chips, each of the first and second communications chips being connected to a corresponding one of the generally mutually electromagnetically decoupled contactless loop antennas, thereby providing bi-directional communication.

Abstract: A contactless transaction adaptor for use with a mobile communicator, including a thin SIM card signal interceptor portion arranged for insertion intermediate an existing SIM card, having SIM card-based contacts, and communicator based SIM card contacts located in a SIM card recess formed in the communicator, the interceptor portion having contacts for communication with the communicator-based SIM card contacts and contacts for communication with the SIM card-based contacts, a contactless communication circuit bearing portion arranged for insertion in the communicator, a contactless antenna and a contactless communication circuit both mounted onto the circuit bearing portion, a flexible connector portion interconnecting the interceptor portion and the circuit bearing portion, an electrical path extending along the connector portion between the contacts of the interceptor portion and the contactless communication circuit, and an electrical path extending along the circuit bearing portion between the antenna an

Abstract: A method for manufacture of an electronic interface card including defining a pair of apertures in a substrate layer, associating an antenna with the substrate layer such that opposite ends of the antenna terminate at the apertures, placing a conductor in each of the apertures, connecting the antenna to the conductor, forming a recess in the substrate layer, attaching continuous connection wires to a plurality of chip modules, attaching the continuous connection wires to a plurality of conductors on a corresponding plurality of the substrate layers, cutting the continuous connection wires so as to retain portions thereof which connect each chip module to a corresponding pair of conductors and sealing the chip module in the recess.

Abstract: A multiple antenna reading system suitable for use with contactless transaction devices, the system including at least one reader, at least first and second antennas having at least some inductive coupling therebetween and being coupled to the at least one reader and antenna function disabling circuitry automatically operative upon activation of at least a first one of the at least first and second antennas to disable antenna function of at least a second one of the at least first and second antennas.

Abstract: A multi-application contactless smart card system and method. The user may select application using selection mechanism located on the smart card or at the contactless reader. The selection means may be connected to the contact I/O pin of the processor of the smart card. In some embodiments, the processor of the smart card may read the user selection through the contact I/O pin during a simulated contact transaction, evoke the desired application and perform the contactless transaction. During the simulated contact transaction power up sequence is preserved by extracting power signals to the contact VDD pin from the RF signal. Alternatively, the state of the selection mechanism may be sampled continuously or at convenient time intervals, enabling further switching between applications during a single contactless session.

Abstract: A method for manufacture of a contactless smart card device including mounting at least one antenna and at least one smart card module onto a substrate layer, placing aramagnetic material over at least part of the at least one antenna, and laminating the substrate layer and the paramagnetic material to provide a laminate.

Abstract: A mobile communicator including a main housing portion, defining a SIM card socket, a battery located at a battery location defined by the main housing portion, a cover over the battery and a retrofit contactless smart SIM functionality assembly, having a SIM card shaped portion which is mounted in the SIM card socket, a contactless smart card antenna portion located between the battery and the cover and an antenna tail portion which interconnects the contactless smart card antenna portion with the SIM card shaped portion, the antenna tail portion being attached and electrically connected to the SIM card shaped portion by means of an electrically conductive adhesive.

Abstract: A contactless transaction adaptor for use with a mobile communicator, including a thin SIM card signal interceptor portion arranged for insertion intermediate an existing SIM card, having SIM card-based contacts, and communicator based SIM card contacts located in a SIM card recess formed in the communicator, the interceptor portion having first contacts for communication with the communicator-based SIM card contacts and second contacts for communication with the SIM card-based contacts, a contactless communication circuit bearing portion arranged for insertion in the communicator, a contactless antenna and a contactless communication circuit both mounted onto the circuit bearing portion, a flexible connector portion interconnecting the interceptor portion and the circuit bearing portion, a first electrical path extending along the connector portion between the contacts of the interceptor portion and the contactless communication circuit, and a second electrical path extending along the circuit bearing portio

Abstract: A mobile communicator including a main housing portion, defining a SIM card socket, a battery located at a battery location defined by the main housing portion, a cover over the battery and a retrofit contactless smart SIM functionality assembly, having a SIM card shaped portion which is mounted in the SIM card socket, a contactless smart card antenna portion located between the battery and the cover and an antenna tail portion which interconnects the contactless smart card antenna portion with the SIM card shaped portion, the antenna tail portion being attached and electrically connected to the SIM card shaped portion by means of an electrically conductive adhesive.