mhurhangee/ep-ind-claims huggingface dataset:
An automatic card handling system, comprising: a card handling device (110, 130, 150, 160, 730) having a controller, said card handling device (110, 130, 150, 160, 730) configured for shuffling an input set of cards and delivering an output set of cards resulting from the shuffling; and a communication module (146, 746) operably coupled to the controller, wherein: the card handling device (110, 130, 150, 160, 730) or a processor coupled thereto is configured to track usage of the components of the card handling device (110, 130, 150, 160, 730) and identify when a component approaches an end-of-life usage parameter, based on the usage of the components and the game type being dealt by the card handling device (110, 130, 150, 160, 730); and the communication module (146, 746) is configured for sending and receiving information related to operation of said card handling device (110, 130, 150, 160, 730) across a communication port, said information related to the operation of the automatic card handling device (110, 130, 150, 160, 730) including information about the use of the card handling device (110, 130, 150, 160, 730). a card handling device (110, 130, 150, 160, 730) having a controller, said card handling device (110, 130, 150, 160, 730) configured for shuffling an input set of cards and delivering an output set of cards resulting from the shuffling; and a communication module (146, 746) operably coupled to the controller, wherein: the card handling device (110, 130, 150, 160, 730) or a processor coupled thereto is configured to track usage of the components of the card handling device (110, 130, 150, 160, 730) and identify when a component approaches an end-of-life usage parameter, based on the usage of the components and the game type being dealt by the card handling device (110, 130, 150, 160, 730); and the communication module (146, 746) is configured for sending and receiving information related to operation of said card handling device (110, 130, 150, 160, 730) across a communication port, said information related to the operation of the automatic card handling device (110, 130, 150, 160, 730) including information about the use of the card handling device (110, 130, 150, 160, 730). the card handling device (110, 130, 150, 160, 730) or a processor coupled thereto is configured to track usage of the components of the card handling device (110, 130, 150, 160, 730) and identify when a component approaches an end-of-life usage parameter, based on the usage of the components and the game type being dealt by the card handling device (110, 130, 150, 160, 730); and the communication module (146, 746) is configured for sending and receiving information related to operation of said card handling device (110, 130, 150, 160, 730) across a communication port, said information related to the operation of the automatic card handling device (110, 130, 150, 160, 730) including information about the use of the card handling device (110, 130, 150, 160, 730).
A smoking article (2, 42) comprising: a combustible heat source having opposed front and rear faces (6, 8); an aerosol-forming substrate downstream of the rear face of the combustible heat source; and a single heat-conducting element overlying a rear portion of the combustible heat source and at least a front portion of the aerosol-forming substrate, wherein the single heat-conducting element comprises one or more layers of heat conductive material and the one or more layers of heat conductive material are radially separated from the combustible heat source and the aerosol-forming substrate, wherein the combustible heat source is either a blind combustible heat source or the combustible heat source is a non-blind combustible heat source and the smoking article further comprises a non-combustible substantially air impermeable barrier between the non-blind combustible heat source and one or more airflow channels extending from the front face to the rear face of the non-blind combustible heat source, and wherein the single heat-conducting element comprises an outer layer of heat conductive material that is visible on the exterior of the smoking article (2, 42). a combustible heat source having opposed front and rear faces (6, 8); an aerosol-forming substrate downstream of the rear face of the combustible heat source; and a single heat-conducting element overlying a rear portion of the combustible heat source and at least a front portion of the aerosol-forming substrate, wherein the single heat-conducting element comprises one or more layers of heat conductive material and the one or more layers of heat conductive material are radially separated from the combustible heat source and the aerosol-forming substrate, wherein the combustible heat source is either a blind combustible heat source or the combustible heat source is a non-blind combustible heat source and the smoking article further comprises a non-combustible substantially air impermeable barrier between the non-blind combustible heat source and one or more airflow channels extending from the front face to the rear face of the non-blind combustible heat source, and wherein the single heat-conducting element comprises an outer layer of heat conductive material that is visible on the exterior of the smoking article (2, 42).
A method for determining regions of a surface on a three-dimensional object, which are to be inspected, from design data, particularly CAD data, of the object, which data are present in electronic form, it being determined for certain regions (12, 13) on the object, whether and in which way these regions (12, 13) should be inspected, by automatically determining regions to be inspected, regions not to be inspected and/or regions to be inspected in a certain manner from the design data, characterized in that the determination of the regions to be inspected takes place by determining geometric shapes or relationships from the design data, and in that during the inspection using a recording device, these regions to be inspected are assigned to the images actually recorded, wherein features determined from the design data in the regions to be inspected are compared with features that can be recognized in the recorded images.
An assembly structure comprising: a housing arranged on top of a base plate of a light emitting diode module, LED module,; and a plurality of fixation devices distributed over the LED module and each positioned in a respective opening of the LED module which opening extends through both the housing and the base plate, characterized in that each of the fixation devices comprises: a main body; a first fixation means for fixating a bottom portion of the fixation device to the mounting surface; a second fixation means to fixate the fixation device to the housing; and a vertical portion extending from the main body in a substantial perpendicular direction and from which vertical portion at least one resilient portion (507, 508) extends which in a mounted position at least partly bears against protruding portions (401, 402) arranged on the upper surface of the housing such that a pressing force is applied onto the LED module by means of the resilient portions (507, 508) such that the LED module is secured against the mounting surface. a housing arranged on top of a base plate of a light emitting diode module, LED module,; and a plurality of fixation devices distributed over the LED module and each positioned in a respective opening of the LED module which opening extends through both the housing and the base plate, characterized in that each of the fixation devices comprises: a main body; a first fixation means for fixating a bottom portion of the fixation device to the mounting surface; a second fixation means to fixate the fixation device to the housing; and a vertical portion extending from the main body in a substantial perpendicular direction and from which vertical portion at least one resilient portion (507, 508) extends which in a mounted position at least partly bears against protruding portions (401, 402) arranged on the upper surface of the housing such that a pressing force is applied onto the LED module by means of the resilient portions (507, 508) such that the LED module is secured against the mounting surface. a main body; a first fixation means for fixating a bottom portion of the fixation device to the mounting surface; a second fixation means to fixate the fixation device to the housing; and a vertical portion extending from the main body in a substantial perpendicular direction and from which vertical portion at least one resilient portion (507, 508) extends which in a mounted position at least partly bears against protruding portions (401, 402) arranged on the upper surface of the housing such that a pressing force is applied onto the LED module by means of the resilient portions (507, 508) such that the LED module is secured against the mounting surface.
A method for transmitting a mobility reference signal, MRS, during a mobility measurement session to a wireless device, WD (14a, 14b), the method being performed in a radio access network node, RANN (11a, 11b, 11c), the RANN being configurable to transmit using a set of transmission beams (15a, 15b, 15c, 15d, 15e, 15f, 15g, 15h), the method being characterized by: - dynamically assigning, an MRS identifier to each candidate transmission beam in a set of candidate transmission beams; - transmitting control information to the WD (14a, 14b), the control information comprising the MRS identifier for each corresponding candidate transmission beam; and - transmitting the MRS to the WD (14a, 14b) in accordance with the transmitted control information, wherein only candidate transmission beams are advertised for in the control information to the WD. - dynamically assigning, an MRS identifier to each candidate transmission beam in a set of candidate transmission beams; - transmitting control information to the WD (14a, 14b), the control information comprising the MRS identifier for each corresponding candidate transmission beam; and - transmitting the MRS to the WD (14a, 14b) in accordance with the transmitted control information,
A strip-shaped continuous foil (9, 10, 12) with a front side and a back side, wherein the front side has a multiplicity of security elements which are arranged mutually spaced apart in the longitudinal direction of the strip-shaped continuous foil (9, 10, 12) and are each configured as a transfer element detachable from the continuous foil (9, 10, 12) for application to a security paper or an object of value and, viewed from the front side of the continuous foil (9, 10, 12), each security element has a functional layer with the length F having a security feature, and a layer of heat-seal adhesive with the length H arranged above the functional layer, wherein the lengths F and H each refer to the longitudinal direction of the strip-shaped continuous foil (9, 10, 12), characterized in that the lengths fulfill the relationship F < H and the functional layer having a security feature and the layer of heat-seal adhesive are constituted such that the functional layer is surrounded in a U-shape by the layer of heat-seal adhesive.
Fuel cell system, having: a stack of electrochemical cells, each of which comprises at least one electrode plate having one face in electrical contact with an electrolyte; at least one tube connected to the said face of each of the cells in a circuit for exchanging a gas with the exterior of the stack; a sensor sensitive to the concentration of this gas in the air surrounding the stack; the said sensor comprising a sensitive unit exposed directly to the in situ concentration of a component of the said gas, and at least one microcontroller, characterized in that the microcontroller comprises - means for generating and transmitting analogue concentration information on the basis of the concentration measurement, and - means for generating and transmitting an analogue signal of correct operation of the detector, and - a single analogue output. Through which the analogue concentration information and the analogue signal of correct operation are transmitted. a stack of electrochemical cells, each of which comprises at least one electrode plate having one face in electrical contact with an electrolyte; at least one tube connected to the said face of each of the cells in a circuit for exchanging a gas with the exterior of the stack; a sensor sensitive to the concentration of this gas in the air surrounding the stack; the said sensor comprising a sensitive unit exposed directly to the in situ concentration of a component of the said gas, and at least one microcontroller, characterized in that the microcontroller comprises - means for generating and transmitting analogue concentration information on the basis of the concentration measurement, and - means for generating and transmitting an analogue signal of correct operation of the detector, and - a single analogue output. Through which the analogue concentration information and the analogue signal of correct operation are transmitted. - means for generating and transmitting analogue concentration information on the basis of the concentration measurement, and - means for generating and transmitting an analogue signal of correct operation of the detector, and - a single analogue output. Through which the analogue concentration information and the analogue signal of correct operation are transmitted.
A key (3a, 3b) for a cylinder lock (1a, 1b), the key (3a, 3b) comprising: • a key shaft for inserting into a key channel of the cylinder lock; and • a force transferring means disposed in the key shaft and comprising a first pin engaging surface (39 1) for engaging with a first rotor pin (13 1) of the cylinder lock (1a, 1b), and a second pin engaging surface (39 2) for engaging with a second rotor pin (13 2) of the cylinder lock (1a, 1b), the force transferring means being configured such that, in response to a first force exerted by the first pin (13 1) on the first pin engaging surface (39 1) in a first direction, the second pin engaging surface (39 2) exerts a second force on to the second pin (13 2) in a second direction, the second direction is substantially opposite to the first direction, wherein the force transferring means comprises a pivoting element arranged to pivot about a pivot axis perpendicular to a longitudinal axis of the key (3a, 3b), characterised in that the pivot axis is substantially tangential relative to the longitudinal axis of the key (3a, 3b) and in that the force transferring means is located in a cavity in the key shaft, which is a blind hole. • a key shaft for inserting into a key channel of the cylinder lock; and • a force transferring means disposed in the key shaft and comprising a first pin engaging surface (39 1) for engaging with a first rotor pin (13 1) of the cylinder lock (1a, 1b), and a second pin engaging surface (39 2) for engaging with a second rotor pin (13 2) of the cylinder lock (1a, 1b), the force transferring means being configured such that, in response to a first force exerted by the first pin (13 1) on the first pin engaging surface (39 1) in a first direction, the second pin engaging surface (39 2) exerts a second force on to the second pin (13 2) in a second direction, the second direction is substantially opposite to the first direction,
A circuit comprising: a buffer circuit; means for providing a first conductive signal path that extends from a first differential signal output node of the buffer circuit and to a first differential signal input node of a load; means for providing a second conductive signal path that extends from a second differential signal output node of the buffer circuit and to a second differential signal input node of a load wherein the buffer circuit comprises a first differential signal input node, a second differential signal input node and a latch; means for using the latch to provide a first DC bias voltage onto the first differential signal input node of the load across the first conductive signal paths and to provide a second DC bias voltage onto the second differential signal input node of the load across the second conductive signal paths, wherein the latch comprises: a first N-channel transistor having a source, a gate and a drain, wherein the gate is coupled to a first input node of the latch; a first resistor having a first terminal and a second terminal, wherein the first terminal of the first resistor is coupled to the source of the first N-channel transistor, and wherein the second terminal of the first resistor is coupled to a ground conductor; a second N-channel transistor having a source, a gate and a drain, wherein the gate is coupled to a second input node of the latch; and a second resistor having a first terminal and a second terminal, wherein the first terminal of the second resistor is coupled to the source of the second N-channel transistor, and wherein the second terminal of the second resistor is coupled to the ground conductor; means for receiving differential signals onto the first and second differential signal input nodes of the buffer and communicating the differential signals from the buffer to the load across the first and second conductive signal paths. a buffer circuit; a first N-channel transistor having a source, a gate and a drain, wherein the gate is coupled to a first input node of the latch; a first resistor having a first terminal and a second terminal, wherein the first terminal of the first resistor is coupled to the source of the first N-channel transistor, and wherein the second terminal of the first resistor is coupled to a ground conductor; a second N-channel transistor having a source, a gate and a drain, wherein the gate is coupled to a second input node of the latch; and a second resistor having a first terminal and a second terminal, wherein the first terminal of the second resistor is coupled to the source of the second N-channel transistor, and wherein the second terminal of the second resistor is coupled to the ground conductor;
A fluid spray apparatus comprising: an inlet; a first outlet; a second outlet; a diverter structure (128; 130) disposed in a passage network that connects the inlet with the first and second outlets (104, 106); and a first actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network; characterised: by a a second actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network; and in that the diverter structure (128; 130) is configured to be placed in: a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet. an inlet; a first outlet; a second outlet; a diverter structure (128; 130) disposed in a passage network that connects the inlet with the first and second outlets (104, 106); and a first actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network; characterised: by a a second actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network; and in that the diverter structure (128; 130) is configured to be placed in: a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet. a second actuator actuable to communicate the inlet with at least one of the outlets via the diverter structure (128; 130) and the passage network; and in that the diverter structure (128; 130) is configured to be placed in: a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet. a first diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the first outlet and actuation of the second actuator communicates the inlet with the second outlet; and a second diverter structure arrangement wherein actuation of the first actuator communicates the inlet with the second outlet and actuation of the second actuator communicates the inlet with the first outlet.
A lipid particle, comprising: (a) a core consisting of (i) nucleic acid and cationic lipid; and (b) second lipids surrounding the core; wherein the 31 P nuclear magnetic resonance spectrum of the lipid particle measured in solution after treatment with 150mM ammonium acetate does not exhibit a resonance due to the nucleic acid. (a) a core consisting of (i) nucleic acid and cationic lipid; and (b) second lipids surrounding the core;
Method for operating a soldering device, the soldering device comprising a solder pot and a solder nozzle inserted into the soldering device, through which nozzle solder is pumped to create a solder wave, an image representation of the solder wave being acquired (212, 304, 404), an instantaneous operating state of the soldering device being determined from the acquired image representation by means of automated processing of the acquired image representation depending on information about the soldering device, characterized in that the information about the soldering device is determined depending on a reference representation of the solder wave, the reference representation being acquired or read in (206, 304, 404) from a memory as an image representation, the reference representation characterizing an oxidation degree of the solder nozzle, information about the acquired image representation being compared with information about the reference representation, an instantaneous oxidation degree of the solder nozzle being detected when the solder flows out over at least a portion of a surface of the solder nozzle, depending on a result of the comparison, and in that, when a limit value for the oxidation degree is exceeded, an operating state of the soldering device for breaking up an oxide layer is permitted.
A lubricating oil composition comprising a base oil and a friction reducer, wherein the friction reducer consists of an acrylate-based copolymer obtained by polymerizing monomers containing a polymerizable monomer (a) consisting of an alkyl acrylate-based monomer represented by the following general formula in an amount of from at least 10 mol% with respect to a total number of moles of the constituent monomers, a polymerizable monomer (b) consisting of an alkylene glycol acrylate-based monomer represented by the following general formula in an amount of from 5 mol% to 50 mol% with respect to the total number of moles of the constituent monomers, and at least one kind of polymerizable monomer (c) selected from the group consisting of an aromatic vinyl-based monomer (c-1) and a short-chain alkyl acrylate-based monomer (c-2) represented by the following general formula in an amount of from 1 mol% to 60 mol% with respect to the total number of moles of the constituent monomers: where R 1 represents an alkyl group having 4 to 18 carbon atoms, and A 1 represents a hydrogen atom; where R 2 represents an alkylene group having 2 to 4 carbon atoms, R 3 represents a hydrogen atom or an alkyl group having 1 to 30 carbon atoms, A 2 represents a hydrogen atom, and "n" represents a number from 2 to 20; and where R 4 represents an alkyl group having 1 to 3 carbon atoms, and A 3 represents a hydrogen atom.