mhurhangee/ep-ind-claims huggingface dataset:
A circuit breaker, comprising: a stationary contact installed in a fixed manner; a movable contact configured to be brought into contact with or separated from the stationary contact; and a switching mechanism configured to switch the movable contact, wherein the switching mechanism comprises: a shaft rotatably installed therein; a transfer link configured to transfer a driving force from the shaft to the movable contact; and a pin configured to hinge-couple the shaft to the transfer link and insulate them from each other, characterized in that the pin is installed with a wear resistant member at a portion brought into contact with the shaft; wherein the pin comprises an insulating member formed in a cylindrical shape; the wear resistant member is formed with a pipe shape, and attached to the portion brought into contact with the shaft of the insulating member; the insulating member is inserted into the wear resistant member; and at least one end portion of the wear resistant member is deformed to burrow into the insulating member; wherein the wear resistant member is formed of a material having a wear resistance greater than that of the insulating member. a stationary contact installed in a fixed manner; a movable contact configured to be brought into contact with or separated from the stationary contact; and a switching mechanism configured to switch the movable contact, wherein the switching mechanism comprises: a shaft rotatably installed therein; a transfer link configured to transfer a driving force from the shaft to the movable contact; and a pin configured to hinge-couple the shaft to the transfer link and insulate them from each other, characterized in that the pin is installed with a wear resistant member at a portion brought into contact with the shaft; a shaft rotatably installed therein; a transfer link configured to transfer a driving force from the shaft to the movable contact; and a pin configured to hinge-couple the shaft to the transfer link and insulate them from each other, characterized in that the pin is installed with a wear resistant member at a portion brought into contact with the shaft; wherein the pin comprises an insulating member formed in a cylindrical shape; the wear resistant member is formed with a pipe shape, and attached to the portion brought into contact with the shaft of the insulating member; the insulating member is inserted into the wear resistant member; and at least one end portion of the wear resistant member is deformed to burrow into the insulating member; wherein the wear resistant member is formed of a material having a wear resistance greater than that of the insulating member.
A corrosion inhibition composition comprising a zinc oxide, a zinc hydroxide benzoate, a sodium benzoate, a molybdate compound and a silicate compound.
Gas premix burner comprising - a perforated plate, a woven wire mesh or an expanded metal sheet; - a woven, knitted or braided burner deck comprising metal fibers, placed on said perforated plate, woven wire mesh or expanded metal sheet; characterized in that said woven, knitted or braided burner deck is soft welded over at least part of its surface to said perforated plate, woven wire mesh or expanded metal sheet; wherein with soft welded is meant that when pulling said woven, knitted or braided burner deck from said perforated plate, woven wire mesh or expanded metal sheet, the soft welded bonds between said woven, knitted or braided burner deck and said perforated plate, a woven wire mesh or expanded metal sheet are broken rather than that breakage of said woven, knitted or braided burner deck occurs. - a perforated plate, a woven wire mesh or an expanded metal sheet; - a woven, knitted or braided burner deck comprising metal fibers, placed on said perforated plate, woven wire mesh or expanded metal sheet; characterized in that said woven, knitted or braided burner deck is soft welded over at least part of its surface to said perforated plate, woven wire mesh or expanded metal sheet;
A container comprising packaged wheat flour, characterized in that the wheat flour is packed in the shaker-type container having 2 to 9 shaker holes having a maximum width of 3 to 12 mm, and the wheat flour has a particle diameter at 10%, D10, of 25 μm or more, a particle diameter at 90%, D90, of 400 μm or less, and a mean particle diameter of 40 to 400 μm.
A method of quantifying an ethylene oxide based nonionic surfactant in a sample containing a physiologically active protein, which comprises adding an aqueous organic solvent to the sample containing a physiologically active protein, thereby forming a precipitate of the physiologically active protein, removing the precipitate, and adding the ammonium thiocyanate/cobalt nitrate reagent (CoSCN reagent) to the sample cleared of said precipitate.
A robotic surgery system for preparing a bone of a shoulder joint to receive a shoulder implant (102, 104), the shoulder implant (102, 104) having a proximal body (114, 130) defining a center axis and an eccentric distal projection (116, 124), the robotic surgery system comprising: a robotic manipulator; a cutting tool to be coupled to said robotic manipulator; a localizer configured to track movement of said cutting tool and the bone; and a controller (26, 54) coupled to said robotic manipulator and said localizer, said controller (26, 54) configured to operate said robotic manipulator to control movement of said cutting tool relative to the bone based on a virtual object associated with the shoulder implant (102, 104), characterized in that said virtual object defines a volume of material to be removed from the bone to receive the eccentric distal projection (116, 124), said virtual object being defined in a coordinate system at a location based on density data of the bone such that, when the shoulder implant (102, 104) is fully seated in the bone, the eccentric distal projection (116, 124) is located in a first region of the bone having a density characteristic greater than an adjacent second region of the bone. a robotic manipulator; a cutting tool to be coupled to said robotic manipulator; a localizer configured to track movement of said cutting tool and the bone; and a controller (26, 54) coupled to said robotic manipulator and said localizer, said controller (26, 54) configured to operate said robotic manipulator to control movement of said cutting tool relative to the bone based on a virtual object associated with the shoulder implant (102, 104), characterized in that said virtual object defines a volume of material to be removed from the bone to receive the eccentric distal projection (116, 124), said virtual object being defined in a coordinate system at a location based on density data of the bone such that, when the shoulder implant (102, 104) is fully seated in the bone, the eccentric distal projection (116, 124) is located in a first region of the bone having a density characteristic greater than an adjacent second region of the bone.
Process for the protection against corrosion of an article, comprising the steps of: (a) application of a layer of a corrosion protecting composition comprising: (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20°C or less as determined by differential scanning calorimetry, wherein the amorphous polymer has a number average molecular weight M n in the range of 1,000 to 150,000 g/mol as determined with gel permeation chromatography, and (ii) a water-absorbing filler having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard NEN-EN-ISO 10769:2011, wherein the water-absorbing filler comprises a filler that binds water by a chemical reaction, on a surface of the article, and (b) application of a mechanical protective layer on top of the layer of said corrosion protecting composition, wherein the article is in a wet environment, wherein an article in a wet environment is defined as an article wherein water is present on a surface of the article or part thereof, or an article that is (partly) submerged in water, and wherein the article is in a wet environment during the application of said layer of the corrosion protecting composition. (a) application of a layer of a corrosion protecting composition comprising: (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20°C or less as determined by differential scanning calorimetry, wherein the amorphous polymer has a number average molecular weight M n in the range of 1,000 to 150,000 g/mol as determined with gel permeation chromatography, and (ii) a water-absorbing filler having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard NEN-EN-ISO 10769:2011, wherein the water-absorbing filler comprises a filler that binds water by a chemical reaction, on a surface of the article, and (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20°C or less as determined by differential scanning calorimetry, wherein the amorphous polymer has a number average molecular weight M n in the range of 1,000 to 150,000 g/mol as determined with gel permeation chromatography, and (ii) a water-absorbing filler having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard NEN-EN-ISO 10769:2011, wherein the water-absorbing filler comprises a filler that binds water by a chemical reaction, (b) application of a mechanical protective layer on top of the layer of said corrosion protecting composition,
A method performed by a first access point, AP, the method comprising: utilizing, from among a plurality of operating channels within an unlicensed frequency band, at least a first operating channel to provide wireless access to a network; and transmitting discovery information via a dedicated discovery channel for the unlicensed frequency band, the discovery information including a first identifier of the first operating channel utilized by the first AP, wherein the dedicated discovery channel is different from the first operating channel, wherein the discovery information is transmitted on the dedicated discovery channel using technology-specific formatting, associated with different technology types, wherein transmitting the discovery information comprises transmitting the discovery information according to a first periodic interval, wherein the first periodic interval is specified by a first technology standard adopted by one or more stations and wherein the first periodic interval is different from a second periodic interval specified by a second technology standard adopted by other stations that utilize the unlicensed frequency band. utilizing, from among a plurality of operating channels within an unlicensed frequency band, at least a first operating channel to provide wireless access to a network; and transmitting discovery information via a dedicated discovery channel for the unlicensed frequency band, the discovery information including a first identifier of the first operating channel utilized by the first AP, wherein the dedicated discovery channel is different from the first operating channel, wherein the discovery information is transmitted on the dedicated discovery channel using technology-specific formatting, associated with different technology types, wherein transmitting the discovery information comprises transmitting the discovery information according to a first periodic interval, wherein the first periodic interval is specified by a first technology standard adopted by one or more stations and wherein the first periodic interval is different from a second periodic interval specified by a second technology standard adopted by other stations that utilize the unlicensed frequency band.
A terminal device comprising: a transmitting unit configured to transmit, to a base station device, a demodulation reference signal associated with transmission of a physical uplink shared channel, a demodulation reference signal sequence of the demodulation reference signal associated with the transmission of the physical uplink shared channel being given by a reference signal sequence, the reference signal sequence being defined by a cyclic shift of a base sequence, a plurality of base sequences being divided into groups, the base sequence being given by a group number of the group and a base sequence number within the group, a pseudo-random sequence of the base sequence number being initialized with a first parameter, wherein the value of the first parameter is given by a value of first information in a case that the value of the first information is configured by a Radio Resource Control, RRC, signaling and the transmission of the physical uplink shared channel corresponds to downlink control information to which Cyclic Redundancy Check, CRC, parity bits scrambled by a Cell-Radio Network Temporary Identifier, C-RNTI, are attached, the value of the first parameter is given by a physical layer cell identity in a case that no value of the first information is configured by the RRC signaling, and the value of the first parameter is given by the physical layer cell identity in a case that the transmission of the physical uplink shared channel corresponds to a random access response grant. a transmitting unit configured to transmit, to a base station device, a demodulation reference signal associated with transmission of a physical uplink shared channel, a demodulation reference signal sequence of the demodulation reference signal associated with the transmission of the physical uplink shared channel being given by a reference signal sequence, the reference signal sequence being defined by a cyclic shift of a base sequence, a plurality of base sequences being divided into groups, the base sequence being given by a group number of the group and a base sequence number within the group, a pseudo-random sequence of the base sequence number being initialized with a first parameter, wherein the value of the first parameter is given by a value of first information in a case that the value of the first information is configured by a Radio Resource Control, RRC, signaling and the transmission of the physical uplink shared channel corresponds to downlink control information to which Cyclic Redundancy Check, CRC, parity bits scrambled by a Cell-Radio Network Temporary Identifier, C-RNTI, are attached, the value of the first parameter is given by a physical layer cell identity in a case that no value of the first information is configured by the RRC signaling, and the value of the first parameter is given by the physical layer cell identity in a case that the transmission of the physical uplink shared channel corresponds to a random access response grant.
A method for producing the compound represented by the formula below: (wherein P represents a protecting group, R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms), the method comprising the step 1 of: protecting the hydroxyl group with a protecting group in a compound represented by the formula below: (wherein X represents Cl, Br, or I, and R 1 represents a hydrogen atom or an optionally substituted alkyl group containing 1 to 4 carbon atoms) to synthesize a compound represented by the formula below: (wherein X represents Cl, Br, or I, R 1 represents a hydrogen atom or an optionally substituted alkyl group containing 1 to 4 carbon atoms, and P represents a protecting group) and then reducing the ester group in the compound to synthesize a compound represented by the formula below: (wherein X represents Cl, Br, or I, and P represents a protecting group).
A rechargeable battery system comprising: at least one rechargeable cell configured to store electrical energy and to be electrically discharged during a discharged mode of operation and to be electrically charged during a charged mode of operation; and a monitoring device coupled with the at least one rechargeable cell and configured to implement a first method to provide information regarding the state of charge of the at least one rechargeable cell at a first moment in time and to implement a second method to provide information regarding the state of charge of the at least one rechargeable cell at a second moment in time, wherein the first and second methods are different and the first and second moments in time are different; characterized in that the monitoring device is configured to accommodate for decreased capacity of the at least one rechargeable cell during implementation of at least one of the first and second methods to provide the information regarding the state of charge. at least one rechargeable cell configured to store electrical energy and to be electrically discharged during a discharged mode of operation and to be electrically charged during a charged mode of operation; and a monitoring device coupled with the at least one rechargeable cell and configured to implement a first method to provide information regarding the state of charge of the at least one rechargeable cell at a first moment in time and to implement a second method to provide information regarding the state of charge of the at least one rechargeable cell at a second moment in time, wherein the first and second methods are different and the first and second moments in time are different; characterized in that the monitoring device is configured to accommodate for decreased capacity of the at least one rechargeable cell during implementation of at least one of the first and second methods to provide the information regarding the state of charge.
Composite sheath for a vehicle steering wheel, the steering wheel comprising a rim and at least one first electrical device, such as a switch or a light strip, the composite sheath being arranged to sheathe the rim, the composite sheath comprising at least one second electrical device, such as a resistive heating wire or a metal frame for a capacitive sensor, characterized in that the composite sheath further comprises an electrical conductor arranged so as to be connected to at least one first electrical device which is separate from the composite sheath and from the second electrical device. the composite sheath being arranged to sheathe the rim, the composite sheath comprising at least one second electrical device, such as a resistive heating wire or a metal frame for a capacitive sensor, characterized in that the composite sheath further comprises an electrical conductor arranged so as to be connected to at least one first electrical device which is separate from the composite sheath and from the second electrical device.
A method of treating water, said method comprising: - an adsorption step in which the water is brought into contact with a fresh adsorbent, the water being called "pre-adsorbed water" before it is brought into contact with the fresh adsorbent, and being called "adsorbed water" after it has been brought into contact with the fresh adsorbent, and - a recirculation step in which at least part of the fresh adsorbent brought into contact with water during the adsorption step is removed, this removed part constituting a used adsorbent, and in which, during the recirculation step, the used adsorbent is brought into contact with the pre-adsorbed water, the pre-adsorbed water not undergoing any clarification step in which at least part of the suspended matter it contains is removed from the water, said method being characterized in that it further comprises a coagulation step in which the pre-adsorbed water is brought into contact with one or more coagulants. - an adsorption step in which the water is brought into contact with a fresh adsorbent, the water being called "pre-adsorbed water" before it is brought into contact with the fresh adsorbent, and being called "adsorbed water" after it has been brought into contact with the fresh adsorbent, and - a recirculation step in which at least part of the fresh adsorbent brought into contact with water during the adsorption step is removed, this removed part constituting a used adsorbent,
Glycol drying system with at least one wet glycol collection container and/or at least one glycol collection line to collect moist glycol, with at least one heating device to heat the moist glycol in the at least one wet glycol collection container and/or in the at least one glycol collection line, characterised in that a membrane separation system is provided to separate the water from the heated, moist glycol, in that at least one flash gas vent is provided to remove flash gas driven out when the moist glycol is heated before separating the water in the membrane separation system, in that at least one combustion chamber is provided to combust the flash gas and provide heat for the heating device, in that the combustion chamber is provided in a micro gas turbine with exhaust gas heat exchanger and in that the exhaust gas heat exchanger is formed to transfer the heat of the exhaust gas to the moist glycol.
A fluid dispenser comprising: a. a reservoir for holding a fluid to be dispensed; b. a pump having an inlet and an outlet, wherein the pump draws the fluid from the reservoir through the inlet and expels the fluid through the outlet; c. a dispensing tube directly or indirectly connected to the outlet of the pump; d. a nozzle which is adapted to receive the dispensing tube and to dispense the fluid to a user; e. a motor; f. an attenuator in communication with the motor, wherein the attenuator activates the pump to dispense the fluid from the dispenser when the motor is activated; g. a processor in communication with the motor, the processor configured to determine a time interval between a previous request for fluid and the current request for fluid and to activate the motor for one or more cycles, based on said time interval between the requests for fluid; wherein a cycle is an attenuation of the pump to dispense a single shot of fluid. h. a sensor to detect the presence of a user, the sensor in communication with the processor; wherein when the sensor detects the presence of a user, the sensor provides an input to the processor, the processor determines said time interval between the requests for fluid and provides an input to the motor to activate and wherein the processor activates the motor for a single cycle if said time interval between the requests for fluid is less than a pre-set time period and characterised by the processor activates the motor for multiple cycles if said time interval between the requests for fluid is greater than a pre-set time period. a. a reservoir for holding a fluid to be dispensed; b. a pump having an inlet and an outlet, wherein the pump draws the fluid from the reservoir through the inlet and expels the fluid through the outlet; c. a dispensing tube directly or indirectly connected to the outlet of the pump; d. a nozzle which is adapted to receive the dispensing tube and to dispense the fluid to a user; e. a motor; f. an attenuator in communication with the motor, wherein the attenuator activates the pump to dispense the fluid from the dispenser when the motor is activated; g. a processor in communication with the motor, the processor configured to determine a time interval between a previous request for fluid and the current request for fluid and to activate the motor for one or more cycles, based on said time interval between the requests for fluid; wherein a cycle is an attenuation of the pump to dispense a single shot of fluid. h. a sensor to detect the presence of a user, the sensor in communication with the processor;