mhurhangee/patent-ind-claim-en huggingface dataset:
A composition used for a polyurethane foam comprising (A) a polyol having three or more OH groups; (B) a compound having two or more isocyanate groups; and (C) a polyrotaxane comprising a pseudopolyrotaxane, which has a linear molecule and a cyclic molecule (s) in which the linear molecule is included in a cavity (cavities) of the cyclic molecule(s) in a skewered manner, and capping groups, each of which locates at each end of the pseudopolyrotaxane in order to prevent the dissociation of the cyclic molecule (s), wherein the composition comprises mixed polyols which comprise the (A) polyol having three or more OH groups; and the amount of the (C) polyrotaxane ranges from 1.0 to 15.0 parts by weight against 100 parts by weight of the mixed polyols. (A) a polyol having three or more OH groups; (B) a compound having two or more isocyanate groups; and (C) a polyrotaxane comprising a pseudopolyrotaxane, which has a linear molecule and a cyclic molecule (s) in which the linear molecule is included in a cavity (cavities) of the cyclic molecule(s) in a skewered manner, and capping groups, each of which locates at each end of the pseudopolyrotaxane in order to prevent the dissociation of the cyclic molecule (s), wherein the composition comprises mixed polyols which comprise the (A) polyol having three or more OH groups; and the amount of the (C) polyrotaxane ranges from 1.0 to 15.0 parts by weight against 100 parts by weight of the mixed polyols.
System for emergency lubrication with a lubricant pump with at least one outlet opening for applying lubricant to at least one first lubrication point of a transmission , with a first cavity and a second cavity , with a lubricant-conveying connection between the first cavity and the outlet opening , with a container , with a piston that can be displaced within the container , and with at least one means for applying a force to the piston ; wherein the container forms the first cavity and the second cavity ; wherein the piston separates the first cavity from the second cavity ; wherein the first cavity is designed for storing the lubricant; and wherein the piston applies a pressure to the lubricant stored in the first cavity ; characterized by a lubricant-conveying connection between the second cavity and a lubricant reservoir ; wherein the lubricant reservoir serves for splash lubrication of at least a second lubrication point of the transmission ; wherein the lubricant pump is designed to deliver the at least one portion of the lubricant from the lubricant reservoir into the first cavity ; and wherein the lubricant can flow from the first lubrication point back into the lubricant reservoir .
A quantum circuit, comprising: a repeat-until-success - RUS - multiplication circuit (300; 400; 500; 1002) coupled to a first ancilla qubit (402; 501; 1004, 1006) and a target qubit (405; 503; 1008) at respective RUS multiplication circuit inputs so as to produce, at a target qubit output, a target qubit phase based on a product of a phase coupled to the RUS multiplication circuit at the first ancilla qubit, wherein a plurality of ancilla qubits are coupled to the RUS multiplication circuit, and the target qubit phase is based on a product of phases supplied to the RUS multiplication circuit associated with the plurality of ancilla qubits; a measurement circuit (304; 422; 520), wherein the measurement circuit is coupled to the first ancilla qubit at an RUS multiplication circuit output if a predetermined measurement result is obtained; and a correction circuit (310; 410; 506; 1010), wherein the correction circuit is coupled to the measurement circuit to apply a correction to the target qubit at the RUS multiplication circuit output if the measurement circuit indicates failure. a repeat-until-success - RUS - multiplication circuit (300; 400; 500; 1002) coupled to a first ancilla qubit (402; 501; 1004, 1006) and a target qubit (405; 503; 1008) at respective RUS multiplication circuit inputs so as to produce, at a target qubit output, a target qubit phase based on a product of a phase coupled to the RUS multiplication circuit at the first ancilla qubit, wherein a plurality of ancilla qubits are coupled to the RUS multiplication circuit, and the target qubit phase is based on a product of phases supplied to the RUS multiplication circuit associated with the plurality of ancilla qubits; a measurement circuit (304; 422; 520), wherein the measurement circuit is coupled to the first ancilla qubit at an RUS multiplication circuit output if a predetermined measurement result is obtained; and a correction circuit (310; 410; 506; 1010), wherein the correction circuit is coupled to the measurement circuit to apply a correction to the target qubit at the RUS multiplication circuit output if the measurement circuit indicates failure.
A dryer stand comprising: a base which is disposed in a lower side of the dryer stand; a receptacle in which a dryer for discharging drying air can be mounted; and a body which is disposed above the base and accommodates the receptacle therein at a certain height in an upward direction from the base , characterized in that the dryer stand further comprises: an air purifier disposed in the body , and a fan positioned in the body to suck air into the body and to cause the sucked air to pass through the air purifier and be discharged to the outside of the dryer stand, wherein the base or the body is provided with a suction hole through which air sucked into the body by the fan passes. a base which is disposed in a lower side of the dryer stand; a receptacle in which a dryer for discharging drying air can be mounted; and a body which is disposed above the base and accommodates the receptacle therein at a certain height in an upward direction from the base , characterized in that the dryer stand further comprises: an air purifier disposed in the body , and a fan positioned in the body to suck air into the body and to cause the sucked air to pass through the air purifier and be discharged to the outside of the dryer stand, wherein the base or the body is provided with a suction hole through which air sucked into the body by the fan passes. an air purifier disposed in the body , and a fan positioned in the body to suck air into the body and to cause the sucked air to pass through the air purifier and be discharged to the outside of the dryer stand, wherein the base or the body is provided with a suction hole through which air sucked into the body by the fan passes.
A method comprising: transmitting , by a first device , a body area network (BAN) session initiation signal indicating an availability to establish an on-body communication with a second device; receiving , by the first device, at least one BAN acknowledgement signal from the second device; determining an elapsed time between the transmission of the BAN session initiation signal and the receipt of the at least one BAN acknowledgment signal; determining , for each received BAN acknowledgment signal, one of: that the elapsed time is greater than a predetermined threshold time, or; that the elapsed time is equal to or less than the predetermined threshold time; wherein the predetermined threshold time indicates a period of time under which the at least one BAN signal is considered to have propagated by over-the-air transmission, and over which the at least one BAN signal is considered to have propagated by on-body conduction; and proceeding , by the first device, with BAN session initiation upon a positive determination that the elapsed time is greater than the threshold time. transmitting , by a first device , a body area network (BAN) session initiation signal indicating an availability to establish an on-body communication with a second device; receiving , by the first device, at least one BAN acknowledgement signal from the second device; determining an elapsed time between the transmission of the BAN session initiation signal and the receipt of the at least one BAN acknowledgment signal; determining , for each received BAN acknowledgment signal, one of: that the elapsed time is greater than a predetermined threshold time, or; that the elapsed time is equal to or less than the predetermined threshold time; that the elapsed time is greater than a predetermined threshold time, or; that the elapsed time is equal to or less than the predetermined threshold time; wherein the predetermined threshold time indicates a period of time under which the at least one BAN signal is considered to have propagated by over-the-air transmission, and over which the at least one BAN signal is considered to have propagated by on-body conduction; and proceeding , by the first device, with BAN session initiation upon a positive determination that the elapsed time is greater than the threshold time.
A motion apparatus , comprising: a track element ; a moving element movable along the track element via a plurality of rolling elements ; and cover elements that are attached to end faces of the moving element in directions of movement and form rolling element veering paths (L3) as parts of an endless cyclic path (L), wherein the cover elements have respective scooping pieces that are provided so as to protrude toward the moving element , wherein the moving element has scooping piece container portions that cover the scooping pieces , characterised in that the cover elements form the rolling element veering paths (L3) as parts of more than one endless cyclic path (L), wherein the respective scooping pieces include a central piece and outer pieces on either sides of the central piece , wherein the central piece and the outer pieces are integrally provided and form openings that are provided correspondingly to the more than one endless cycling paths (L) and that are gradually narrowed toward a side opposite to the side to which the respective scooping piece protrudes, and wherein the outer pieces are respectively covered with the scooping piece container portions . a track element ; a moving element movable along the track element via a plurality of rolling elements ; and cover elements that are attached to end faces of the moving element in directions of movement and form rolling element veering paths (L3) as parts of an endless cyclic path (L), wherein the cover elements have respective scooping pieces that are provided so as to protrude toward the moving element , wherein the moving element has scooping piece container portions that cover the scooping pieces , characterised in that the cover elements form the rolling element veering paths (L3) as parts of more than one endless cyclic path (L), wherein the respective scooping pieces include a central piece and outer pieces on either sides of the central piece , wherein the central piece and the outer pieces are integrally provided and form openings that are provided correspondingly to the more than one endless cycling paths (L) and that are gradually narrowed toward a side opposite to the side to which the respective scooping piece protrudes, and wherein the outer pieces are respectively covered with the scooping piece container portions . wherein the respective scooping pieces include a central piece and outer pieces on either sides of the central piece , wherein the central piece and the outer pieces are integrally provided and form openings that are provided correspondingly to the more than one endless cycling paths (L) and that are gradually narrowed toward a side opposite to the side to which the respective scooping piece protrudes, and wherein the outer pieces are respectively covered with the scooping piece container portions .
A method of testing non-volatile memory cells having floating gates and formed on a die, comprising: erasing the non-volatile memory cells; performing a first read operation after the erasing of the non-volatile memory cells to determine a lowest read current (RC1) for the non-volatile memory cells and a first number (N1) of the non-volatile memory cells having the lowest read current (RC1); performing a second read operation to determine a second number (N2) of the non-volatile memory cells having a read current not exceeding a target read current (RC2), wherein the target read current (RC2) is equal to the lowest read current (RC1) plus a predetermined current value; determining whether the second number (N2) exceeds the first number (N1) plus a predetermined number; and determining the die is acceptable if the second number (N2) is determined to exceed the first number (N1) plus the predetermined number, or determining the die is defective if the second number (N2) is determined not to exceed the first number (N1) plus the predetermined number. erasing the non-volatile memory cells; performing a first read operation after the erasing of the non-volatile memory cells to determine a lowest read current (RC1) for the non-volatile memory cells and a first number (N1) of the non-volatile memory cells having the lowest read current (RC1); performing a second read operation to determine a second number (N2) of the non-volatile memory cells having a read current not exceeding a target read current (RC2), wherein the target read current (RC2) is equal to the lowest read current (RC1) plus a predetermined current value; determining whether the second number (N2) exceeds the first number (N1) plus a predetermined number; and determining the die is acceptable if the second number (N2) is determined to exceed the first number (N1) plus the predetermined number, or determining the die is defective if the second number (N2) is determined not to exceed the first number (N1) plus the predetermined number.
A user equipment, UE, occupying a Radio Access Network, RAN, the UE being configured to: initiate a cell search of the RAN to decode a limited set of system information, SI; randomly select a preamble/sequence from a set of predefined preamble/sequences, and transmit the selected preamble/sequence to a RAN base station transceiver, wherein the preamble/sequence indicates a request for additional SI, wherein the preamble/sequence transmission triggers the additional SI associated with an identifier, wherein the identifier is a cell radio network temporary identifier, C-RNTI, dedicated to the UE; monitor for transmission of the additional SI in the RAN; and decode the additional SI, wherein the additional SI is specific to the UE relative to other UEs operating in the RAN, and the UE is thereafter able to communicate with the RAN base station. initiate a cell search of the RAN to decode a limited set of system information, SI; randomly select a preamble/sequence from a set of predefined preamble/sequences, and transmit the selected preamble/sequence to a RAN base station transceiver, wherein the preamble/sequence indicates a request for additional SI, wherein the preamble/sequence transmission triggers the additional SI associated with an identifier, wherein the identifier is a cell radio network temporary identifier, C-RNTI, dedicated to the UE; monitor for transmission of the additional SI in the RAN; and decode the additional SI, wherein the additional SI is specific to the UE relative to other UEs operating in the RAN, and the UE is thereafter able to communicate with the RAN base station.
Method for producing suspension strut forks for motor vehicles, wherein a suspension strut fork has a suspension strut receptacle and fork arms and is produced from a metallic extruded profile which has a central, middle main chamber with longitudinal chambers on the outside, characterised by the following steps: - providing an extruded profile with at least four longitudinal chambers which are arranged offset with respect to one another over the circumference of the main chamber ; - removing wall portions of the main chamber which are situated between the longitudinal chambers , and separating the extruded profile into two semi-finished parts , which each have a cylinder portion and two oppositely situated arm portions which project relative to the cylinder portion ; - mechanically machining the semi-finished parts to form in each case one suspension strut fork . - providing an extruded profile with at least four longitudinal chambers which are arranged offset with respect to one another over the circumference of the main chamber ; - removing wall portions of the main chamber which are situated between the longitudinal chambers , and separating the extruded profile into two semi-finished parts , which each have a cylinder portion and two oppositely situated arm portions which project relative to the cylinder portion ; - mechanically machining the semi-finished parts to form in each case one suspension strut fork .
A method for operating a wind turbine , the method comprising: measuring, via one or more temperature sensors , local temperatures of a component of the wind turbine for a predetermined time period; analyzing the measured local temperatures including averaging the measured local temperatures for the predetermined time period; determining a power capability of the wind turbine as a function of the averaged local temperature; measuring, via one or more sensors , power outputs of the wind turbine for the predetermined time period; analyzing the measured power outputs for the predetermined time period including averaging the measured power outputs for the predetermined time period; determining a power margin of the wind turbine as a function of the power capability and the averaged measured power output; and controlling the power output of the wind turbine based, at least in part, on the power margin . measuring, via one or more temperature sensors , local temperatures of a component of the wind turbine for a predetermined time period; analyzing the measured local temperatures including averaging the measured local temperatures for the predetermined time period; determining a power capability of the wind turbine as a function of the averaged local temperature; measuring, via one or more sensors , power outputs of the wind turbine for the predetermined time period; analyzing the measured power outputs for the predetermined time period including averaging the measured power outputs for the predetermined time period; determining a power margin of the wind turbine as a function of the power capability and the averaged measured power output; and controlling the power output of the wind turbine based, at least in part, on the power margin .
A liquid hand dishwashing cleaning composition comprising: a. from 5% to 50% by weight of the total composition of a surfactant system; and b. polyvinyl alcohol, wherein the polyvinyl alcohol has a degree of hydrolysis of from 40% to 86%, wherein the polyvinyl alcohol is present at a level of from 0.05% to 5.0%by weight of the composition. a. from 5% to 50% by weight of the total composition of a surfactant system; and b. polyvinyl alcohol, wherein the polyvinyl alcohol has a degree of hydrolysis of from 40% to 86%, wherein the polyvinyl alcohol is present at a level of from 0.05% to 5.0%by weight of the composition.
A process for carrying out an equilibrium limited reaction, the process comprising providing reactants to a reactor system, allowing reaction to occur and recovering product, wherein the reactor system comprises a reactor having a shell comprising: one or more reactor tubes located within the shell , said reactor tube or tubes comprising a plurality of catalyst receptacles containing catalyst; means for providing a heat transfer fluid to the reactor shell such that the heat transfer fluid contacts the tube or tubes ; an inlet for providing reactants to the reactor tubes ; and an outlet for recovering products from the reactor tubes ; wherein the plurality of catalyst receptacles containing catalyst within a tube comprises catalyst receptacles containing catalyst of at least two configurations in that the catalyst receptacles containing catalyst differ in the type of catalyst within the receptacle, the amount of catalyst within the receptacle, the amount of heat removed from the receptacle or combinations of these; wherein the configurations of the catalyst receptacles are such that the temperature of the reaction is within 100°C of the maximum rate locus of maximum reaction rate with respect to product as a function of conversion. one or more reactor tubes located within the shell , said reactor tube or tubes comprising a plurality of catalyst receptacles containing catalyst; means for providing a heat transfer fluid to the reactor shell such that the heat transfer fluid contacts the tube or tubes ; an inlet for providing reactants to the reactor tubes ; and an outlet for recovering products from the reactor tubes ; wherein the plurality of catalyst receptacles containing catalyst within a tube comprises catalyst receptacles containing catalyst of at least two configurations in that the catalyst receptacles containing catalyst differ in the type of catalyst within the receptacle, the amount of catalyst within the receptacle, the amount of heat removed from the receptacle or combinations of these; wherein the configurations of the catalyst receptacles are such that the temperature of the reaction is within 100°C of the maximum rate locus of maximum reaction rate with respect to product as a function of conversion.
A method of printing a 3D part using a 3D printer , comprising: providing a gantry of the 3D printer ; providing an extruder assembly of the 3D printer , wherein the extruder assembly is operably attached to the gantry , and wherein the extruder assembly is configured to print a material in a printing plane and the printing plane forms a first angle with a horizontal plane; determining an allowed maximum layer time and an allowed minimum layer time, at least in part, using a bead width and properties of the material; determining a layer time for the 3D part, the layer time depending on factors including i) a cross sectional area, in the printing plane, of the 3D part, ii) a print speed of the 3D printer, and iii) the bead width; rotating the extruder assembly so that the printing plane forms an adjusted angle with the horizontal plane, the adjusted angle increasing or decreasing the cross sectional area of the 3D part to be printed in such a way as to maintain the layer time between the allowed maximum layer time and the allowed minimum layer time; and depositing a layer of the material on a receiving surface. providing a gantry of the 3D printer ; providing an extruder assembly of the 3D printer , wherein the extruder assembly is operably attached to the gantry , and wherein the extruder assembly is configured to print a material in a printing plane and the printing plane forms a first angle with a horizontal plane; determining an allowed maximum layer time and an allowed minimum layer time, at least in part, using a bead width and properties of the material; determining a layer time for the 3D part, the layer time depending on factors including i) a cross sectional area, in the printing plane, of the 3D part, ii) a print speed of the 3D printer, and iii) the bead width; rotating the extruder assembly so that the printing plane forms an adjusted angle with the horizontal plane, the adjusted angle increasing or decreasing the cross sectional area of the 3D part to be printed in such a way as to maintain the layer time between the allowed maximum layer time and the allowed minimum layer time; and depositing a layer of the material on a receiving surface.
Mixtures of cyclic branched siloxanes having exclusively D and T units, with the proviso that the cumulative proportion of the D and T units having Si-alkoxy and/or SiOH groups that are present in the siloxane matrix, determinable by 29 Si NMR spectroscopy, is less than 2 mole per cent, preferably less than 1 mole per cent, and further comprising at least 5% by weight of siloxane cycles, such as preferably octamethylcyclotetrasiloxane (D 4 ), decamethylcyclopentasiloxane (D 5 ), dodecamethylcyclohexasiloxane (D 6 ) and/or mixtures thereof.