mhurhangee/patent-ind-claim-en huggingface dataset:
Method for providing the possibility of verifying the correctness of addresses previously allocated to bus nodes of a serial data bus system comprising a data bus, a bus master and a plurality of bus nodes each having an address, wherein the data bus extends from the bus master and the bus nodes are connected to the data bus, and wherein at least some of the bus nodes comprise a current measuring means serially connected to the data bus and a current source for supplying current into the data bus which current flows to the bus master, the method comprising the following steps: a) providing, for and/or in the bus master, allocation information regarding the allocation of the addresses of the bus nodes to their respective positions in the data bus and expectation information regarding that bus node or those bus nodes comprising a current measuring means, which is or are expected to detect a current if a respective one of these bus nodes supplies a current into the data bus via its current source, which current flows towards the bus master, b) initiated by the bus master, causing a current to be supplied by one of the bus nodes comprising a current measuring means and a current source, c) detecting by all bus nodes comprising a current measuring means and a current source, whether these bus nodes each sense a current or not, d) transmitting the detection results to the bus master by said bus nodes, e) performing steps b) to d) for each bus node nodes comprising a current measuring means and a current source, and f) comparing the detection results and the respective expectations information to assess, whether the bus nodes are addressed correctly. a) providing, for and/or in the bus master, allocation information regarding the allocation of the addresses of the bus nodes to their respective positions in the data bus and expectation information regarding that bus node or those bus nodes comprising a current measuring means, which is or are expected to detect a current if a respective one of these bus nodes supplies a current into the data bus via its current source, which current flows towards the bus master, b) initiated by the bus master, causing a current to be supplied by one of the bus nodes comprising a current measuring means and a current source, c) detecting by all bus nodes comprising a current measuring means and a current source, whether these bus nodes each sense a current or not, d) transmitting the detection results to the bus master by said bus nodes, e) performing steps b) to d) for each bus node nodes comprising a current measuring means and a current source, and f) comparing the detection results and the respective expectations information to assess, whether the bus nodes are addressed correctly.
An imaging arrangement providing an extended depth of focus of the imaging arrangement and comprising an imaging lens assembly including: at least one ophthalmic lens for imaging visible light at a patient's eye, and at least one optical element associated with said at least one lens , the optical element together with its associated lens defining a predetermined pattern formed by optically transparent phase transition regions of the optical element spaced by the regions of the lens in the imaging lens plane, wherein the optical element is a mask formed by a pattern of concentric rings which form the phase transition regions, the phase transition regions and the regions of the lens differently affecting the phase of visible light passing through the imaging lens assembly , wherein said phase transition regions along concentric rings of said mask are pi-phase transitions and said regions between said rings are zero-phase transitions for a wavelength of ambient light for which the optical element is designed, a spatial frequency of the mask formed by the concentric rings of the optical element having a period of about 1000 wavelengths such that the optical element is substantially non-diffractive in respect to the wavelength of visible light passing through the imaging lens assembly , the optical element being configured not to add optical power to the associated lens . at least one ophthalmic lens for imaging visible light at a patient's eye, and at least one optical element associated with said at least one lens , the optical element together with its associated lens defining a predetermined pattern formed by optically transparent phase transition regions of the optical element spaced by the regions of the lens in the imaging lens plane, wherein the optical element is a mask formed by a pattern of concentric rings which form the phase transition regions, the phase transition regions and the regions of the lens differently affecting the phase of visible light passing through the imaging lens assembly , wherein said phase transition regions along concentric rings of said mask are pi-phase transitions and said regions between said rings are zero-phase transitions for a wavelength of ambient light for which the optical element is designed, a spatial frequency of the mask formed by the concentric rings of the optical element having a period of about 1000 wavelengths such that the optical element is substantially non-diffractive in respect to the wavelength of visible light passing through the imaging lens assembly , the optical element being configured not to add optical power to the associated lens .
A milking system for milking a dairy animal , comprising - a milking cup for obtaining the milk , - a measuring chamber which is in flow communication with the milking cup for at least temporarily containing the obtained milk, and having a sensor device arranged therein or thereon for measuring at least one property of the milk, wherein the sensor device comprises - a plurality of at least three mutually separate electrodes for measuring values of a first milk property using an electrical and/or electromagnetic variable, which electrodes are in particular in a row, and - a sensor control unit for actuating the sensor device and for processing the measured values, wherein the sensor control unit is configured to repeatedly select a pair of the electrodes in a targeted manner, the pair comprising an arbitrary first electrode and an arbitrary second electrode which differs from the first electrode, and wherein each electrode is selectable as the first or second electrode, wherein the sensor device is configured to measure the value of the variable between the electrodes of said selected pair, and to determine the value of the at least one milk property on the basis of the value or values of the variable measured using one or more selected electrode pairs. - a milking cup for obtaining the milk , - a measuring chamber which is in flow communication with the milking cup for at least temporarily containing the obtained milk, and having a sensor device arranged therein or thereon for measuring at least one property of the milk, wherein the sensor device comprises - a plurality of at least three mutually separate electrodes for measuring values of a first milk property using an electrical and/or electromagnetic variable, which electrodes are in particular in a row, and - a sensor control unit for actuating the sensor device and for processing the measured values,
A carrier system for carrying an object (W) having a thin-plate shape to a mounting section (WTB), the carrier system comprising: a chuck unit that has a plurality of chuck members configured to generate a suction force for suctioning the object from above in a non-contact manner, the chuck unit being movable in a vertical direction while supporting the object with the suction force in a non-contact manner, characterized in that the carrier system further comprises: a support member that is movable in the vertical direction while supporting the object from below; a measurement device configured to obtain information related to the shape of the object suctioned by the chuck unit; and a controller configured to control at least one of a movement of the chuck unit in the vertical direction and a movement of the support member in the vertical direction, using the information obtained by the measurement device. a chuck unit that has a plurality of chuck members configured to generate a suction force for suctioning the object from above in a non-contact manner, the chuck unit being movable in a vertical direction while supporting the object with the suction force in a non-contact manner, characterized in that the carrier system further comprises: a support member that is movable in the vertical direction while supporting the object from below; a measurement device configured to obtain information related to the shape of the object suctioned by the chuck unit; and a controller configured to control at least one of a movement of the chuck unit in the vertical direction and a movement of the support member in the vertical direction, using the information obtained by the measurement device. a support member that is movable in the vertical direction while supporting the object from below; a measurement device configured to obtain information related to the shape of the object suctioned by the chuck unit; and a controller configured to control at least one of a movement of the chuck unit in the vertical direction and a movement of the support member in the vertical direction, using the information obtained by the measurement device.
An information processing device comprising: abnormality detection means for detecting abnormality of a certain device; characterized in that further comprising degree calculation means and difference calculation means , wherein the degree calculation means is configured to calculate a degree of conformity an observation information and a prediction information, the observation information observed for a system suffering an effect of the certain device and representing a state of the system, the prediction information predicted in accordance with a model for a state of the system and representing a predicted state of the system; the difference calculation means configured to calculate a difference , when the degree of conformity calculated by the degree calculation unit satisfies a predetermined calculation condition, between an amount of manipulation instructed to the certain device and an operation amount predicted to be performed by the certain device when the amount of manipulation is instructed to the certain device based on an input model of the certain device; and the abnormality detection means configured to determine that abnormality of the certain device occurs when the difference satisfies a predetermined determination condition. abnormality detection means for detecting abnormality of a certain device; characterized in that further comprising degree calculation means and difference calculation means , wherein the degree calculation means is configured to calculate a degree of conformity an observation information and a prediction information, the observation information observed for a system suffering an effect of the certain device and representing a state of the system, the prediction information predicted in accordance with a model for a state of the system and representing a predicted state of the system; the difference calculation means configured to calculate a difference , when the degree of conformity calculated by the degree calculation unit satisfies a predetermined calculation condition, between an amount of manipulation instructed to the certain device and an operation amount predicted to be performed by the certain device when the amount of manipulation is instructed to the certain device based on an input model of the certain device; and the abnormality detection means configured to determine that abnormality of the certain device occurs when the difference satisfies a predetermined determination condition.
An ink jet composition comprising: - at least one dye selected from: Solvent Red 160, Solvent Red 89, Solvent Red 92, Solvent Blue 44. Solvent Blue 70, Solvent Yellow 56, Solvent Yellow 82, Solvent Yellow 83:1, Solvent Yellow 179, Disperse Yellow 201, Solvent Black 3, Solvent Black 29, Solvent Black 45; - a mixture of organic solvents selected from: gamma-butyrolactone with dipropylene glycol dimethyl ether, or gamma-Butyrolactone with 2-butoxyethyl acetate; - a binder that is a thermoplastic resin being a copolymer of 85% by weight of vinyl chloride and 15% by weight of vinyl acetate or a copolymer of vinyl chloride and vinyl isobutyl ether. - at least one dye selected from: Solvent Red 160, Solvent Red 89, Solvent Red 92, Solvent Blue 44. Solvent Blue 70, Solvent Yellow 56, Solvent Yellow 82, Solvent Yellow 83:1, Solvent Yellow 179, Disperse Yellow 201, Solvent Black 3, Solvent Black 29, Solvent Black 45; - a mixture of organic solvents selected from: gamma-butyrolactone with dipropylene glycol dimethyl ether, or gamma-Butyrolactone with 2-butoxyethyl acetate; - a binder that is a thermoplastic resin being a copolymer of 85% by weight of vinyl chloride and 15% by weight of vinyl acetate or a copolymer of vinyl chloride and vinyl isobutyl ether.
A method of producing an organic acid salt of 4'-epi-daunorubicin or a hydrate or solvate thereof, comprising a step of mixing 4'-epi-daunorubicin of the following formula : with an organic acid in a solvent to form an organic acid salt of 4'-epi-daunorubicin of the following formula : wherein HA represents an organic acid, or a hydrate or solvate thereof, wherein the organic acid salt of 4'-epi-daunorubicin is selected from an oxalate, a benzenesulfonate, and a p-toluenesulfonate. wherein HA represents an organic acid, or a hydrate or solvate thereof, wherein the organic acid salt of 4'-epi-daunorubicin is selected from an oxalate, a benzenesulfonate, and a p-toluenesulfonate.
A triboelectric energy generator adapted to generate electrical energy from rotational oscillatory motion, comprising: a stator comprising: a first generating element The first generating element comprising a first triboelectric material and a stopper ; and; a second generating element comprising a second triboelectric material , wherein the second generating element is arranged to oscillate about a rotation axis with respect to the first generating element to generate an output voltage, where the stopper is arranged to limit rotation of the second generating element with respect to the first generating element and where the triboelectric energy generator further comprises a rotor comprising the second generating element , wherein the rotor and the stator are co-axial and the rotor is arranged to rotate about a co-axis and the stopper is arranged to limit the rotation of the rotor about the co-axis. a first generating element The first generating element comprising a first triboelectric material and a stopper ; and; a second generating element comprising a second triboelectric material , wherein the second generating element is arranged to oscillate about a rotation axis with respect to the first generating element to generate an output voltage, where the stopper is arranged to limit rotation of the second generating element with respect to the first generating element and where the triboelectric energy generator further comprises a rotor comprising the second generating element , wherein the rotor and the stator are co-axial and the rotor is arranged to rotate about a co-axis and the stopper is arranged to limit the rotation of the rotor about the co-axis.
An inflatable support comprising a body formed from a flexible, non-distensible, gas impermeable polymeric material, wherein the body defines therein a cavity ; a cavity valve which defines a gas inlet into the cavity and a gas outlet from the cavity; and a pump coupled to the cavity valve via a conduit , wherein the inflatable support further includes a reinforcing element located within the cavity , characterised in that the reinforcing element is in the form of a continuous or non-continuous sheet of reinforcing material; and wherein the reinforcing element is free from the body and is capable of movement relative to the body within the cavity .
A pressure sensor comprising: a chamber comprising a conductive portion and a deformable portion coupled to the conductive portion and susceptible to deformation in response to a pressure differential between an interior of the chamber and an exterior of the chamber; at least one coil responsive to an AC coil drive signal and configured to generate a magnetic field that induces eddy currents in the conductive portion of the chamber; at least one magnetic field sensing element disposed proximate to the at least one coil and to the conductive portion of the chamber and configured to generate a magnetic field signal responsive to an amplitude of a reflected magnetic field generated by the eddy currents; and a circuit coupled to the at least one magnetic field sensing element to receive the magnetic field signal and generate an output signal of the pressure sensor indicative of the pressure differential between the interior of the chamber and the exterior of the chamber in response to the magnetic field signal. a chamber comprising a conductive portion and a deformable portion coupled to the conductive portion and susceptible to deformation in response to a pressure differential between an interior of the chamber and an exterior of the chamber; at least one coil responsive to an AC coil drive signal and configured to generate a magnetic field that induces eddy currents in the conductive portion of the chamber; at least one magnetic field sensing element disposed proximate to the at least one coil and to the conductive portion of the chamber and configured to generate a magnetic field signal responsive to an amplitude of a reflected magnetic field generated by the eddy currents; and a circuit coupled to the at least one magnetic field sensing element to receive the magnetic field signal and generate an output signal of the pressure sensor indicative of the pressure differential between the interior of the chamber and the exterior of the chamber in response to the magnetic field signal.
A method (100;300) of signaling the exit of one or more electronic devices (202 1 -202 3 ), so called roaming device(s), from a delimited space , said method (100; 300) comprising at least one iteration of a zone exit detection phase comprising the following steps: - directional transmission, limited to an exit zone of said delimited space , by a transmitting device (206;402), of a wave that can be detected by each of said roaming devices (202 1 -202 3 ) previously paired, and - an alarm transmission when at least one of said roaming devices (202 1 -202 3 ) detects said wave; characterized in that it comprises a preliminary phase , so called configuration phase, carried out for each roaming device, and comprising: - wireless pairing of said roaming device (202 1 -202 3 ) with said transmitting device (206;402), and - storing an identifier of said transmitting device (206;402) in said roaming device (202 1 -202 3 ), and/or of said roaming device (202 1 -202 3 ) in said transmitting device (206; 402). - directional transmission, limited to an exit zone of said delimited space , by a transmitting device (206;402), of a wave that can be detected by each of said roaming devices (202 1 -202 3 ) previously paired, and - an alarm transmission when at least one of said roaming devices (202 1 -202 3 ) detects said wave; - wireless pairing of said roaming device (202 1 -202 3 ) with said transmitting device (206;402), and - storing an identifier of said transmitting device (206;402) in said roaming device (202 1 -202 3 ), and/or of said roaming device (202 1 -202 3 ) in said transmitting device (206; 402).
A method of manufacturing a circuit board , the method comprising the steps of: preparing a board structural body including a board and a conductor circuit element disposed on at least one surface of the board, and covering a conductor circuit element on an outermost layer of the board structural body with a cover film ; wherein in the covering step the cover film comprising a film including a thermoplastic polymer capable of forming an optically anisotropic melt phase is melt-bonded to the board structural body by a heat treatment, the heat treatment is at least performed while having a release material interposed between the cover film and a heat-processing device, the release material is a laminate at least comprising, sequentially from the cover film toward the heat-processing device, a low friction film selected from the group consisting of an ultrahigh-molecular-weight polyethylene film and a polytetrafluoroethylene film, a first aluminum foil , a first high-density polyethylene film , a second high-density polyethylene film , and a second aluminum foil , and the first high-density polyethylene film and the second high-density polyethylene film are positioned such that their respective machine directions are perpendicular to each other. preparing a board structural body including a board and a conductor circuit element disposed on at least one surface of the board, and covering a conductor circuit element on an outermost layer of the board structural body with a cover film ; wherein in the covering step the cover film comprising a film including a thermoplastic polymer capable of forming an optically anisotropic melt phase is melt-bonded to the board structural body by a heat treatment, the heat treatment is at least performed while having a release material interposed between the cover film and a heat-processing device, the release material is a laminate at least comprising, sequentially from the cover film toward the heat-processing device, a low friction film selected from the group consisting of an ultrahigh-molecular-weight polyethylene film and a polytetrafluoroethylene film, a first aluminum foil , a first high-density polyethylene film , a second high-density polyethylene film , and a second aluminum foil , and a low friction film selected from the group consisting of an ultrahigh-molecular-weight polyethylene film and a polytetrafluoroethylene film, a first aluminum foil , a first high-density polyethylene film , a second high-density polyethylene film , and a second aluminum foil , and the first high-density polyethylene film and the second high-density polyethylene film are positioned such that their respective machine directions are perpendicular to each other.