mhurhangee/ep-ind-claims huggingface dataset:
A building or enclosure closure opening and/or closing apparatus comprising a building or enclosure closure opening and/or closing device including an actuator actuated by an actuating signal to allow or block access through a building or enclosure closure, a building or enclosure closure communication device for receiving and/or sending encrypted and/or signed messages; and an individual authentication device per building or enclosure closure opening and/or closing device which initiates the actuation signal on the basis of the receipt of a valid authentication code generated from one or more code keys, and comprising at least one first individual mobile user terminal comprising a user terminal communication device for transmitting and/or receiving encrypted and/or signed messages and a memory for storing at least one individual user key, and an encryption device for encrypting and/or signing messages by means of said at least one individual user key, wherein the individual authentication device comprises an individual device key and comprises a memory and/or a register having stored and/or registered therein user identification information for each authorized user using a first individual mobile user terminal, wherein the authentication device is designed to calculate an individual user key for each first user terminal by means of a unique code calculation from the device key and the user identification information, wherein the at least one first user terminal is adapted to receive and store in the memory its individual user key for the respective individual authentication device during a registration phase. an actuator actuated by an actuating signal to allow or block access through a building or enclosure closure, a building or enclosure closure communication device for receiving and/or sending encrypted and/or signed messages; and an individual authentication device per building or enclosure closure opening and/or closing device which initiates the actuation signal on the basis of the receipt of a valid authentication code generated from one or more code keys,
An apparatus for the measurement of a concentration of a charged species in a sample, the sample comprising a plurality of types of charged species and at least one insoluble component, the apparatus comprising: a first circuit with a voltage control device adapted to be connected to at least two first electrodes (30, 30') arranged along a channel holding the sample; and a second circuit with a conductivity detection device adapted to be connected to at least two second electrodes (5, 5') arranged in the channel; wherein the first circuit and the second circuit are electrically isolated from each other, and wherein the total capacitance of the apparatus is less than 100 pF. a first circuit with a voltage control device adapted to be connected to at least two first electrodes (30, 30') arranged along a channel holding the sample; and a second circuit with a conductivity detection device adapted to be connected to at least two second electrodes (5, 5') arranged in the channel; wherein the first circuit and the second circuit are electrically isolated from each other, and wherein the total capacitance of the apparatus is less than 100 pF.
A method for the high-resolution structuring and transferring of a mask into a substrate; with said mask consisting of structured ZnO, with said structuring of ZnO being performed using lithography and transferring of ZnO into the substrate being performed by dry etching, characterized in that said mask is self-supported using polymers and in that the method comprises the steps consisting in: - preparing a self-supported mask; - positioning said self-supported mask on a substrate to be structured; - transferring the self-supported mask into said substrate.
A fusion protein, comprising a polypeptide of genus X1-X2-X3-X4-X5, wherein: one of X1 and X5 comprises a fluorescence resonance energy transfer (FRET) acceptor polypeptide having an acceptor excitation wavelength and FRET emission wavelength, and the other of X1 and X5 comprises a FRET donor polypeptide having a donor excitation wavelength and a donor emission wavelength X2 and X4 independently are amino acid linkers; and wherein X3 comprises an ATP binding protein; wherein binding of ATP by the ATP binding protein causes interaction of the FRET acceptor polypeptide and the FRET donor polypeptide, and wherein: i) X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), ii) X2 and X4 are both A, iii) X2 is S and X4 is A, iv) X2 is absent and X4 is FF, v) X2 is V and X4 is FL, vi) X2 is T and X4 is GTSG (SEQ ID NO: 21), or vii) X2 is S and X4 is SA. one of X1 and X5 comprises a fluorescence resonance energy transfer (FRET) acceptor polypeptide having an acceptor excitation wavelength and FRET emission wavelength, and the other of X1 and X5 comprises a FRET donor polypeptide having a donor excitation wavelength and a donor emission wavelength X2 and X4 independently are amino acid linkers; and wherein X3 comprises an ATP binding protein; wherein binding of ATP by the ATP binding protein causes interaction of the FRET acceptor polypeptide and the FRET donor polypeptide, and wherein: i) X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), ii) X2 and X4 are both A, iii) X2 is S and X4 is A, iv) X2 is absent and X4 is FF, v) X2 is V and X4 is FL, vi) X2 is T and X4 is GTSG (SEQ ID NO: 21), or vii) X2 is S and X4 is SA. i) X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), X2 is an amino acid linker of 1 amino acid in length or is absent and/or X2 is an amino acid linker selected from the group consisting of A, S, V, T and TS, and X4 is an amino acid linker of between 1-4 amino acids in length and/or X4 is an amino acid linker selected from the group consisting of AT, A, SA, GA, FF, FL, S, and GTSG (SEQ ID NO: 21), ii) X2 and X4 are both A, iii) X2 is S and X4 is A, iv) X2 is absent and X4 is FF, v) X2 is V and X4 is FL, vi) X2 is T and X4 is GTSG (SEQ ID NO: 21), or vii) X2 is S and X4 is SA.
An antenna system (100, 200, 300, 410) comprising: an antenna radiating element (110, 210, 412) configured for at least one of RF signal transmission or RF signal reception, the antenna radiating element comprising a ground leg (112, 212); and a ground connection coupled to the ground leg (112, 212) and configured to couple the ground leg to ground, the ground connection including one or more electromagnetically coupled regions; wherein the one or more electromagnetically coupled regions are configured to increase an electrical length of the ground connection relative to a conductor length of the ground connection; wherein the antenna radiating element (110, 210, 412) includes a feed leg (114, 214) configured to couple the antenna radiating element to RF circuitry; the antenna system (100, 200, 300, 410) being characterized in that the ground connection, including the one or more electromagnetically coupled regions, comprises a spiral planar portion forming an isolated magnetic dipole. an antenna radiating element (110, 210, 412) configured for at least one of RF signal transmission or RF signal reception, the antenna radiating element comprising a ground leg (112, 212); and a ground connection coupled to the ground leg (112, 212) and configured to couple the ground leg to ground, the ground connection including one or more electromagnetically coupled regions; wherein the one or more electromagnetically coupled regions are configured to increase an electrical length of the ground connection relative to a conductor length of the ground connection; wherein the antenna radiating element (110, 210, 412) includes a feed leg (114, 214) configured to couple the antenna radiating element to RF circuitry; the antenna system (100, 200, 300, 410) being characterized in that the ground connection, including the one or more electromagnetically coupled regions, comprises a spiral planar portion forming an isolated magnetic dipole. the antenna system (100, 200, 300, 410) being characterized in that the ground connection, including the one or more electromagnetically coupled regions, comprises a spiral planar portion forming an isolated magnetic dipole.
Gateway device, adapted to couple a first network with a second network, comprising: - a first network interface device coupled by a first interface to the first network and having a second interface; - a second network interface device coupled by a first interface with the second network and having a second interface; - a network coupling device adapted to transmit in a first state no data from the second interface of the second network interface device to the second interface of the first network interface device on the physical layer and adapted to transmit in a second state data from the second interface of the second network interface device to the second interface of the first network interface device, wherein the network coupling device is adapted such that it allows in the first state only a data transmission from the first network interface device to the second network interface device; wherein said network coupling device includes a switching device (126, 128) coupled to a conductor (130, 134) coupling the second interface of the first network interface device and second interface of the second network interface device; wherein the switching device (126, 128) is connected such to the conductor (130, 134) that the conductor cannot transmit data in a first state of the switching device and that the conductor can transmit data in a second state of the switching device and wherein said switching device (126, 128) is controlled by a manual switch operated by a user. - a first network interface device coupled by a first interface to the first network and having a second interface; - a second network interface device coupled by a first interface with the second network and having a second interface; - a network coupling device adapted to transmit in a first state no data from the second interface of the second network interface device to the second interface of the first network interface device on the physical layer and adapted to transmit in a second state data from the second interface of the second network interface device to the second interface of the first network interface device, wherein the network coupling device is adapted such that it allows in the first state only a data transmission from the first network interface device to the second network interface device;
A control device for an internal combustion engine which uses a specific physical quantity as a control variable of the internal combustion engine, and controls the internal combustion engine by manipulation of one or a plurality of actuators, comprising: required value setting means which sets a required value of the physical quantity; manipulation variable instruction means which designates a manipulation variable of at least one actuator of the one or the plurality of actuators; manipulation variable setting means (8, 10; 10, 14, 16) which sets a manipulation variable or manipulation variables of the one or the plurality of actuators based on information of any one of a physical quantity required value set by the required value setting means and a manipulation variable instruction value designated by the manipulation variable instruction means; and manipulating means which manipulates the one or the plurality of actuators in accordance with a manipulation variable set value which is set by the manipulation variable setting means (8, 10; 10, 14, 16); characterized by physical quantity converting means which converts the manipulation variable instruction value into a value of the physical quantity which is realized in the internal combustion engine by the manipulation variable instruction value; and switch determining means (8; 12) which permits switch of the information for use in setting of the manipulation variable in the manipulation variable setting means (8, 10; 10, 14, 16) when a deviation between the physical quantity required value and a physical quantity conversion value obtained by conversion by the physical quantity converting means is within a predetermined range. required value setting means which sets a required value of the physical quantity; manipulation variable instruction means which designates a manipulation variable of at least one actuator of the one or the plurality of actuators; manipulation variable setting means (8, 10; 10, 14, 16) which sets a manipulation variable or manipulation variables of the one or the plurality of actuators based on information of any one of a physical quantity required value set by the required value setting means and a manipulation variable instruction value designated by the manipulation variable instruction means; and manipulating means which manipulates the one or the plurality of actuators in accordance with a manipulation variable set value which is set by the manipulation variable setting means (8, 10; 10, 14, 16); physical quantity converting means which converts the manipulation variable instruction value into a value of the physical quantity which is realized in the internal combustion engine by the manipulation variable instruction value; and switch determining means (8; 12) which permits switch of the information for use in setting of the manipulation variable in the manipulation variable setting means (8, 10; 10, 14, 16) when a deviation between the physical quantity required value and a physical quantity conversion value obtained by conversion by the physical quantity converting means is within a predetermined range.
A method for the load-dependent consumption detection of different sources of electricity in the end user region in a multiple dwelling unit, in particular in multiple dwelling units, comprising at least one automatic control unit and a plurality of multi-rate consumption meters (2, 3, 4) for the individual apartments with at least two registers, wherein the automatic control unit performs, via an algorithm, the activation of the registers of the multi-rate consumption meters (2, 3, 4), wherein the total electricity supply of at least two sources of electricity is taken into consideration with different rates, characterized in that the automatic control unit has an automatic PI-controller which integrates the total electricity of the multiple dwelling unit, split according to the types of electricity, over a selected period and activates the registers of the multi-rate consumption meters (2, 3, 4).
User interface apparatus for a device, having at least one operator control unit, in particular at least partially in the form of an operator control touch panel, for inputting and/or outputting input- and/or output-specific operator control signals, and having at least one antenna unit, in particular in the form of a patch antenna, for wireless transmission of operator control signals, wherein the antenna unit comprises at least one, in particular precisely one, base plate and at least one, in particular precisely one, resonator plate which is arranged at a distance from and parallel to the base plate, wherein the operator control unit comprises at least one operator control interface element (32, 34, 36), wherein the base plate and the resonator plate each delimit at least one cutout (38, 40), which cutouts are arranged at least partially one above the other as viewed perpendicularly to a principal plane of extent (44, 46) of the base plate and/or the resonator plate and each extend over a complete thickness (68, 70) of the resonator plate and/or the base plate, characterized in that the at least one operator control interface element (32, 34, 36) is arranged at least partially, in particular at least for the most part, in and/or at at least one of the cutouts (38, 40) and at a distance from the base plate and the resonator plate, in particular inner surfaces of the base plate and the resonator plate that delimit the cutouts (38, 40).
A bearing cleaning assembly comprising a tube having a first end and a second end, the first end including an entry port for receiving cleaning fluid therethrough, a piston adapted to move reciprocatingly inside the tube, the piston connected to a rod that emerges from the second end of the tube and terminates in a handle, an air vent formed at the second end, a first conical member connected to the first end for directing cleaning fluid into the entry port, and a second conical member adapted to be submerged in cleaning fluid and to support a bearing in need of cleaning, and characterized in that the second conical member is separate from the remainder of the assembly, wherein, in use, the bearing is sandwiched between the first and second conical members in the cleaning fluid, and the piston is withdrawn to draw cleaning fluid into the tube through the entry port, during which cleaning fluid is also drawn through and around the bearing so as to clean the bearing.
Coke oven device for producing coke by coking coal or coal mixtures, the coke oven device being set up for minimized nitrogen oxide emission by internal thermal energy compensation by means of coke oven gases (G1, G4, G5) by measures internal to the coke oven device, having a plurality of twin heating passes, each having a heating passage through which gas flows and a waste gas-carrying heating passage through which gas flows downwards, which heating passages are in each case delimited from one another in pairs by a partition wall and are sealed off from a respective oven chamber (10.2), the paired heating ducts being fluidically separated by means of an upper coupling passage (14.2) and optionally also by means of a lower coupling passage in each case for internal exhaust gas recirculation are coupled to one another on an outer circular flow path (19.1), in each case at least one inlet from the following group being provided in the lower region at the bottom (5.4) of the respective twin heating train: coke oven gas inlet, combustion air inlet, mixed gas inlet; at least one exhaust gas recirculation passage (14.2) is arranged more centrically with respect to the width (x) of the heating duct than at least one of the inlets (16, 17, 18) comprising the mixed gas inlet, and defines a more centrical flow path around which at least one of the admitted gases (G1, G5) flows, characterized in that at least two of the inlets (16, 17, 18) are arranged closer to the rotor walls on both sides of the coupling passages (14.2) in such a way that the respective exhaust gas recirculation passage (14.2) between the inlets (16, 17, 18) is laterally enclosed and delimited from the inlets (16, 17, 18), respectively is arranged laterally between the inlets (16, 17, 18) or delimited from the inlets (16, 17, 18), and at least three or four upwardly flowing partial flows are formed in the corresponding heating duct on flow paths which run at least approximately parallel to one another or at least next to one another at least over a height section in the height range from 0 to 1000 mm and lead to delayed mixing in this height section such that complete mixing only takes place above this height section.
An energy supply module comprising an input gate for connection to a power source and an output gate as an interruption-free power supply, wherein the input gate and the output gate are through-connected separably via an electrical separating device, an auxiliary energy source is connected in parallel with the input gate and the output gate, wherein the separating device is positioned between the auxiliary energy source and the input gate, the auxiliary energy source comprises a rechargeable energy store, and the separating device is a circuit arrangement with two transistors and two diodes, wherein the transistors are connected reversely in series, and the diodes are connected one to each transistor, inversely to the current direction of said diode, characterised in that the energy supply module - is designed to charge the energy store via the input gate, and - has a charging unit, which is arranged parallel to a switching device, wherein the connection in parallel of the charging unit to the switching device is designed in such a way that the auxiliary energy source can be charged by means of the charging unit via the input gate. the input gate and the output gate are through-connected separably via an electrical separating device, an auxiliary energy source is connected in parallel with the input gate and the output gate, wherein the separating device is positioned between the auxiliary energy source and the input gate, the auxiliary energy source comprises a rechargeable energy store, and the separating device is a circuit arrangement with two transistors and two diodes, wherein the transistors are connected reversely in series, and the diodes are connected one to each transistor, inversely to the current direction of said diode, characterised in that the energy supply module - is designed to charge the energy store via the input gate, and - has a charging unit, which is arranged parallel to a switching device, wherein the connection in parallel of the charging unit to the switching device is designed in such a way that the auxiliary energy source can be charged by means of the charging unit via the input gate. - is designed to charge the energy store via the input gate, and - has a charging unit, which is arranged parallel to a switching device, wherein the connection in parallel of the charging unit to the switching device is designed in such a way that the auxiliary energy source can be charged by means of the charging unit via the input gate.