mhurhangee/patent-ind-claim-en huggingface dataset:
An electric driving device comprising: an electric motor and a control device disposed on an axial line of a rotor shaft of the electric motor and controlling driving of the electric motor , wherein the control device includes: semiconductor switching devices (15 and 16) forming a three-phase bridge circuit that controls a current of the electric motor ; capacitors suppressing a ripple component of a current flowing to the electric motor ; a coil reducing noises generated during a switching action of the semiconductor switching devices (15 and 16); a power circuit portion including the semiconductor switching devices (15 and 16), the capacitors , and the coil ; a heat sink releasing heat generated from the power circuit portion; and a control board on which is mounted a microcomputer that generates a drive signal to drive the semiconductor switching devices (15 and 16), wherein the semiconductor switching devices (15 and 16) and the capacitors are provided in pairs for respective arms (A, B, and C) of the three-phase bridge circuit and disposed concentrically with the rotor shaft ; and electrical conducting plates electrically connect the arms (A, B, and C) and the capacitors , characterized in that the respective electrical conducting plates are disposed along the respective arms (A, B, and C) while a positive wiring and a negative wiring of a DC power supply are aligned parallel to each other, and the electrical conducting plates are formed in a ring shape and disposed in such a manner that the positive wiring and the negative wiring are disposed concentrically with the rotor shaft . semiconductor switching devices (15 and 16) forming a three-phase bridge circuit that controls a current of the electric motor ; capacitors suppressing a ripple component of a current flowing to the electric motor ; a coil reducing noises generated during a switching action of the semiconductor switching devices (15 and 16); a power circuit portion including the semiconductor switching devices (15 and 16), the capacitors , and the coil ; a heat sink releasing heat generated from the power circuit portion; and a control board on which is mounted a microcomputer that generates a drive signal to drive the semiconductor switching devices (15 and 16), wherein the semiconductor switching devices (15 and 16) and the capacitors are provided in pairs for respective arms (A, B, and C) of the three-phase bridge circuit and disposed concentrically with the rotor shaft ; and electrical conducting plates electrically connect the arms (A, B, and C) and the capacitors , characterized in that the respective electrical conducting plates are disposed along the respective arms (A, B, and C) while a positive wiring and a negative wiring of a DC power supply are aligned parallel to each other, and the electrical conducting plates are formed in a ring shape and disposed in such a manner that the positive wiring and the negative wiring are disposed concentrically with the rotor shaft .
Fire-retardant board, which comprises a cellulose-containing material, a binding agent and fire retardants, wherein the cellulose-containing material consists of any of the following materials: wood, wood fibers, wood chips, wood strands, cellulose fibers, flax or a component of flax, such as flax shives; and that the board is a chipboard, an OSB board, a fiberboard or a wooden board, in particular an MDF or HDF board, wherein the binding agent is a melamine-based binding agent; and wherein the fire retardants are present in the board, characterized in that said fire retardants consist at least of a phosphorus-based salt and magnesium sulfate.
A cleaning device for an air conditioner, the air conditioner comprising an indoor heat exchanger , the cleaning device for the air conditioner comprising: a fresh air device , the fresh air device is capable of introducing fresh air into a room, and is capable of supplying air to the indoor heat exchanger ; characterized in that the fresh air device comprises a fresh air passage , an air supply passage , an outdoor fresh air duct , and a first indoor air-return duct , and the fresh air device at least has the following operation mode: air enters the fresh air device through the fresh air passage , then flows through the air supply passage to the indoor heat exchanger ; the fresh air passage is connected to either or both of the outdoor fresh air duct and the first indoor air-return duct ; the outdoor fresh air duct is fluid communicated to outdoors and configured to introduce fresh air from the outdoors, and the first indoor air-return duct is fluid communicated with inside of the room and configured to introduce indoor air from the room. a fresh air device , the fresh air device is capable of introducing fresh air into a room, and is capable of supplying air to the indoor heat exchanger ; characterized in that the fresh air device comprises a fresh air passage , an air supply passage , an outdoor fresh air duct , and a first indoor air-return duct , and the fresh air device at least has the following operation mode: air enters the fresh air device through the fresh air passage , then flows through the air supply passage to the indoor heat exchanger ; the fresh air passage is connected to either or both of the outdoor fresh air duct and the first indoor air-return duct ; the outdoor fresh air duct is fluid communicated to outdoors and configured to introduce fresh air from the outdoors, and the first indoor air-return duct is fluid communicated with inside of the room and configured to introduce indoor air from the room. air enters the fresh air device through the fresh air passage , then flows through the air supply passage to the indoor heat exchanger ; the fresh air passage is connected to either or both of the outdoor fresh air duct and the first indoor air-return duct ; the outdoor fresh air duct is fluid communicated to outdoors and configured to introduce fresh air from the outdoors, and the first indoor air-return duct is fluid communicated with inside of the room and configured to introduce indoor air from the room.
A carrying harness comprising: - two carrying shoulder straps , - two chest straps respectively connected to the carrying shoulder straps , - a chest fastener configured for joining the chest straps, the fastener extending in a fastener plane, - at least one tool-carrying strap , and in which: - the chest straps and the tool-carrying strap are connected to the chest fastener with freedom for pivotal movement in the fastener plane about at least one pivot axis passing through the chest fastener and perpendicular to the fastener plane, - the chest fastener comprises a first part and a second part which are non-pivotal and are provided with a central lock to attach the two parts to each other and a release member actuable with one hand to separate the two parts, the first part and the second part being respectively connected to the chest straps , one of the parts having a central cylindrical button mounted on a flexible blade and the other part having a corresponding central cylindrical housing which can accommodate the central button, the central button with the housing constituting said central lock and the central button constituting the release member. - two carrying shoulder straps , - two chest straps respectively connected to the carrying shoulder straps , - a chest fastener configured for joining the chest straps, the fastener extending in a fastener plane, - at least one tool-carrying strap , and in which: - the chest straps and the tool-carrying strap are connected to the chest fastener with freedom for pivotal movement in the fastener plane about at least one pivot axis passing through the chest fastener and perpendicular to the fastener plane, - the chest fastener comprises a first part and a second part which are non-pivotal and are provided with a central lock to attach the two parts to each other and a release member actuable with one hand to separate the two parts, the first part and the second part being respectively connected to the chest straps , one of the parts having a central cylindrical button mounted on a flexible blade and the other part having a corresponding central cylindrical housing which can accommodate the central button, the central button with the housing constituting said central lock and the central button constituting the release member.
Apparatus for transmitting sensor data, having • a slave interface which can be connected to a master interface of a control device , • a master interface which can be connected to a slave interface of a measuring device , • at least one sensor interface to which a sensor can be connected, characterized in that the apparatus contains a circuit arrangement comprising a manipulation unit and a protocol unit , wherein a master data input signal (DIN_M) from the master interface and a sensor data output signal (SOUT) can be supplied to the manipulation unit , and in that the manipulation unit is designed to output a slave data output signal (DOUT_S) to the slave interface , and • at least one protocol-relevant interface signal (DIN_S, TCLK_S, DIN_M) from the slave interface or from the master interface and a sensor data signal (S_M) from the sensor interface can be supplied to the protocol unit , and the protocol unit can generate the sensor data output signal (SOUT) from the sensor data signal (S_M) and, on the basis of manipulation rules and the at least one protocol-relevant interface signal (DIN_S, TCLK_S, DIN_M), can choose when the manipulation unit outputs the master data input signal (DIN_M) from the master interface or the sensor data output signal (SOUT) as the slave data output signal (DOUT_S). • a slave interface which can be connected to a master interface of a control device , • a master interface which can be connected to a slave interface of a measuring device , • at least one sensor interface to which a sensor can be connected, characterized in that the apparatus contains a circuit arrangement comprising a manipulation unit and a protocol unit , wherein a master data input signal (DIN_M) from the master interface and a sensor data output signal (SOUT) can be supplied to the manipulation unit , and in that the manipulation unit is designed to output a slave data output signal (DOUT_S) to the slave interface , and • at least one protocol-relevant interface signal (DIN_S, TCLK_S, DIN_M) from the slave interface or from the master interface and a sensor data signal (S_M) from the sensor interface can be supplied to the protocol unit , and the protocol unit can generate the sensor data output signal (SOUT) from the sensor data signal (S_M) and, on the basis of manipulation rules and the at least one protocol-relevant interface signal (DIN_S, TCLK_S, DIN_M), can choose when the manipulation unit outputs the master data input signal (DIN_M) from the master interface or the sensor data output signal (SOUT) as the slave data output signal (DOUT_S).
A method performed by a Control Plane, CP, entity, the method comprising: receiving an indication from a User Plane, UP, entity that a feature Measure Number Of Packets, MNOP, is supported; determining that packet counting should be performed by the UP entity; instructing the UP entity to count packets, comprising sending an Information Element, IE, that conveys measurement instructions, wherein the measurement instructions indicate that the measurement method is to count the packets; identifying a recipient of a packet count, comprising: - indicating a Uniform Resource Identifier, URI, for sending packet count measurement reports, or - receiving a usage report comprising the packet count in accordance with the measurement instructions. receiving an indication from a User Plane, UP, entity that a feature Measure Number Of Packets, MNOP, is supported; determining that packet counting should be performed by the UP entity; instructing the UP entity to count packets, comprising sending an Information Element, IE, that conveys measurement instructions, wherein the measurement instructions indicate that the measurement method is to count the packets; identifying a recipient of a packet count, comprising: - indicating a Uniform Resource Identifier, URI, for sending packet count measurement reports, or - receiving a usage report comprising the packet count in accordance with the measurement instructions. - indicating a Uniform Resource Identifier, URI, for sending packet count measurement reports, or - receiving a usage report comprising the packet count in accordance with the measurement instructions.
A method of storing semi-structured data comprising: receiving semi-structured data elements from a data source; performing statistical analysis on the semi-structured data elements as the semi-structured data elements are added to a database; identifying common data elements from within the semi-structured data elements based on the statistical analysis; assigning the common data elements into one of a first class of data and a second class of data using at least a threshold of commonality, wherein the threshold of commonality is based on how many times a data element occurs in the semi-structured data, the first class data comprises reoccurring common data elements, and the second class data comprises less occurring common data elements; and combining the common data elements from the first class of data into separate pseudo-columns, wherein the first class of data is stored in cache memory in pseudo columns, the second class of data in disk storage, and wherein metadata and statistics corresponding to the pseudo-columns of the first class of data are made available to a computer based query generator. receiving semi-structured data elements from a data source; performing statistical analysis on the semi-structured data elements as the semi-structured data elements are added to a database; identifying common data elements from within the semi-structured data elements based on the statistical analysis; assigning the common data elements into one of a first class of data and a second class of data using at least a threshold of commonality, wherein the threshold of commonality is based on how many times a data element occurs in the semi-structured data, the first class data comprises reoccurring common data elements, and the second class data comprises less occurring common data elements; and combining the common data elements from the first class of data into separate pseudo-columns, wherein the first class of data is stored in cache memory in pseudo columns, the second class of data in disk storage, and wherein metadata and statistics corresponding to the pseudo-columns of the first class of data are made available to a computer based query generator.
A method for detecting vibrational and/or acoustic transfers in a mechanical system including a plurality of mechanically interacting elements (51-55), the method comprising: a) (S10) while operating (S11) the mechanical system according to an operating pattern, acquiring (S12), at each of a plurality of input points (61-64) of the mechanical system , an input signal (ei) indicative of a mechanical load acting on the input point (one of 61-64) during operation, and acquiring (S13), at a response point of the mechanical system , a response signal (r) indicative of a mechanical response of the mechanical system at the response point ; b) training (S20) a neural network device using the input signals (ei) acquired at the plurality of input points (61-64) as training input data and using the response signal (r) acquired at the response point as training output data; and (S30) for each of the plurality of input points (61-64): c) providing (S31) only the input signal (ei) acquired at the respective input point (one of 61-64) as input data to the trained neural network device ; and d) obtaining (S32), as output data from the trained neural network device in response to only the input signal (ei) acquired at the respective input point (one of 61-64) being provided thereto, a contribution signal (ci) indicative of a predicted contribution of the input signal (ei) acquired at the respective input point (one of 61-64) to the response signal (r) acquired at the response point . a) (S10) while operating (S11) the mechanical system according to an operating pattern, acquiring (S12), at each of a plurality of input points (61-64) of the mechanical system , an input signal (ei) indicative of a mechanical load acting on the input point (one of 61-64) during operation, and acquiring (S13), at a response point of the mechanical system , a response signal (r) indicative of a mechanical response of the mechanical system at the response point ; b) training (S20) a neural network device using the input signals (ei) acquired at the plurality of input points (61-64) as training input data and using the response signal (r) acquired at the response point as training output data; and c) providing (S31) only the input signal (ei) acquired at the respective input point (one of 61-64) as input data to the trained neural network device ; and d) obtaining (S32), as output data from the trained neural network device in response to only the input signal (ei) acquired at the respective input point (one of 61-64) being provided thereto, a contribution signal (ci) indicative of a predicted contribution of the input signal (ei) acquired at the respective input point (one of 61-64) to the response signal (r) acquired at the response point .
A method of preparing fluorinated organic compounds comprising: contacting 1,1,2,3-tetrachloropropene, 2,3,3,3-tetrachloropropene and/or 1,1,1,2,3-pentachloropropane with a halogenating agent comprising hydrogen fluoride in the presence of at least one catalyst and at least one stabilizer selected from the group consisting of 4-tert-amylphenol, methoxy-hydroquinone, 4-methoxyphenol (HQMME), butylated hydroxy anisole (BHA), thymol, an amine-based stabilizer selected from triethylamine, di-isopropyl amine, and combinations thereof under conditions effective to produce 2-chloro-3,3,3,-trifluoropropene (HCFC-1233xf) and the method further comprises converting the 2-chloro-3,3,3,-trifluoropropene into tetrafluoropropene (HFO-1234yf).
A process for detecting enzymatic activity in vitro, comprising: contacting a sample containing a target enzyme with a substrate and one or more oleate salts, wherein said oleate salt is selected from the group consisting of sodium oleate, potassium oleate, magnesium oleate, calcium oleate, zinc oleate, or lithium oleate, said step of contacting under conditions wherein the target enzyme is capable of acting on the substrate to produce an enzymatic product and wherein said target enzyme is acid α-galactosidase A, acid β-glucocerebrosidase, galactocerebrosidase, acid α-glucosidase, acid sphingomylenase, α-L-iduronidase, or combinations thereof; and detecting said enzymatic product, wherein the process excludes the addition of oleic acid at any point in the preparation for or performance of the assay; wherein said substrate and the oleate salt are combined and dried prior to said contacting; and wherein the step of contacting is in an aqueous buffer.
A fluid dispensing system comprising: a fluid applicator with a nozzle actuatable between a closed and an open configuration with a trigger , an inlet configured to receive fluid, and an outlet configured to dispense the fluid when the trigger is actuated; a pump system configured to pump fluid from a fluid source , along a fluid flow path , to the inlet of the fluid applicator ; and a pressure relief system comprising: a return line ; a pressure sensor located upstream of the trigger to sense static pressure of the fluid in the fluid flow path when the nozzle is in the closed configuration; and a pressure relief valve ; wherein the pressure relief system is configured to actuate the pressure relief valve to control fluid flow through the return line to reduce the static pressure to at or below a pressure threshold , wherein the pump system comprises a motor and a controller , and wherein the controller is configured to receive an indication of the sensed static pressure, compare the indication to the pressure threshold and, in response to a determination that the sensed static pressure is greater than the pressure threshold, generate an actuation signal to actuate the pressure relief valve . a fluid applicator with a nozzle actuatable between a closed and an open configuration with a trigger , an inlet configured to receive fluid, and an outlet configured to dispense the fluid when the trigger is actuated; a pump system configured to pump fluid from a fluid source , along a fluid flow path , to the inlet of the fluid applicator ; and a pressure relief system comprising: a return line ; a pressure sensor located upstream of the trigger to sense static pressure of the fluid in the fluid flow path when the nozzle is in the closed configuration; and a pressure relief valve ; a return line ; a pressure sensor located upstream of the trigger to sense static pressure of the fluid in the fluid flow path when the nozzle is in the closed configuration; and a pressure relief valve ; wherein the pressure relief system is configured to actuate the pressure relief valve to control fluid flow through the return line to reduce the static pressure to at or below a pressure threshold , wherein the pump system comprises a motor and a controller , and wherein the controller is configured to receive an indication of the sensed static pressure, compare the indication to the pressure threshold and, in response to a determination that the sensed static pressure is greater than the pressure threshold, generate an actuation signal to actuate the pressure relief valve .