Abstract: Part of the conductive loop of the threads is formed by a printed circuit on the substrate (5), where the group of the conductive strips (2) placed side by side is produced, and the core (1) is placed on them. The conductive strips (2) overhang from the groundplan of the core (1) and the ends of the conductive strips (2) overhanging on both sides of the core (1) form the connecting surfaces (4). The wires (3) shaped for the encirclement of the core (1) are connected to the connecting surfaces (4), whereby the wire (3) connects a connecting surface (4) of one conductive strip (2) with the connecting surface (4) on the opposite end of the neighboring conductive strip (2). After bonding to one end of the conductive strip (2) the wire is shaped above the substrate (5) by bending in such a way that it arches over the space intended for the core (1) and all wires (3) are shaped in such a way that they produce a channel for the core (1) placed on the substrate (5).

Abstract: Part of the conductive loop of the threads is formed by a printed circuit on the substrate (5), where the group of the conductive strips (2) placed side by side is produced, and the core (1) is placed on them. The conductive strips (2) overhang from the groundplan of the core (1) and the ends of the conductive strips (2) overhanging on both sides of the core (1) form the connecting surfaces (4). The wires (3) shaped for the encirclement of the core (1) are connected to the connecting surfaces (4), whereby the wire (3) connects a connecting surface (4) of one conductive strip (2) with the connecting surface (4) on the opposite end of the neighboring conductive strip (2). After bonding to one end of the conductive strip (2) the wire is shaped above the substrate (5) by bending in such a way that it arches over the space intended for the core (1) and all wires (3) are shaped in such a way that they produce a channel for the core (1) placed on the substrate (5).

Abstract: The emitter is intended to provide a contactless communication channel (particularly RFID/NFC) in miniature build space. The emitter has an oblong, at least partially ferrite core (1), the core (1) is winded up by a wire (4) with at least two threads (2), the threads (2) are on the core (1) placed tightly next to each other and the effective width (w)of one thread (2) corresponds to the radius of the core (1) in the circular core (1) cross-section, or corresponds to the equivalent radius in other shapes of the core (1) with deviation up to +?75%. The wire (4) of the coil is flat, or the coil includes several wires held parallel to each other (41 to 4N) forming a multi-stage thread. The emitter can be placed in the removable memory card (5) and/or on the PCB board (10) and/or SIM card (9) and/or battery (11). Modulation of data transmitted by the emitter uses electromagnetic wave generator with a frequency different from the receiver, difference of these frequencies corresponds to the subcarrier frequency.

Abstract: The emitter is intended to provide a contactless communication channel (particularly RFID/NFC) in miniature build space. The emitter has an oblong, at least partially ferrite core (1), the core (1) is winded up by a wire (4) with at least two threads (2), the threads (2) are on the core (1) placed tightly next to each other and the effective width (w)of one thread (2) corresponds to the radius of the core (1) in the circular core (1) cross-section, or corresponds to the equivalent radius in other shapes of the core (1) with deviation up to +?75%. The wire (4) of the coil is flat, or the coil includes several wires held parallel to each other (41 to 4N) forming a multi-stage thread. The emitter can be placed in the removable memory card (5) and/or on the PCB board (10) and/or SIM card (9) and/or battery (11). Modulation of data transmitted by the emitter uses electromagnetic wave generator with a frequency different from the receiver, difference of these frequencies corresponds to the subcarrier frequency.

Abstract: The battery (1) of a mobile communication device, especially a mobile phone, has at least one slot (2) for insertion an additional element and has a motion and/or shock sensor (3), and the electric power supply of the slot (2) is connected to the battery (1) via a switch (6) that is activated by a motion and/or shock sensor (3). The switch (6) is timing and connects the slot (2) to voltage for the set time during which the length of the switch (6) closure can be extended by the activity followed by an additional component. The additional element will particularly be the removable memory card (4) of SD or microSD format, or the removable card (5) of SIM format and the slot (2) will have an appropriate interface. The battery can also have a Bluetooth module (7), and the Bluetooth module (7) is adapted to communicate with a host mobile communication device.

Abstract: When processing repeated operations on the keyboard of a mobile communication device, mainly at direct debits, used is a separate data carrier with a memory in which is stored at least one file with a sequence of keyboard orders of a macro type. Data carrier is energetically supplied contact-free by electromagnetic field of the mobile communication device while receiving the requiring order and, according to this order, chooses from the memory and encodes appropriate file with a sequence of keyboard orders. Data carrier sends the encoded file into the mobile communication device which decodes the received file and performs processes representing the keystrokes according to the sequence of keyboard orders. The invention also describes connection and data carrier to perform above described method where the data carrier consists of a processor, transmitting and receiving unit, block for transforming electromagnetic field and a memory to store a file of orders.

Abstract: The method and system of authentication of authorized person and transaction approval principally at the direct debits by means of a mobile communication device (2) is based on the fact that an alphanumerical chain is sent from the mobile communication device (2) into energy passive identifier (3) approached to the mobile communication device (2), the identifier (3) is supplied contact free by electromagnetic field of the mobile communication device (2) while in the identifier the received alphanumerical chain is signed electronically and in such signed alphanumerical chain is sent back into the mobile communication device (2). Payment approval is realized by the correctness approval of the electronically signed alphanumerical chain and by approaching the mobile communication device (2) to the payment terminal (1). The invention enables to use a high level of cryptography security by using a passive identifier (3) which does not demand own energy source.

Abstract: When processing repeated operations on the keyboard of a mobile communication device, mainly at direct debits, used is a separate data carrier with a memory in which is stored at least one file with a sequence of keyboard orders of a macro type. Data carrier is energetically supplied contact-free by electromagnetic field of the mobile communication device while receiving the requiring order and, according to this order, chooses from the memory and encodes appropriate file with a sequence of keyboard orders. Data carrier sends the encoded file into the mobile communication device which decodes the received file and performs processes representing the keystrokes according to the sequence of keyboard orders. The invention also describes connection and data carrier to perform above described method where the data carrier consists of a processor, transmitting and receiving unit, block for transforming electromagnetic field and a memory to store a file of orders.

Abstract: The method and system of authentication of authorized person and transaction approval principally at the direct debits by means of a mobile communication device (2) is based on the fact that an alphanumerical chain is sent from the mobile communication device (2) into energy passive identifier (3) approached to the mobile communication device (2), the identifier (3) is supplied contact free by electromagnetic field of the mobile communication device (2) while in the identifier the received alphanumerical chain is signed electronically and in such signed alphanumerical chain is sent back into the mobile communication device (2). Payment approval is realized by the correctness approval of the electronically signed alphanumerical chain and by approaching the mobile communication device (2) to the payment terminal (1). The invention enables to use a high level of cryptography security by using a passive identifier (3) which does not demand own energy source.