mhurhangee/ep-ind-claims huggingface dataset:
A method for printing on an object, which is not paper, by means of a digital printing facility which has multiple ink application units for applying printing ink of different colours, wherein the method involves guiding an ink carrier element (8, 28) past the ink application units in a feed direction (10, 26), wherein the digital printing facility comprises a device (2, 26) that is configured and well-suited to prevent or reduce a build-up of condensation on the ink application units, and wherein the build-up on condensation on the ink application units is prevented or reduced by this device (2, 26), the device (2, 26) comprising a temperature control device and an electrical control unit, the temperature control device being configured to influence a temperature of the ink application units and the electrical control unit being configured to control the temperature control device in such a way that the ink application units are at different temperatures, characterised in that the temperatures of the ink application units increase in the feed direction (10, 10) and the temperatures of two adjacent ink application units differ by at least 0.5°C and at most 1.5°C, wherein the temperatures of the first ink application unit in the feed direction (10, 26) and the last ink application unit in the feed direction (10, 26) differ by at most 10°C.
Cooktop having a cooktop plate, heating devices (29a-d) arranged underneath, at least three application supports (40a-d) and an operator control device, wherein - the cooktop plate covers the heating devices (29a-d), - the cooktop has a cooktop housing underneath the cooktop plate, - the cooktop housing contains or includes the heating devices (29a-d), - the cooktop plate is placed, in relation to the cooktop housing, on the at least three application supports (40a-d) such that the cooktop plate is movable in the vertical direction in relation to the cooktop housing, - the cooktop plate is held exclusively by the at least three application supports (40a-d), or is connected to the cooktop housing or the remaining cooktop exclusively on the at least three application supports, - the application supports (40a-d) comprise weight sensors (48a-d) which are provided for measuring the weight load of the cooktop plate, together with any load thereon, resting on the application supports, characterized by an upper cover plate which covers at least the surface area of the cooktop plate and extends below the cooktop plate at a distance of 1 mm to 10 mm, wherein - the connection of the cooktop plate to the application supports (40a-d) extends through the cover plate, - the cover plate reaches from a left lateral side of the cooktop up to a right lateral side and up to a rear lateral side, - the cover plate has recesses for the heating devices (29a-d) such that the heating devices are disposed within the recesses, - the recesses are sealingly closed by a cover (33a-d), - a heating device (29a-d) is disposed directly underneath the cover (33a-d) at a distance of 0.5 mm to 10 mm to the bottom side of the cover. - the cooktop plate covers the heating devices (29a-d), - the cooktop has a cooktop housing underneath the cooktop plate, - the cooktop housing contains or includes the heating devices (29a-d), - the cooktop plate is placed, in relation to the cooktop housing, on the at least three application supports (40a-d) such that the cooktop plate is movable in the vertical direction in relation to the cooktop housing, - the cooktop plate is held exclusively by the at least three application supports (40a-d), or is connected to the cooktop housing or the remaining cooktop exclusively on the at least three application supports, - the application supports (40a-d) comprise weight sensors (48a-d) which are provided for measuring the weight load of the cooktop plate, together with any load thereon, resting on the application supports, - the connection of the cooktop plate to the application supports (40a-d) extends through the cover plate, - the cover plate reaches from a left lateral side of the cooktop up to a right lateral side and up to a rear lateral side, - the cover plate has recesses for the heating devices (29a-d) such that the heating devices are disposed within the recesses, - the recesses are sealingly closed by a cover (33a-d), - a heating device (29a-d) is disposed directly underneath the cover (33a-d) at a distance of 0.5 mm to 10 mm to the bottom side of the cover.
A method of assembling a micromixer assembly of a turbine system comprising: applying a surface treatment wear layer to at least a portion of at least one micromixer tube, the treatment consisting of application of a braze alloy powder followed by vacuum braze processing to form a wear resistant brazed coating, inserting the surface treated at least one micromixer tube into a receiving aperture of a plate, and optionally securing the micromixer tube and the plate, wherein the at least one micromixer tube is operably coupled to the plate by friction welding, and wherein friction welding is achieved by exerting a radial force on an inner wall of the tube with an expander to form at least one operable connection between the outer surface of the at least one micromixer tube and the receiving aperture of the plate. wherein the at least one micromixer tube is operably coupled to the plate by friction welding, and wherein friction welding is achieved by exerting a radial force on an inner wall of the tube with an expander to form at least one operable connection between the outer surface of the at least one micromixer tube and the receiving aperture of the plate.
An antibody or antigen-binding fragment thereof that binds to an epitope comprised in the amino acid sequence according to SEQ ID NO:1 (whereby SEQ ID NO: 1 corresponds to an intracellular portion of human PD-L1), wherein the antibody heavy chain or antigen-binding fragment thereof comprises the amino acid sequence according to SEQ ID NO: 110 and the antibody light chain or antigen-binding fragment thereof comprises the amino acid sequence according to SEQ ID NO: 111.
Method for automatically mapping a reference view of a playing field containing field lines with a camera image, wherein the method comprises - determining in the reference view predefined locations on the playing field; - receiving the camera image from a camera; - classifying intersections of the field lines with a first neural network at predefined positions on the playing field for automatically classifying each pixel of the camera image into a plurality of classes, wherein the classes correspond to the predefined locations in the reference view on the playing field; - detecting the field lines in the camera image with a second neural network; - receiving the output of the first neural network and a known geometry of the playing field and the field lines thereon for calculating a geometric transformation defining how the geometry of the playing field is transformed by the perspective of the camera image and for calculating field lines in the camera view; - refining the geometric transformation by minimizing deviations between the calculated field lines and the detected field lines; - detecting positions of players and distinguishing their respective teams with a third neural network; - automatically positioning an offside line in the camera image by using the refined geometric transformation according to the detected position of one of the players, wherein the offside line is displayable in the camera image. - determining in the reference view predefined locations on the playing field; - receiving the camera image from a camera; - classifying intersections of the field lines with a first neural network at predefined positions on the playing field for automatically classifying each pixel of the camera image into a plurality of classes, wherein the classes correspond to the predefined locations in the reference view on the playing field; - detecting the field lines in the camera image with a second neural network; - receiving the output of the first neural network and a known geometry of the playing field and the field lines thereon for calculating a geometric transformation defining how the geometry of the playing field is transformed by the perspective of the camera image and for calculating field lines in the camera view; - refining the geometric transformation by minimizing deviations between the calculated field lines and the detected field lines; - detecting positions of players and distinguishing their respective teams with a third neural network; - automatically positioning an offside line in the camera image by using the refined geometric transformation according to the detected position of one of the players, wherein the offside line is displayable in the camera image.
A recombinant DNA molecule comprising a nucleotide sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:9, SEQ ID NO:10, and complete complement thereof.
A compound comprising 1 to 20 organometallic cations and 1 to 20 organometallic anions wherein the compound is not charged and wherein each organometallic cation is independently selected from the group consisting of: and wherein the organometallic anion is selected from the group consisting of: 1 to 20 organometallic cations and 1 to 20 organometallic anions wherein the compound is not charged and wherein each organometallic cation is independently selected from the group consisting of: and wherein the organometallic anion is selected from the group consisting of:
A self-ligating orthodontic bracket for receiving an archwire comprising: a base having a pair of spaced apart and substantially parallel upstanding hinge members (32, 34) having aligned slots (38, 40) that are U-shaped and configured to receive a main archwire and thereby coact to define an archwire slot for the bracket, a pair of jaws (22, 24) coacting with the slots and hingedly connected to said hinge members and movable between open and closed positions to selectively open the bracket for insertion of an archwire into the archwire slot or withdrawal of an archwire from the archwire slot or close the bracket to retain an archwire in said archwire slot, and spring means engaging said jaws for selectively maintaining said jaws locked in open or closed position, wherein the spring means additionally defines the floor of said archwire slot between said hinge members. a base having a pair of spaced apart and substantially parallel upstanding hinge members (32, 34) having aligned slots (38, 40) that are U-shaped and configured to receive a main archwire and thereby coact to define an archwire slot for the bracket, a pair of jaws (22, 24) coacting with the slots and hingedly connected to said hinge members and movable between open and closed positions to selectively open the bracket for insertion of an archwire into the archwire slot or withdrawal of an archwire from the archwire slot or close the bracket to retain an archwire in said archwire slot, and spring means engaging said jaws for selectively maintaining said jaws locked in open or closed position, wherein the spring means additionally defines the floor of said archwire slot between said hinge members.
Fuel cell apparatus with at least one fuel cell unit (12c; 12d), which is intended at least for generating electrical energy, and with at least one inverter (14c; 14d), which is intended to transform the electrical energy for feeding into an electrical network (16c; 16d), and with a load buffer unit (18c; 18d), which is intended to take up electrical energy at least partially when there is a load drop at the inverter (14c; 14d), characterized in that the load buffer unit (18c; 18d) is arranged on an alternating current side (26c; 26d) of the inverter (14c; 14d).
A method at a network node for providing network services comprising: receiving at the network node a configuration request, wherein the configuration request identifies a mobile node; characterised by determining a location of the mobile node by the network node; selecting by the network node a directory agent from a plurality of directory agents, based at least on the location of the mobile node, the directory agents operable to monitor an Internet Protocol, IP, network having one or more service agents, and the plurality of directory agents operable to store location of one or more service agents and service information describing services offered by the one or more service agents; and transmitting by the network node a configuration response to the mobile node, wherein the configuration response identifies the selected directory agent. receiving at the network node a configuration request, wherein the configuration request identifies a mobile node; characterised by determining a location of the mobile node by the network node; selecting by the network node a directory agent from a plurality of directory agents, based at least on the location of the mobile node, the directory agents operable to monitor an Internet Protocol, IP, network having one or more service agents, and the plurality of directory agents operable to store location of one or more service agents and service information describing services offered by the one or more service agents; and transmitting by the network node a configuration response to the mobile node, wherein the configuration response identifies the selected directory agent.
An airfoil for a gas turbine engine comprising an airfoil section having radially inner and outer ends (66a, 66b) and defining an airfoil profile having a leading end, a trailing end, a suction side, and a pressure side, the airfoil section including a ceramic airfoil piece that defines a portion of the airfoil profile, the ceramic airfoil piece including an exterior wall having an internal cooling circuit, wherein the exterior wall includes inner and outer wall portions (1176a, 1176b) that define the internal cooling circuit there between; characterised in that the exterior wall includes a first internal rib and a second internal rib that connect the inner wall portion to the outer wall portion and define a circuitous circuit passages of the internal cooling circuit within the exterior wall, the first internal rib including an impingement orifice that opens toward an impingement face of the second internal rib, and the exterior wall includes a cooling hole on an opposite side of the second internal rib from the impingement face.
A motor control device comprising: a current detection means adapted to detect a current (Iu, Iv, Iw) flowing through a stator coil in a synchronous motor; an applied voltage detection means adapted to detect an applied voltage (Vu, Vv, Vw) applied to the stator coil; a current electrical angle detection means adapted to detect a current electrical angle (θi) based on the current (Iu, Iv, Iw) detected by the current detection means; an induced voltage electrical angle detection means adapted to detect an induced voltage electrical angle (θe) based on the current (Iu, Iv, Iw) detected by the current detection means and the applied voltage (Vu, Vv, Vw) detected by the applied voltage detection means; and a startup means adapted to output a startup voltage instruction value (Vp) and a startup voltage phase instruction value (θv) in a startup mode, and increasing the rotational velocity (ω) of the synchronous motor driven based on the instruction values with predetermined acceleration; the motor control device being characterized by further comprising: an acceleration adjustment means adapted to adjust the startup voltage phase instruction value (θv) so as to adjust the acceleration based on an amount of change in a difference (θe - θi) between the induced voltage electrical angle (θe) and the current electrical angle (θi) in a control period. a current detection means adapted to detect a current (Iu, Iv, Iw) flowing through a stator coil in a synchronous motor; an applied voltage detection means adapted to detect an applied voltage (Vu, Vv, Vw) applied to the stator coil; a current electrical angle detection means adapted to detect a current electrical angle (θi) based on the current (Iu, Iv, Iw) detected by the current detection means; an induced voltage electrical angle detection means adapted to detect an induced voltage electrical angle (θe) based on the current (Iu, Iv, Iw) detected by the current detection means and the applied voltage (Vu, Vv, Vw) detected by the applied voltage detection means; and a startup means adapted to output a startup voltage instruction value (Vp) and a startup voltage phase instruction value (θv) in a startup mode, and increasing the rotational velocity (ω) of the synchronous motor driven based on the instruction values with predetermined acceleration; the motor control device being characterized by further comprising: an acceleration adjustment means adapted to adjust the startup voltage phase instruction value (θv) so as to adjust the acceleration based on an amount of change in a difference (θe - θi) between the induced voltage electrical angle (θe) and the current electrical angle (θi) in a control period. an acceleration adjustment means adapted to adjust the startup voltage phase instruction value (θv) so as to adjust the acceleration based on an amount of change in a difference (θe - θi) between the induced voltage electrical angle (θe) and the current electrical angle (θi) in a control period.
Method for producing a high-resolution three-dimensional digital subtraction angiography image of an examination object, comprising the following steps: • Provision or recording of a data set of a three-dimensional rotational run of an imaging system around the examination object without administration of contrast agent (mask run), • Motion compensation of the data set of the mask run by means of a method based on the epipolar consistency conditions, • Provision or recording of a data set of a three-dimensional rotational run of the imaging system around the examination object with administration of contrast agent (fill run), • Motion compensation of the data set of the fill run by means of a method based on the epipolar consistency conditions, • Reconstruction of a first volume from the compensated data set of the mask run (mask volume) and a second volume from the compensated data set of the fill run (fill volume), • Rigid 3D-3D registration of the first volume and second volume relative to one another, and • Calculation of a high-resolution three-dimensional digital subtraction angiography image by subtracting the mask volume from the fill volume, wherein redundancies between the data sets for different rotational runs are additionally used to perform motion compensation between and/or during the rotational runs. • Provision or recording of a data set of a three-dimensional rotational run of an imaging system around the examination object without administration of contrast agent (mask run), • Motion compensation of the data set of the mask run by means of a method based on the epipolar consistency conditions, • Provision or recording of a data set of a three-dimensional rotational run of the imaging system around the examination object with administration of contrast agent (fill run), • Motion compensation of the data set of the fill run by means of a method based on the epipolar consistency conditions, • Reconstruction of a first volume from the compensated data set of the mask run (mask volume) and a second volume from the compensated data set of the fill run (fill volume), • Rigid 3D-3D registration of the first volume and second volume relative to one another, and • Calculation of a high-resolution three-dimensional digital subtraction angiography image by subtracting the mask volume from the fill volume,
A device using flow of gases or liquids, comprising a rotor with at least two plates being pivotally mounted on rotor arms, a synchronization system, a bearing axis and a directional vane, whereby the plates are connected through the synchronization system with the directional vane and whereby the rotor and the directional vane are pivotally mounted on the bearing axis being always perpendicular to the flow axis.
A rotating assembly for a gas turbine engine with at least a compression section and a turbine section, comprising: at least two rotating group components defining a bore, wherein the at least two rotating group components include at least one compressor rotor assembly with a first compressor rotor assembly at a forward-most position in the compression section and at least one turbine rotor assembly with a first turbine rotor assembly at an aft-most position in the turbine section; and a tie shaft extending through the bore and axially retaining the at least two rotating group components during operation of the gas turbine engine, the tie shaft having a forward end and an aft end and defining an internal surface, wherein the tie shaft comprises a first at least one internal groove on the internal surface at the forward end and a second at least one internal groove on the internal surface at the aft end, and characterised in that the forward end of the tie shaft terminates aft of a forward-most point of the first compressor rotor assembly and the aft end of the tie shaft terminates forward of an aft-most portion of the second turbine rotor assembly. at least two rotating group components defining a bore, wherein the at least two rotating group components include at least one compressor rotor assembly with a first compressor rotor assembly at a forward-most position in the compression section and at least one turbine rotor assembly with a first turbine rotor assembly at an aft-most position in the turbine section; and a tie shaft extending through the bore and axially retaining the at least two rotating group components during operation of the gas turbine engine, the tie shaft having a forward end and an aft end and defining an internal surface, wherein the tie shaft comprises a first at least one internal groove on the internal surface at the forward end and a second at least one internal groove on the internal surface at the aft end, and characterised in that the forward end of the tie shaft terminates aft of a forward-most point of the first compressor rotor assembly and the aft end of the tie shaft terminates forward of an aft-most portion of the second turbine rotor assembly.
A method for configuring a Personal Network, PN, by a PN gateway, comprising the steps of: receiving a connection request message from a Personal Network Entity, PNE, at the PN gateway; transmitting (510, 515) the connection request message to other PNEs in response to the connection request message; generating a PN routing table based on the connection request message; receiving an authentication request message including Identification, ID, information of the PN from a server; and forwarding the authentication request message from the PN gateway to one or more PNEs based on the PN routing table; wherein the one or more PNEs receive a service from the server through the PN gateway. receiving a connection request message from a Personal Network Entity, PNE, at the PN gateway; transmitting (510, 515) the connection request message to other PNEs in response to the connection request message; generating a PN routing table based on the connection request message; receiving an authentication request message including Identification, ID, information of the PN from a server; and forwarding the authentication request message from the PN gateway to one or more PNEs based on the PN routing table; wherein the one or more PNEs receive a service from the server through the PN gateway.