Abstract: A component for conducting a fluid having a sensor, wherein the component comprises an inner and an outer wall, where-in the inner wall is configured to conduct the fluid, the outer wall terminates the component to the outside, and a wall region is formed between the inner and outer walls. The component in accordance with the invention is characterized in that the sensor has an electromechanical element and is arranged in the wall region at the inner wall, wherein the sensor is adapted to measure a degree of deformation of the inner wall in the region of the sensor by means of the sensor element and to output it as an electrical signal, wherein the sensor element preferably has a length and/or a width of ?50 ?m.

Abstract: The invention relates to a diaphragm assembly of an aperture diaphragm for delimiting the coating region which is operative in the deposition of a layer and to a sputtering device which uses the diaphragm assembly. The diaphragm assembly comprises a main part (13) which has a passage (14) delimited by a passage edge. The aim of the invention is to design the diaphragm opening to be temporally and geometrically variable in situ. This is achieved in that the diaphragm assembly has at least one diaphragm plate (17, 17?, 17?) which is assembled on the main part (13) so as to be movable in front of the passage (14) and back. The diaphragm assembly additionally comprises a movement device which is operatively connected to the diaphragm plate (17, 17?, 17?) in order to carry out the movement thereof.

Abstract: The invention relates to a banknote (100) having a processor (124) and a memory (120). An identification number (116) of the banknote (100) is stored in the memory (120) of the security element (102) and identifies an anonymous banknote account managed by a central bank (220) issuing the banknote (100) and individually assigned to the corresponding banknote (100). A banknote-specific cryptographic key (118) is stored in a protected memory area (122) of the memory (120). A payment method executed with the banknote (100) comprises: receiving a payment request for a payment with the banknote (100), generating a payment-specific cryptogram for authorising the payment with the banknote (100), wherein the cryptogram is generated from the identification number (116) of the banknote (100) and a payment-specific code as input values using the banknote-specific cryptographic key (118), sending a payment authorisation comprising the payment-specific cryptogram.

Abstract: A banknote includes a security element with a processor and a memory. A private cryptographic key of an asymmetric key pair of the banknote is stored in a protected memory area of the memory. The asymmetric key pair is assigned to a banknote-specific blockchain address in a blockchain. A payment method executed with the banknote includes receiving a payment request for a payment with the banknote in the form of a transaction of an amount to be paid from the blockchain address of the banknote to a blockchain address of a payee, signing a transaction approval with the private cryptographic key of the banknote, and sending the signed transaction approval.

Abstract: The present invention firstly relates to a security feature for a security or value document. The security feature comprises a zinc sulfide lurninophore in the form of particles. The zinc sulfide lurninophore has the general chemical formula ZnS: Cux, My, Xz; here, M represents one or more elements from a group comprising the chemical elements Co, In and Ni; X represents one or more elements from a group comprising the halides F, Cl, Br and I; and the following applies: 0 < x < 0.002 and 0 ? y < 0.00015 and 0 ? z < 0.00050. The particles each have cubic phase portions and hexagonal phase portions. When excited by an electrical field, the zinc sulfide luminophore emits a first radiation in the range of the light spectrum between 580 nm and 780 nm. When excited by heating the luminophore to a temperature between 100° C. and 150° C., the zinc sulfide luminophore emits a second radiation in the light spectrum.

Abstract: The invention relates to a method for operating a ground milling machine, in particular a road milling machine, a stabilizer, a recycler, a surface miner or the like, having an interchangeable milling drum, wherein the milling drum is equipped with a plurality of milling tools, in particular round shank picks, wherein the milling drum has a current state, wherein a control unit is provided for controlling at least one function of the ground milling machine, and wherein the milling drum has a characteristic feature or a characteristic feature is assigned to the milling drum. According to the invention, provision is made that at least one data set containing information on the current state of the milling drum is stored in a storage unit, in that the characteristic feature identifying the milling drum is assigned to the data set in the storage unit, and this data set is transmitted to a processing device.

Abstract: Sputter devices comprise a vacuum supply, a gas supply, a substrate holding device, and sputter sources. Each sputter source is held by an individual source support, each of which has an individual reference point allocated on a sputter surface facing the deposition area, and each of which has a source distance to a source reference surface from the individual reference point. The sputter sources are spaced apart from each other, are arranged as a two-dimensional array opposite the deposition area, and extend along the source reference surface. The source reference surface is parallel to the substrate reference surface. At least one of the sputter sources has a source distance deviating from zero.

Abstract: A rupture resistant system, including a tank configured to increase an inner volume of the tank under increased pressure conditions, wherein the tank, a sidewall extending about the inner volume of the tank, and wherein the sidewall includes an interior surface and an exterior surface, a bottom wall coupled to the sidewall, and a tank cover coupled to the sidewall opposite the bottom wall, wherein the tank cover includes a first plate coupled to a second plate, wherein the second plate extends from the first plate, and the first plate couples to a second end of the sidewall with a joint without overlapping the interior and exterior surfaces of the sidewall. The system also includes a radiator coupled to the tank, the radiator comprising a first panel and a second panel positioned at a distance from the first panel, the first panel and second panel being configured to increase the distance of the inner volume of the radiator.

Abstract: Sputter devices comprise a vacuum supply, a gas supply, a substrate holding device, and sputter sources. Each sputter source is held by an individual source support, each of which has an individual reference point allocated on a sputter surface facing the deposition area, and each of which has a source distance to a source reference surface from the individual reference point. The sputter sources are spaced apart from each other, are arranged as a two-dimensional array opposite the deposition area, and extend along the source reference surface. The source reference surface is parallel to the substrate reference surface. At least one of the sputter sources has a source distance deviating from zero.

Abstract: The invention relates to a mobile proximity coupling device (100) for inductive coupling with an integrated circuit of a proximity object, the integrated circuit comprising a coupling interface for inductive coupling, the proximity coupling device (100) comprising a contactless interface (107) being configured to inductively transmit a first number of commands towards the integrated circuit, and, after transmitting a respective command, to wait for a reception of a dedicated answer to the respective command from the integrated circuit within a predetermined time interval; and a processor (109) being configured to determine a quality indicator upon the basis of a second number of received dedicated answers to the first number of commands, the quality indicator indicating a quality of an inductive coupling between the contactless interface and the coupling interface of the integrated circuit.

Abstract: The invention relates to a mobile proximity coupling device (100) for inductive coupling with an integrated circuit of a proximity object, the integrated circuit comprising a coupling interface for inductive coupling, the mobile proximity coupling device (100) comprising a contactless interface (107) for inductive coupling with the coupling interface of the integrated circuit; a processor (109) for determining a quality indicator indicating a quality of the inductive coupling; and a display (111) for displaying a desired change of position of the mobile proximity coupling device relatively to the proximity object if the quality indicator indicates an insufficient quality of the inductive coupling.

Abstract: A rupture resistant system, including a tank configured to increase an inner volume of the tank under increased pressure conditions, wherein the tank, a sidewall extending about the inner volume of the tank, and wherein the sidewall includes an interior surface and an exterior surface, a bottom wall coupled to the sidewall, and a tank cover coupled to the sidewall opposite the bottom wall, wherein the tank cover includes a first plate coupled to a second plate, wherein the second plate extends from the first plate, and the first plate couples to a second end of the sidewall with a joint without overlapping the interior and exterior surfaces of the sidewall. The system also includes a radiator coupled to the tank, the radiator comprising a first panel and a second panel positioned at a distance from the first panel, the first panel and second panel being configured to increase the distance of the inner volume of the radiator.

Abstract: A rupture resistant system, including a tank configured to increase an inner volume of the tank under increased pressure conditions, wherein the tank includes a component situated within the inner volume of the tank and susceptible to increasing pressure within the tank when under an electrical fault condition, a sidewall extending about the inner volume of the tank, and wherein the sidewall includes an interior surface and an exterior surface, a bottom wall coupled to the sidewall, and a tank cover coupled to the sidewall opposite the bottom wall, wherein the tank cover includes a first plate coupled to a second plate, wherein the second plate extends from the first plate, and the first plate extends over the sidewall and the second plate overlaps and couples to the exterior surface of the sidewall with a first joint.

Abstract: The invention relates to a mobile proximity coupling device (100) for inductive coupling with an integrated circuit of a proximity object, the integrated circuit comprising a coupling interface for inductive coupling, the mobile proximity coupling device (100) comprising a contactless interface (107) for inductive coupling with the coupling interface of the integrated circuit; a processor (109) for determining a quality indicator indicating a quality of the inductive coupling; and a display (111) for displaying a desired change of position of the mobile proximity coupling device relatively to the proximity object if the quality indicator indicates an insufficient quality of the inductive coupling.

Abstract: The invention relates to a mobile proximity coupling device (100) for inductive coupling with an integrated circuit of a proximity object, the integrated circuit comprising a coupling interface for inductive coupling, the proximity coupling device (100) comprising a contactless interface (107) being configured to inductively transmit a first number of commands towards the integrated circuit, and, after transmitting a respective command, to wait for a reception of a dedicated answer to the respective command from the integrated circuit within a predetermined time interval; and a processor (109) being configured to determine a quality indicator upon the basis of a second number of received dedicated answers to the first number of commands, the quality indicator indicating a quality of an inductive coupling between the contactless interface and the coupling interface of the integrated circuit.

Abstract: A card reader device is configured to carry out communication with a contactless readable card according to standard ISO/IEC 14443 type B. In order to provide that a modulation index, which self-adjusts in close range in a presence of a contactless readable card, corresponds to a desired specified modulation index, the magnetic field is received and evaluated via a reception antenna of the card reader device. The modulation index is controlled or regulated accordingly in case of deviations between a measured modulation index and a specified value for the modulation index in order to approximate the measured modulation index to the specified value.

Abstract: A rupture resistant system, including a tank configured to increase an inner volume of the tank under increased pressure conditions, wherein the tank includes a component situated within the inner volume of the tank and susceptible to increasing pressure within the tank when under an electrical fault condition, a sidewall extending about the inner volume of the tank, and wherein the sidewall includes an interior surface and an exterior surface, a bottom wall coupled to the sidewall, and a tank cover coupled to the sidewall opposite the bottom wall, wherein the tank cover includes a first plate coupled to a second plate, wherein the second plate extends from the first plate, and the first plate extends over the sidewall and the second plate overlaps and couples to the exterior surface of the sidewall with a first joint.

Abstract: A system comprises a tank, a radiator connected to the tank, and a component situated within the tank and susceptible to creating increasing pressure within system when under a fault condition. The radiator is configured to directionally vent pressure under excessive pressure conditions.

Abstract: A rupture resistant system comprises a tank comprising a top member, a sidewall member, and a bottom member, and a component situated within the tank and susceptible to creating increasing pressure within the tank when under a fault condition. At least one of the top, sidewall, and bottom members is connected to another of the top, sidewall, and bottom members in a manner so as to cause an increase in inner volume of the tank under increased pressure conditions.

Abstract: In one embodiment, a combustion apparatus comprises: an oxidant inlet, a fuel inlet, a mixing zone configured to mix fuel and oxidant to form a mixture, a combustion zone in fluid communication with the mixing zone and configured to combust the mixture, and an outlet in fluid communication with the combustion zone. The mixing zone, the combustion zone, and/or the outlet comprises an electro-dynamic swirler configured to swirl ionized gas. The electro-dynamic swirler comprises a plurality of electrodes in electrical communication with a power source. In one embodiment, a method of creating thrust comprises: mixing a fuel and an oxidant to form a mixture, igniting the mixture to form an ignited mixture, combusting the ignited mixture to form a flame, and using the flame to create thrust, wherein the flame and/or the fuel and oxidant are electro-dynamically swirled.