mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: performing tests of an integrated circuit, IC, at a first specified temperature and at a second specified temperature; reading a first temperature value provided by a temperature sensor (16A-16E) implemented on the IC during testing at the first temperature; and reading a second temperature value provided by the temperature sensor (16A-16E) during testing at the second temperature; said method being characterized by further comprising determining and recording first and second offset values, wherein the first offset value is a difference between the first specified temperature and the first temperature value, and wherein the second offset value is a difference between the second specified temperature and the second temperature value; calculating first and second sums responsive to receiving an operational temperature reading from the temperature sensor, wherein the first sum is calculated by adding the first offset value to the operational temperature reading and wherein the second sum is calculated by adding the second offset value to the operational temperature reading; and determining (720, 725) if a power control action is to be taken based on each of the first and second sums. performing tests of an integrated circuit, IC, at a first specified temperature and at a second specified temperature; reading a first temperature value provided by a temperature sensor (16A-16E) implemented on the IC during testing at the first temperature; and reading a second temperature value provided by the temperature sensor (16A-16E) during testing at the second temperature; said method being characterized by further comprising determining and recording first and second offset values, wherein the first offset value is a difference between the first specified temperature and the first temperature value, and wherein the second offset value is a difference between the second specified temperature and the second temperature value; calculating first and second sums responsive to receiving an operational temperature reading from the temperature sensor, wherein the first sum is calculated by adding the first offset value to the operational temperature reading and wherein the second sum is calculated by adding the second offset value to the operational temperature reading; and determining (720, 725) if a power control action is to be taken based on each of the first and second sums.
A transmitter (100, 208, 311, 600, 810), comprising: a plurality of antennas configured for beamforming with different angles of departure, AoD; an information interface configured to receive a sequence of symbols including a first symbol and a second symbol; and a modulator configured to cause the plurality of antennas to form a transmission beam with an AoD selected according to a value of the first symbol and modulated according to a value of the second symbol; characterized in that the modulator is further configured to cause the plurality of antennas to perform pilot transmission with transmission beams having different AoDs to enable at least one receiver to estimate a pattern of arrival impinging upon antennas of the receiver for different transmission beams; in that the transmitter (100, 208, 311, 600, 810) further comprises a memory configured to store a mapping between different AoDs and values of the symbols, wherein the mapping is received from the at least one receiver in response to performing the pilot transmission; and in that the modulator is configured to vary a type of modulation based on a number of AoDs specified in the mapping. a plurality of antennas configured for beamforming with different angles of departure, AoD; an information interface configured to receive a sequence of symbols including a first symbol and a second symbol; and a modulator configured to cause the plurality of antennas to form a transmission beam with an AoD selected according to a value of the first symbol and modulated according to a value of the second symbol; characterized in that the modulator is further configured to cause the plurality of antennas to perform pilot transmission with transmission beams having different AoDs to enable at least one receiver to estimate a pattern of arrival impinging upon antennas of the receiver for different transmission beams; in that the transmitter (100, 208, 311, 600, 810) further comprises a memory configured to store a mapping between different AoDs and values of the symbols, wherein the mapping is received from the at least one receiver in response to performing the pilot transmission; and in that the modulator is configured to vary a type of modulation based on a number of AoDs specified in the mapping.
Arrangement of a cover, in particular a grating, on the open longitudinal side of a gutter, on the mutually opposite legs of which support rails are fastened, on which the cover is held in a form-locking manner, which has for this purpose form-locking elements which correspond with form-locking elements of the support rails, characterized in that the cover has at least one bow spring formed from spring wire on a spar of at least one longitudinal side, with a spring leg which engages under a projecting wedge piece of the associated support rail, which wedge piece lies in an indentation of the spar.
A three dimensional electrode structure, comprising: a first layer comprising stripes of an active material interdigitated along a first direction with stripes of an intermediate material; and a second layer comprising stripes of the active material interdigitated along a second direction with stripes of the intermediate material, the second layer residing on the first layer; the second direction being orthogonal to the first direction; the intermediate material comprising one of a pure electrolyte or a highly porous material having electrolyte in open space in the porous material; and the first layer having a symmetric distribution of stripes about an axis parallel to the second direction such that the stripes are uniformly distributed across the width of the first layer in the first direction; and characterized by the second layer having a symmetric distribution of stripes about an axis parallel to the first direction such that the stripes are uniformly distributed across the width of the second layer in the second direction. a first layer comprising stripes of an active material interdigitated along a first direction with stripes of an intermediate material; and a second layer comprising stripes of the active material interdigitated along a second direction with stripes of the intermediate material, the second layer residing on the first layer; the second direction being orthogonal to the first direction; the intermediate material comprising one of a pure electrolyte or a highly porous material having electrolyte in open space in the porous material; and the first layer having a symmetric distribution of stripes about an axis parallel to the second direction such that the stripes are uniformly distributed across the width of the first layer in the first direction; and characterized by the second layer having a symmetric distribution of stripes about an axis parallel to the first direction such that the stripes are uniformly distributed across the width of the second layer in the second direction.
Apparatus for ozone-autologous blood infusion including a vacuum bottle with a stopper, which closes the throat of the vacuum bottle in an airtight manner, a transfusion instrument and a germ stop, which each have a supply hose (12, 7), and also an adapter with two cannulas (21, 22) attached thereto, the tips of which may be pushed together into the stopper and to whose opposite ends the supply hoses (12, 7) may be fastened, wherein the stopper consists of a latex-free material, characterised in that a gas supply tube is arranged in the vacuum bottle, which is held in the stopper, that the stopper has markings (10, 16) for the penetration of the cannulas (21, 22), wherein one of the markings marks the position on the stopper, which is in alignment with the gas supply tube and the cannulas (21, 22) are fastened at such positions on the adapter that the cannulas (21, 22) can be aligned with the markings (10, 16) and that the adapter consists of a transparent plastic material.
A valve assembly for connecting a heat exchanger of a hot water discharging device to a district heating system, comprising a primary-side valve controlling a flow of heat transfer fluid through a primary-side of the heat exchanger, and a pressure-controlled secondary-side valve acting on a flow of service water through a secondary-side of the heat exchanger, the primary-side valve being operable by the secondary-side valve, wherein the secondary-side valve has a valve seat arranged on a diaphragm and a stationary valve element, characterized in that, when no service water is being drawn off on the secondary-side, the secondary-side valve is not closed, but has a small rest opening, the diaphragm being in a rest position, and that the position of the valve element is adjustable relative to the rest position of the diaphragm so that the secondary-side valve has an adjustable rest opening.
A device for controlling a building automation system, the device comprising: - a command reception interface for receiving commands from a user, - a command transmission interface for transmitting control commands to one or more controllable nodes of said building automation system, and - a mechanical interface for receiving a fascia; - an electrical interface for receiving stored data from a fascia received in said mechanical interface, and - said device is configured to respond to a download command received from user by transmitting - through said command transmission interface - one or more preset downloads containing data received from said fascia through said electrical interface, wherein a preset download defines a respective action that a controllable node of said building automation system is to perform in response to a respective control command from the device; wherein said data (305, 306, 307) comprises one or more of the following: data for selecting a lighting scene, data for selecting light intensity, data for selecting colour temperature of light, data for selecting colour of light. - a command reception interface for receiving commands from a user, - a command transmission interface for transmitting control commands to one or more controllable nodes of said building automation system, and - a mechanical interface for receiving a fascia; - an electrical interface for receiving stored data from a fascia received in said mechanical interface, and - said device is configured to respond to a download command received from user by transmitting - through said command transmission interface - one or more preset downloads containing data received from said fascia through said electrical interface, wherein a preset download defines a respective action that a controllable node of said building automation system is to perform in response to a respective control command from the device;
Method for controlling the light emission of at least one front headlight of a vehicle, in which a plurality of images with imaged representations of at least one object are captured successively as a sequence of images using an image capturing unit, the position of the object in at least two of the images that have been recorded successively as an image sequence is ascertained, a pitch angle change of the vehicle caused by the vehicle movement is ascertained using the ascertained positions, the light emission of the front headlight of the vehicle is controlled in dependence on the ascertained pitch angle change, and in which the position deviation of the image position of the object, which results from the movement of the vehicle in the driving direction between the image recording time points of two successively recorded images of the image sequence, is ascertained and said position deviation is taken into account when ascertaining the pitch angle change of the vehicle or when ascertaining a position deviation between the positions of the object in the images, characterized in that the beam angle of the light beams emitted by the at least one front headlight of the vehicle is lowered to a preset value at which no impairment of other road users is expected even in the case of a pitch movement.
A method for reducing hexavalent chromium in common cements and cement based materials comprising the addition, to said cements, of a suitable reducing agent embedded in a polymer matrix selected from a group consisting of polyvinyl acetate, polyvinyl alcohol (PVOH), polyglycolic acid, polyglycolic acid/lactic acid copolymers (PGA/PLA), polyacrylic acid, maleic polyanhydride, acrylic or methacrylic acid/acrylic ester/styrene copolymers, acrylic or methacrylic acid/maleic anhydride copolymers, ethylene/maleic anhydride copolymers, polyester/maleic anhydride copolymers, ethylene oxide/polyethylene oxide copolymers.
An on-site regeneration method of a denitration catalyst in an exhaust gas purification system, wherein in an exhaust gas purification system of purifying an exhaust gas by adding a reducing agent-entrained air to an exhaust gas on the upstream side of a denitration catalyst layer installed in an exhaust passage of an internal combustion engine and reducing nitrogen oxides in the exhaust gas in the denitration catalyst layer, thereby purifying the exhaust gas, a reducing agent oxidation catalyst layer is installed together; wherein air and a reducing agent of the same kind as or a reducing agent of a different kind from the reducing agent to be supplied into the exhaust gas on the upstream side of the denitration catalyst layer are supplied into the reducing agent oxidation catalyst layer at the time of catalyst regeneration of the denitration catalyst layer; whereas at the time of regeneration, a passage of the reducing agent is changed to introduce the reducing agent into the oxidation catalyst layer, thereby obtaining an oxidation heat by an oxidation reaction of the reducing agent, on that occasion the air is heated by heat exchange with the exhaust gas by a heat exchanger and a high-temperature oxidation reaction gas is produced by a reaction heat generated by the oxidation reaction of the reducing agent and the air in this reducing agent oxidation catalyst layer and this high-temperature oxidation reaction gas is introduced from a line into the denitration catalyst layer to heat the denitration catalyst, thereby regenerating the denitration catalyst. in an exhaust gas purification system of purifying an exhaust gas by adding a reducing agent-entrained air to an exhaust gas on the upstream side of a denitration catalyst layer installed in an exhaust passage of an internal combustion engine and reducing nitrogen oxides in the exhaust gas in the denitration catalyst layer, thereby purifying the exhaust gas, a reducing agent oxidation catalyst layer is installed together; wherein air and a reducing agent of the same kind as or a reducing agent of a different kind from the reducing agent to be supplied into the exhaust gas on the upstream side of the denitration catalyst layer are supplied into the reducing agent oxidation catalyst layer at the time of catalyst regeneration of the denitration catalyst layer; whereas at the time of regeneration, a passage of the reducing agent is changed to introduce the reducing agent into the oxidation catalyst layer, thereby obtaining an oxidation heat by an oxidation reaction of the reducing agent, on that occasion the air is heated by heat exchange with the exhaust gas by a heat exchanger and a high-temperature oxidation reaction gas is produced by a reaction heat generated by the oxidation reaction of the reducing agent and the air in this reducing agent oxidation catalyst layer and this high-temperature oxidation reaction gas is introduced from a line into the denitration catalyst layer to heat the denitration catalyst, thereby regenerating the denitration catalyst.
An electricity-demand prediction device comprising: a data reception unit that is configured to receive an input of vehicle probe data in which a traveling state of a specific vehicle of a plurality of vehicles (201, 202,...) is recorded, the traveling state including at least information indicating whether the specific vehicle is traveling or not, location information, and state of charge information indicating an amount of charge of a battery; an individual model generation unit that is configured to extract a record value including at least an operating rate, a presence proportion in a predetermined area, and a charging rate of a battery as a record value of factor information indicating a decision-making factor for charging of the specific vehicle at a specific charging facility and a record value indicating electricity demand for the specific vehicle at the specific charging facility from the vehicle probe data received in the past, and to generate an individual model with respect to the specific vehicle or a user of the specific vehicle, the individual model indicating correlation of the record value indicating the electricity demand with respect to the record value of the factor information after extracting the record values; and a demand prediction computation unit that is configured to calculate a predicted value of electricity demand for the specific vehicle at the specific charging facility by inputting factor information extracted from the most recently received vehicle probe data to the generated individual model. a data reception unit that is configured to receive an input of vehicle probe data in which a traveling state of a specific vehicle of a plurality of vehicles (201, 202,...) is recorded, the traveling state including at least information indicating whether the specific vehicle is traveling or not, location information, and state of charge information indicating an amount of charge of a battery; an individual model generation unit that is configured to extract a record value including at least an operating rate, a presence proportion in a predetermined area, and a charging rate of a battery as a record value of factor information indicating a decision-making factor for charging of the specific vehicle at a specific charging facility and a record value indicating electricity demand for the specific vehicle at the specific charging facility from the vehicle probe data received in the past, and to generate an individual model with respect to the specific vehicle or a user of the specific vehicle, the individual model indicating correlation of the record value indicating the electricity demand with respect to the record value of the factor information after extracting the record values; and a demand prediction computation unit that is configured to calculate a predicted value of electricity demand for the specific vehicle at the specific charging facility by inputting factor information extracted from the most recently received vehicle probe data to the generated individual model.
A lighting device for generating converted light of high luminance, in particular white light, comprising: - an excitation light source or primary light source for emitting blue excitation light; - a conversion medium or a secondary light source for converting the excitation light into light of longer wavelengths, wherein the light remitted from the conversion medium preferably appears white; - a supporting device for aligning the excitation light at an oblique angle to a central surface area of the conversion medium such that a major part of the excitation light enters the conversion medium, the surface area of the conversion medium directly located in the path of the excitation light being referred to as a light spot, to be emitted in the direction of illumination after conversion, substantially without being incident on the supporting device; wherein the conversion medium converts a first fraction of the radiation into a yellow spectra! range and backscatters or reflects a second fraction of the radiation as a blue fraction, and wherein the light spot encompasses a surface area having a dimension of less than 1 mm x 1.5 mm, most preferably less than 0.6 mm x 0.9 mm, - an excitation light source or primary light source for emitting blue excitation light; - a conversion medium or a secondary light source for converting the excitation light into light of longer wavelengths, wherein the light remitted from the conversion medium preferably appears white; - a supporting device for aligning the excitation light at an oblique angle to a central surface area of the conversion medium such that a major part of the excitation light enters the conversion medium, the surface area of the conversion medium directly located in the path of the excitation light being referred to as a light spot, to be emitted in the direction of illumination after conversion, substantially without being incident on the supporting device; wherein the conversion medium converts a first fraction of the radiation into a yellow spectra! range and backscatters or reflects a second fraction of the radiation as a blue fraction, and wherein the light spot encompasses a surface area having a dimension of less than 1 mm x 1.5 mm, most preferably less than 0.6 mm x 0.9 mm,
A system for producing improved action potential morphology from an iPSC-derived cardiac myocyte, the system comprising: a patch clamp comprising an electrode configured to measure a membrane voltage ( V m) of the myocyte; a generating circuit in electronic communication with the electrode, the generating circuit configured to: calculate a value of an inward rectifying current ( I K 1) based on the membrane voltage; provide to the electrode, a synthetic inward rectifying current according to the determined inward rectifying current, to produce action potentials having improved morphology from the myocyte. a patch clamp comprising an electrode configured to measure a membrane voltage ( V m) of the myocyte; a generating circuit in electronic communication with the electrode, the generating circuit configured to: calculate a value of an inward rectifying current ( I K 1) based on the membrane voltage; provide to the electrode, a synthetic inward rectifying current according to the determined inward rectifying current, to produce action potentials having improved morphology from the myocyte. calculate a value of an inward rectifying current ( I K 1) based on the membrane voltage; provide to the electrode, a synthetic inward rectifying current according to the determined inward rectifying current, to produce action potentials having improved morphology from the myocyte.