mhurhangee/patent-ind-claim-en huggingface dataset:
Battery receptacle with associated battery box for a rail vehicle, - with a volume shape of the battery receptacle that differs from a cuboidal shape, - with connecting means of the battery receptacle that are formed in such a way that the battery receptacle is connected in a rotatable manner to the associated battery box of the rail vehicle such that, by way of a rotation performed about an axis, the battery receptacle is able to be rotated into the battery box and to be rotated out of the battery box , - with a shape of the battery box that is similar or identical to the shape of the battery receptacle, such that the battery receptacle is accommodated completely by the battery box without any volume being left unused. - with a volume shape of the battery receptacle that differs from a cuboidal shape, - with connecting means of the battery receptacle that are formed in such a way that the battery receptacle is connected in a rotatable manner to the associated battery box of the rail vehicle such that, by way of a rotation performed about an axis, the battery receptacle is able to be rotated into the battery box and to be rotated out of the battery box , - with a shape of the battery box that is similar or identical to the shape of the battery receptacle, such that the battery receptacle is accommodated completely by the battery box without any volume being left unused.
A method for channel processing, comprising: acquiring first information, wherein the first information comprises uplink transmission resources and an identifier of an HARQ process used for transmitting data on the uplink transmission resources (S201); and determining a set of candidate logical channels multiplexed on the uplink transmission resources according to an HARQ feedback function state of the HARQ process and an HARQ feedback function attribute of each logical channel (S202); wherein the HARQ feedback function state of the HARQ process comprises: HARQ feedback enabled, or HARQ feedback disabled; the HARQ feedback function attribute of each logical channel comprises: HARQ feedback enabled, or HARQ feedback disabled; wherein the set of candidate logical channels comprises a logical channel, of which the HARQ feedback function attribute is consistent with the HARQ feedback function state of the HARQ process, among all logical channels in which there is currently data to be transmitted. acquiring first information, wherein the first information comprises uplink transmission resources and an identifier of an HARQ process used for transmitting data on the uplink transmission resources (S201); and determining a set of candidate logical channels multiplexed on the uplink transmission resources according to an HARQ feedback function state of the HARQ process and an HARQ feedback function attribute of each logical channel (S202); wherein the HARQ feedback function state of the HARQ process comprises: HARQ feedback enabled, or HARQ feedback disabled; the HARQ feedback function attribute of each logical channel comprises: HARQ feedback enabled, or HARQ feedback disabled; wherein the set of candidate logical channels comprises a logical channel, of which the HARQ feedback function attribute is consistent with the HARQ feedback function state of the HARQ process, among all logical channels in which there is currently data to be transmitted.
A process of producing one or more alcohols from a gaseous substrate, comprising: fermenting a gaseous substrate comprising one or more of hydrogen (H 2 ) and carbon monoxide (CO) into an aqueous medium in a bioreactor, the aqueous medium comprising one or more anaerobic acetogenic bacteria; said process comprising increasing the cell density by adjusting hydrogen uptake, wherein adjusting hydrogen uptake comprises: a) measuring rate of input of hydrogen; measuring rate of output of hydrogen; and adjusting rate of input of one or more of gaseous substrate and hydrogen, and b) supplying said gaseous substrate such that molar ratio of said hydrogen uptake to rate of input of gaseous substrate comprises a first preselected range of 0.001 to 1.0, wherein the input gas desired targeted molar ratio of H 2 uptake to total gas molecule input comprises 3 to 4.5%, and whereby the target cell density comprises a range of 0.1 to 50 g/L. a) measuring rate of input of hydrogen; measuring rate of output of hydrogen; and adjusting rate of input of one or more of gaseous substrate and hydrogen, and b) supplying said gaseous substrate such that molar ratio of said hydrogen uptake to rate of input of gaseous substrate comprises a first preselected range of 0.001 to 1.0,
A method of making an article having a solid polymeric substrate with covalently attached polymeric chains, the method comprising: providing a solid polymeric substrate; generating free radicals on a surface of the solid polymeric substrate to form a treated substrate; reacting the free radicals of the treated substrate with a fluid comprising a thiocarbonylthio-containing compound to covalently bond a plurality of thiocarbonylthio-containing groups directly and covalently to the solid polymeric substrate and forming a functionalized substrate; preparing a reaction mixture by contacting the functionalized substrate with a radically polymerizable monomer composition comprising a first monomer having (a) at least one ethylenically unsaturated group, (b) at least one ligand functional group that is an acidic group, basic group, or salt thereof, and (c) a spacer group that directly links the at least one ethylenically unsaturated group and the at least one the ligand functional group by a chain of at least six catenated atoms; and exposing the reaction mixture to actinic radiation and forming a polymeric chain directly and covalently attached to a carbon atom in a polymeric backbone of the solid polymeric substrate, the polymeric chains being a polymerized product of the radically polymerizable monomer composition. providing a solid polymeric substrate; generating free radicals on a surface of the solid polymeric substrate to form a treated substrate; reacting the free radicals of the treated substrate with a fluid comprising a thiocarbonylthio-containing compound to covalently bond a plurality of thiocarbonylthio-containing groups directly and covalently to the solid polymeric substrate and forming a functionalized substrate; preparing a reaction mixture by contacting the functionalized substrate with a radically polymerizable monomer composition comprising a first monomer having (a) at least one ethylenically unsaturated group, (b) at least one ligand functional group that is an acidic group, basic group, or salt thereof, and (c) a spacer group that directly links the at least one ethylenically unsaturated group and the at least one the ligand functional group by a chain of at least six catenated atoms; and exposing the reaction mixture to actinic radiation and forming a polymeric chain directly and covalently attached to a carbon atom in a polymeric backbone of the solid polymeric substrate, the polymeric chains being a polymerized product of the radically polymerizable monomer composition.
A vehicle suspension system (11-100) comprising: a hydraulic actuator (11-102) controller adapted to control an electric motor (10-510) that creates a force applied to a hydraulic actuator, wherein the hydraulic actuator is capable of being controlled in at least three operational quadrants; an air spring (11-104) operatively coupled in parallel to the hydraulic actuator (11-102); and an air spring controller adapted to control at least one of an air pressure and an air volume of the air spring (11-104), wherein at least one of the air pressure and the air volume, and the force applied to the hydraulic actuator are coordinated by the controllers. a hydraulic actuator (11-102) controller adapted to control an electric motor (10-510) that creates a force applied to a hydraulic actuator, wherein the hydraulic actuator is capable of being controlled in at least three operational quadrants; an air spring (11-104) operatively coupled in parallel to the hydraulic actuator (11-102); and an air spring controller adapted to control at least one of an air pressure and an air volume of the air spring (11-104), wherein at least one of the air pressure and the air volume, and the force applied to the hydraulic actuator are coordinated by the controllers.
A method for fault detection and recovery for concurrent odometry and mapping, the method comprising: modifying, at an electronic device , a three-dimensional representation of an environment of the electronic device based on first mapping data received from a motion tracking module , wherein the first mapping data is based on images captured from one or more visual sensors and non-visual data from one or more non-image sensors providing inertial sensor data ; in response to receiving second mapping data from the motion tracking module after receiving an indication from the motion tracking module that a fault condition exists, wherein the fault condition comprises the electronic device changing direction at a higher rate than a rate at which the motion tracking module can generate accurate mapping data, omitting the second mapping data from the three-dimensional representation; and in response to receiving third mapping data from the motion tracking module after receiving an indication from the motion tracking module that the fault condition has resolved, modifying the three-dimensional representation based on the third mapping data. modifying, at an electronic device , a three-dimensional representation of an environment of the electronic device based on first mapping data received from a motion tracking module , wherein the first mapping data is based on images captured from one or more visual sensors and non-visual data from one or more non-image sensors providing inertial sensor data ; in response to receiving second mapping data from the motion tracking module after receiving an indication from the motion tracking module that a fault condition exists, wherein the fault condition comprises the electronic device changing direction at a higher rate than a rate at which the motion tracking module can generate accurate mapping data, omitting the second mapping data from the three-dimensional representation; and in response to receiving third mapping data from the motion tracking module after receiving an indication from the motion tracking module that the fault condition has resolved, modifying the three-dimensional representation based on the third mapping data.
A betaine ionic liquid-modified coating, comprising the following components, in mass percentage: 20% to 30% of betaine ionic liquid-modified emulsion, 5% to 15% of rosin emulsion, 20% to 30% of antifoulant, 3% to 10% of pigment/filler, 1% to 2% of water-based additive, 0.5% to 1% of film-forming additive, and the balance of water; wherein the betaine ionic liquid-modified emulsion is prepared by the following raw materials, in mass percentage: 2% to 3% of betaine ionic liquid monomer, 15% to 20% of silyl acrylate monomer, 30% to 40% of acrylic ester monomer, 0.5% to 1.5% of acrylic acid, 1% to 2% of emulsifier, 0.3% to 0.6% of initiator, 0.05% to 0.1% of sodium bicarbonate, 0.3% to 0.5% of pH adjuster, and the balance of water. 20% to 30% of betaine ionic liquid-modified emulsion, 5% to 15% of rosin emulsion, 20% to 30% of antifoulant, 3% to 10% of pigment/filler, 1% to 2% of water-based additive, 0.5% to 1% of film-forming additive, and the balance of water; wherein the betaine ionic liquid-modified emulsion is prepared by the following raw materials, in mass percentage: 2% to 3% of betaine ionic liquid monomer, 15% to 20% of silyl acrylate monomer, 30% to 40% of acrylic ester monomer, 0.5% to 1.5% of acrylic acid, 1% to 2% of emulsifier, 0.3% to 0.6% of initiator, 0.05% to 0.1% of sodium bicarbonate, 0.3% to 0.5% of pH adjuster, and the balance of water.
An electrochemical hydrogen compression apparatus comprising: a proton-conducting electrolyte membrane ; an anode disposed on one principal surface of the proton-conducting electrolyte membrane ; a first flow path disposed on the anode and for flowing an anode fluid containing hydrogen as a constituent element therethrough; a cathode disposed on the other principal surface of the proton-conducting electrolyte membrane ; a second flow path disposed on the cathode and for flowing hydrogen therethrough; a voltage applicator configured to apply a voltage between the anode and the cathode ; a first detector configured to detect a hydrogen cross leak amount passing through the proton-conducting electrolyte membrane , wherein the first detector is configured to detect the hydrogen cross leak amount from: a natural potential of one electrode of the cathode and the anode after forming a state where hydrogen is present at the one electrode and hydrogen is not present at the other electrode of the cathode and the anode ; or a current flowing between the anode and the cathode when the voltage is applied from the voltage applicator in a state where the first flow path and the second flow path are both sealed off. a proton-conducting electrolyte membrane ; an anode disposed on one principal surface of the proton-conducting electrolyte membrane ; a first flow path disposed on the anode and for flowing an anode fluid containing hydrogen as a constituent element therethrough; a cathode disposed on the other principal surface of the proton-conducting electrolyte membrane ; a second flow path disposed on the cathode and for flowing hydrogen therethrough; a voltage applicator configured to apply a voltage between the anode and the cathode ; a first detector configured to detect a hydrogen cross leak amount passing through the proton-conducting electrolyte membrane , wherein the first detector is configured to detect the hydrogen cross leak amount from: a natural potential of one electrode of the cathode and the anode after forming a state where hydrogen is present at the one electrode and hydrogen is not present at the other electrode of the cathode and the anode ; or a current flowing between the anode and the cathode when the voltage is applied from the voltage applicator in a state where the first flow path and the second flow path are both sealed off. a natural potential of one electrode of the cathode and the anode after forming a state where hydrogen is present at the one electrode and hydrogen is not present at the other electrode of the cathode and the anode ; or a current flowing between the anode and the cathode when the voltage is applied from the voltage applicator in a state where the first flow path and the second flow path are both sealed off.
A beverage cooling system comprising: a refrigeration module with a fan having a refrigeration system cooling a first cooling medium; and a beverage cooling module connected to the refrigeration module , the beverage cooling module having a cooling tank that cools at least one beverage ingredient, characterized in that the beverage cooling module has a second cooling medium cooled by the refrigeration system that is circulated in the cooling tank via a pump , and said cooling tank is filled with another cooling medium, the another cooling medium being cooled by the second cooling medium that flows between the refrigeration module and the beverage cooling module , wherein the pump and the fan being operated by the same motor . the beverage cooling module has a second cooling medium cooled by the refrigeration system that is circulated in the cooling tank via a pump , and said cooling tank is filled with another cooling medium, the another cooling medium being cooled by the second cooling medium that flows between the refrigeration module and the beverage cooling module , wherein the pump and the fan being operated by the same motor .
A tactile sense presentation apparatus , comprising: a touch panel ; an actuator unit connected to the touch panel ; and a signal generation unit configured to supply a driving signal to the actuator unit , the driving signal generating a vibration having a vibration period on the actuator unit , the vibration having within the vibration period an amplitude and a plurality of different frequencies, or a plurality of different amplitudes and a plurality of different frequencies, wherein said amplitude or amplitudes and said frequencies are obtained on the basis of a detection threshold value that is represented by an envelope (a) of threshold values of a tactile receptor of persons against vibration, and the signal generation unit is configured to generate the driving signal such that the vibration generated on the actuator unit has, within the vibration period, a first frequency corresponding to a tactile area of the tactile receptor and a second frequency corresponding to a non-tactile area of the tactile receptor, wherein the tactile area is an area on or above the envelope (a), and wherein the non-tactile area is an area below the envelope (a), and the signal generation unit is configured to generate the driving signal such that the actuator unit moves along a first direction under the first frequency and along a second direction opposite to the first direction under the second frequency. a touch panel ; an actuator unit connected to the touch panel ; and a signal generation unit configured to supply a driving signal to the actuator unit , the driving signal generating a vibration having a vibration period on the actuator unit , the vibration having within the vibration period an amplitude and a plurality of different frequencies, or a plurality of different amplitudes and a plurality of different frequencies, said amplitude or amplitudes and said frequencies are obtained on the basis of a detection threshold value that is represented by an envelope (a) of threshold values of a tactile receptor of persons against vibration, and the signal generation unit is configured to generate the driving signal such that the vibration generated on the actuator unit has, within the vibration period, a first frequency corresponding to a tactile area of the tactile receptor and a second frequency corresponding to a non-tactile area of the tactile receptor, wherein the tactile area is an area on or above the envelope (a), and wherein the non-tactile area is an area below the envelope (a), and the signal generation unit is configured to generate the driving signal such that the actuator unit moves along a first direction under the first frequency and along a second direction opposite to the first direction under the second frequency.
Circuit arrangement for protection against an undue overheating of a charging and/or discharging control and/or of a secondary battery , the circuit arrangement comprising: - the secondary battery , - the charging and/or discharging control for charging and/or discharging the secondary battery , - a connector for connecting the charging and discharging control to an external power supply , - at least one current limiting electronic component arranged in electrical connection to the charging and/or discharging control wherein - said current limiting electronic component is disposed in the connection between the connector for connecting the charging and/or discharging control to the external power supply and the charging and/or discharging control , and characterized in that - said charging and/or discharging control is a DC-DC converter, and - said current limiting electronic component is a Polymeric Positive Temperature Coefficient component. - the secondary battery , - the charging and/or discharging control for charging and/or discharging the secondary battery , - a connector for connecting the charging and discharging control to an external power supply , - at least one current limiting electronic component arranged in electrical connection to the charging and/or discharging control wherein - said current limiting electronic component is disposed in the connection between the connector for connecting the charging and/or discharging control to the external power supply and the charging and/or discharging control , and characterized in that - said charging and/or discharging control is a DC-DC converter, and - said current limiting electronic component is a Polymeric Positive Temperature Coefficient component.
A thermally responsive actuator comprising: a housing having a bore extending along an axis and opening at a first end of the housing ; a piston slidable along the axis and having a shaft extendable through the opening of the housing with movement of the piston; a wax-like thermal expansion material positioned within the bore in contact with the piston; and a seal assembly attached to the first end of the housing to cover the opening and surround a portion of the shaft to allow the shaft to slide through the seal assembly while preventing escape of the thermal expansion material ; wherein the seal assembly includes an elastomeric seal surrounding a portion of the shaft and contacting the portion of the shaft over a contact region, wherein the elastomeric seal blocks escape of the wax-like thermal expansion material from the bore , characterized in that the elastomeric seal is a circular cylinder having a central axial bore of constant circular cross-section when the cylindrical elastomeric seal is in a relaxed state, and wherein the mold flash regions are displaced from the center of the axial bore to its edge. a housing having a bore extending along an axis and opening at a first end of the housing ; a piston slidable along the axis and having a shaft extendable through the opening of the housing with movement of the piston; a wax-like thermal expansion material positioned within the bore in contact with the piston; and a seal assembly attached to the first end of the housing to cover the opening and surround a portion of the shaft to allow the shaft to slide through the seal assembly while preventing escape of the thermal expansion material ; wherein the seal assembly includes an elastomeric seal surrounding a portion of the shaft and contacting the portion of the shaft over a contact region, wherein the elastomeric seal blocks escape of the wax-like thermal expansion material from the bore , characterized in that the elastomeric seal is a circular cylinder having a central axial bore of constant circular cross-section when the cylindrical elastomeric seal is in a relaxed state, and wherein the mold flash regions are displaced from the center of the axial bore to its edge.
A first leaf spring bracket having a longitudinal axis (X) and a transverse axis (Y) which is configured to be secured to a vehicle frame and which receives a rear end portion of a leaf spring so as to allow said leaf spring rear end portion to slide longitudinally relative to the first leaf spring bracket , wherein said first leaf spring bracket comprises: - an insert comprising an insert pad extending transversally, said insert comprising a bottom surface and a top surface and being made of austempered ductile iron, - a bracket comprising a bracket pad extending transversally and two perpendicular arms which contain at least one hole configured to receive a fastener , said bracket comprising a bottom surface and a top surface , the bottom surface of the bracket pad being configured to receive the top surface of the insert , the first leaf spring bracket being configured such that: - the bracket is made of spheroidal graphite cast iron, - the insert comprises two perpendicular arms which contain at least one hole configured to receive the fastener . - an insert comprising an insert pad extending transversally, said insert comprising a bottom surface and a top surface and being made of austempered ductile iron, - a bracket comprising a bracket pad extending transversally and two perpendicular arms which contain at least one hole configured to receive a fastener , said bracket comprising a bottom surface and a top surface , the bottom surface of the bracket pad being configured to receive the top surface of the insert , the first leaf spring bracket being configured such that: - the bracket is made of spheroidal graphite cast iron, - the insert comprises two perpendicular arms which contain at least one hole configured to receive the fastener .