mhurhangee/patent-ind-claim-en huggingface dataset:
A cosmetic product for hair bleaching or hair dyeing, which comprises a first part containing an alkali agent, a second part containing hydrogen peroxide, and a non-aerosol foamer container for discharging a mixed solution containing the first part and the second part in the form of foam, wherein the cosmetic product for hair bleaching or hair dyeing contains the following component (A) in the second part: (A) 0.1% by mass or more and 1.5% by mass or less of saturated aliphatic alcohols containing the following components (A1) and (A2) in the second part: (A1) a saturated aliphatic alcohol represented by R 1 -OH wherein R 1 represents a C 12-18 linear chain alkyl group, (A2) a saturated aliphatic alcohol represented by R 2 -OH wherein R 2 represents a C 19-24 linear chain alkyl group, and (B) an ionic surfactant, wherein the mass ratio between the components (A1) and (A2), ((A1):(A2)), in the second part is 5:1 to 1:10, and wherein the mass ratio of the component (B) to the total amount of the components (A1) and (A2), ((B)/[(A1)+(A2)]), in the second part is 3 to 0.3. (A) 0.1% by mass or more and 1.5% by mass or less of saturated aliphatic alcohols containing the following components (A1) and (A2) in the second part: (A1) a saturated aliphatic alcohol represented by R 1 -OH wherein R 1 represents a C 12-18 linear chain alkyl group, (A2) a saturated aliphatic alcohol represented by R 2 -OH wherein R 2 represents a C 19-24 linear chain alkyl group, and (A1) a saturated aliphatic alcohol represented by R 1 -OH wherein R 1 represents a C 12-18 linear chain alkyl group, (A2) a saturated aliphatic alcohol represented by R 2 -OH wherein R 2 represents a C 19-24 linear chain alkyl group, and (B) an ionic surfactant,
A backpack tool apparatus, comprising: a backpack assembly (11; 21; 31; 41), a tool (12, 13; 22, 23; 32; 42) and a distance adjusting assembly , wherein the tool (12, 13; 22, 23; 32; 42) is connected to the backpack assembly (11; 21; 31; 41) by said distance adjusting assembly , characterized in that said distance adjusting assembly comprises a neck part , an adjustable part , a driving part , and a resetting part , said neck is formed with at least a first groove and a second groove and a protrusion is formed on the adjustable part , the protrusion being received in the first groove to fix the tool (12, 13; 22, 23; 32; 42) in a first position; said driving part is applicable to drive the adjustable part moving to disengage the protrusion on the adjustable part from said first groove ; when the protrusion on said adjustable part is disengaged from said first groove , the tool (12, 13; 22, 23; 32; 42) can move relatively to the backpack assembly (11; 21; 31; 41) such that the protrusion on the adjustable part is aligned with the second groove on the neck part ; the resetting part can drive the driving part to be reset such that said protrusion on the adjustable part is received within the second groove to secure the tool (12, 13; 22, 23; 32; 42) to the second position and wherein the distance between the tool (12, 13; 22, 23; 32; 42) and the backpack assembly (11; 21; 31; 41) is adjustable by the distance adjusting assembly between at least the first position and the second position. a backpack assembly (11; 21; 31; 41), a tool (12, 13; 22, 23; 32; 42) and a distance adjusting assembly , wherein the tool (12, 13; 22, 23; 32; 42) is connected to the backpack assembly (11; 21; 31; 41) by said distance adjusting assembly , characterized in that said distance adjusting assembly comprises a neck part , an adjustable part , a driving part , and a resetting part , said neck is formed with at least a first groove and a second groove and a protrusion is formed on the adjustable part , the protrusion being received in the first groove to fix the tool (12, 13; 22, 23; 32; 42) in a first position; said driving part is applicable to drive the adjustable part moving to disengage the protrusion on the adjustable part from said first groove ; when the protrusion on said adjustable part is disengaged from said first groove , the tool (12, 13; 22, 23; 32; 42) can move relatively to the backpack assembly (11; 21; 31; 41) such that the protrusion on the adjustable part is aligned with the second groove on the neck part ; the resetting part can drive the driving part to be reset such that said protrusion on the adjustable part is received within the second groove to secure the tool (12, 13; 22, 23; 32; 42) to the second position and wherein the distance between the tool (12, 13; 22, 23; 32; 42) and the backpack assembly (11; 21; 31; 41) is adjustable by the distance adjusting assembly between at least the first position and the second position.
An agricultural baler , comprising: a bale chamber for the compression of crop material into bales, the bale chamber having a floor, a ceiling, a first wall and a second wall, wherein a bale forming direction of the bale chamber extends from an inlet end to an outlet end of the bale chamber, and wherein the floor comprises an inlet opening ; a plunger for forcing the crop material from the inlet end of the bale chamber towards the outlet end of the bale chamber; a feeder duct communicating with the bale chamber through the inlet opening for charges of crop material to be transferred from the feeder duct into the bale chamber , wherein the feeder duct has an upper end facing generally upwardly and communicating with the inlet opening in the bale chamber and a lower end facing generally in a forward direction, the feeder duct has a top wall and a bottom wall extending between the lower end and the upper end of the feeder duct; one or more actuators that are configured to move the top wall and / or the bottom wall ; and a controller configured to activate the one or more actuators during a baling operation in order to adjust the volume of the feeder duct characterized in that the one or more actuators are configured to provide the feeder duct with a funnel-configuration and a reverse funnel configuration. a bale chamber for the compression of crop material into bales, the bale chamber having a floor, a ceiling, a first wall and a second wall, wherein a bale forming direction of the bale chamber extends from an inlet end to an outlet end of the bale chamber, and wherein the floor comprises an inlet opening ; a plunger for forcing the crop material from the inlet end of the bale chamber towards the outlet end of the bale chamber; a feeder duct communicating with the bale chamber through the inlet opening for charges of crop material to be transferred from the feeder duct into the bale chamber , wherein the feeder duct has an upper end facing generally upwardly and communicating with the inlet opening in the bale chamber and a lower end facing generally in a forward direction, the feeder duct has a top wall and a bottom wall extending between the lower end and the upper end of the feeder duct; one or more actuators that are configured to move the top wall and / or the bottom wall ; and a controller configured to activate the one or more actuators during a baling operation in order to adjust the volume of the feeder duct
An aqueous dispersion [dispersion (D)] comprising particles of a vinylidene fluoride (VDF) polymer [polymer (A)] comprising recurring units derived from vinylidene fluoride (VDF) monomer, said polymer (A) (i) comprising more than 85.0 % moles of recurring units derived from VDF, with respect to the total number of recurring units of polymer (A); (ii) having iodine-containing chain ends in an amount, determined by 1 H-NMR as detailed in the description, of 0.1 to 5.0 mmol/kg; (iii) possessing a weight averaged molecular weight (M w ) of at least 500 KDalton, when measured by GPC, using N,N-dimethylacetamide (DMA) as solvent, against monodisperse polystyrene standards; wherein the relation between melt viscosity (MV) in KPoise determined at a shear rate of 100 sec -1 , and at a temperature of 230°C, according to ASTM D3835, and M w , expressed in KDalton, satisfies the following inequality: 0.025 × M w KDalton + 13 ≤ MV KPoise ≤ 0.050 × M w KDalton + 10 , preferably the following inequality: 0.030 × M w KDalton + 12 ≤ MV KPoise ≤ 0.045 × M w KDalton + 9 . (i) comprising more than 85.0 % moles of recurring units derived from VDF, with respect to the total number of recurring units of polymer (A); (ii) having iodine-containing chain ends in an amount, determined by 1 H-NMR as detailed in the description, of 0.1 to 5.0 mmol/kg; (iii) possessing a weight averaged molecular weight (M w ) of at least 500 KDalton, when measured by GPC, using N,N-dimethylacetamide (DMA) as solvent, against monodisperse polystyrene standards;
A catheter, comprising: a cylinder member having a hollow (V) formed therein; at least one electrode mounted to the cylinder member to generate heat; and a power supply wire printed on the cylinder member and connected to the electrode to give a power supply path for the electrode , wherein the cylinder member is configured by bending a plate-shaped member so that two sides (A1, A2) of the plate-shaped member spaced apart from each other along a longitudinal direction of the hollow (V) are coupled and fixed to each other, wherein the electrode and the power supply wire having one end connected to the electrode are provided in plural, and wherein the catheter further comprises a distribution unit to which at least two of the plurality of power supply wires is connected and at least one power input line is connected, so that the power supplied from a single power input line is distributed to at least two power supply wire , and wherein the distribution unit is mounted to an inner wall of the cylinder member and has a curved shape corresponding to the inner wall of the cylinder member . a cylinder member having a hollow (V) formed therein; at least one electrode mounted to the cylinder member to generate heat; and a power supply wire printed on the cylinder member and connected to the electrode to give a power supply path for the electrode , wherein the cylinder member is configured by bending a plate-shaped member so that two sides (A1, A2) of the plate-shaped member spaced apart from each other along a longitudinal direction of the hollow (V) are coupled and fixed to each other, wherein the electrode and the power supply wire having one end connected to the electrode are provided in plural, and wherein the catheter further comprises a distribution unit to which at least two of the plurality of power supply wires is connected and at least one power input line is connected, so that the power supplied from a single power input line is distributed to at least two power supply wire , and wherein the distribution unit is mounted to an inner wall of the cylinder member and has a curved shape corresponding to the inner wall of the cylinder member .
A headspace extraction and analysis method for volatile compounds, wherein a continuous flow of volatile compounds is forced by applying reduced pressure conditions, said method comprising (i) inserting a needle of a sampling means via a septum into a headspace above a solid or liquid sample contained in a container closed by said septum, wherein said sampling means has a trap filled with at least one sorbent , said trap has a first end and a second end and at its first end is connected to a needle and at its second end is connected with at least one flow channel for connecting the trap to a vacuum source and an inert gas source, (ii) applying a vacuum to the sampling means on the side of the second end of the trap , the distant side, so that volatile compounds in the headspace are sucked out from the container into the trap , (iii) removing the sampling means from the container, (iv) drying the sampling means by flowing a dry inert gas through it from the distant side, (v) inserting the needle into an injector of a gas chromatography apparatus, (vi) desorbing the volatile compounds from the trap by flowing the at least one sorbent with inert gas from the distant side, (vii) analyzing the volatile compounds and (viii) cleaning the trap and needle by flushing with inert gas. (i) inserting a needle of a sampling means via a septum into a headspace above a solid or liquid sample contained in a container closed by said septum, wherein said sampling means has a trap filled with at least one sorbent , said trap has a first end and a second end and at its first end is connected to a needle and at its second end is connected with at least one flow channel for connecting the trap to a vacuum source and an inert gas source, (ii) applying a vacuum to the sampling means on the side of the second end of the trap , the distant side, so that volatile compounds in the headspace are sucked out from the container into the trap , (iii) removing the sampling means from the container, (iv) drying the sampling means by flowing a dry inert gas through it from the distant side, (v) inserting the needle into an injector of a gas chromatography apparatus, (vi) desorbing the volatile compounds from the trap by flowing the at least one sorbent with inert gas from the distant side, (vii) analyzing the volatile compounds and (viii) cleaning the trap and needle by flushing with inert gas.
Hydrodynamic machine, in particular a hydrodynamic retarder, comprising a housing in which at least one shaft , two impellers comprising a rotor and a stator which configure a toroidal operating chamber which is capable of being filled with an operating medium, and a drive output gear wheel , wherein at least the rotor and the drive output gear wheel are disposed about a common rotation axis and are mounted so as to be rotatable in a mutually independent manner, characterized in that a coupling device which is disposed in the housing of the hydrodynamic machine is provided for transmitting torque between the drive output gear wheel and the rotor , wherein the drive output gear wheel is mounted rotatably on the shaft and the rotor is connected in a rotationally fixed manner to the shaft , and the coupling device comprises a synchronizing unit , a coupling unit and an actuator , wherein the actuator comprises a piston which is able to be moved by a fluid or is able to be electrically activated, wherein the piston is mounted in the rotor housing .
A surgical port assembly for use with surgical instruments, the surgical port assembly comprising: a body including an exterior surface and an interior surface , the interior surface defining an interior space , the interior space configured to allow a surgical instrument to pass therethrough; and a control interface including a plurality of inflatable members (180a-180i) coupled to the body and inflatable to selectively apply a force to a portion of a shaft of the surgical instrument when the shaft is disposed within the interior space, wherein each of the plurality of inflatable members is independently selectively inflatable to move a distal portion of the surgical instrument to a desired position, whereby at least one of the plurality of inflatable members (180a-180i) includes a friction-enhancing material. a body including an exterior surface and an interior surface , the interior surface defining an interior space , the interior space configured to allow a surgical instrument to pass therethrough; and a control interface including a plurality of inflatable members (180a-180i) coupled to the body and inflatable to selectively apply a force to a portion of a shaft of the surgical instrument when the shaft is disposed within the interior space, wherein each of the plurality of inflatable members is independently selectively inflatable to move a distal portion of the surgical instrument to a desired position, whereby at least one of the plurality of inflatable members (180a-180i) includes a friction-enhancing material.
A fault detection method, comprising: discovering , by a gateway, that a fault occurs in a domain name system, DNS, server or a service server related to a user equipment, UE; performing , by the gateway, fault detection on the DNS server or the service server; and after the fault is rectified, instructing by the gateway, the UE to establish a connection to the DNS server or the service server, characterized in that the discovering that a fault occurs in a DNS server or a service server related to a UE comprises: detecting , by the gateway by using a data packet inspection, DPI, or data flow inspection, DFI, mechanism, that the UE performs a DNS query or a TCP connection attempt and the UE fails to receive a response. discovering , by a gateway, that a fault occurs in a domain name system, DNS, server or a service server related to a user equipment, UE; performing , by the gateway, fault detection on the DNS server or the service server; and after the fault is rectified, instructing by the gateway, the UE to establish a connection to the DNS server or the service server, characterized in that the discovering that a fault occurs in a DNS server or a service server related to a UE comprises: detecting , by the gateway by using a data packet inspection, DPI, or data flow inspection, DFI, mechanism, that the UE performs a DNS query or a TCP connection attempt and the UE fails to receive a response.
A method, comprising: receiving a first request to generate configuration data for configurable hardware using a specification for application logic of the configurable hardware ; generating a host logic wrapper ; generating the configuration data for the configurable hardware , the configuration data comprising data for implementing the application logic through integration of the application logic into the host logic wrapper ; receiving a second request to transmit the configuration data to a host server computer comprising an instance of the configurable hardware ; and transmitting the configuration data to the host server computer in response to the second request ; characterized in that the application logic is received in a logic repository service of a compute service provider that analyzes the application logic to: determine whether the application logic includes ring oscillators, continue with the generating of the configuration data if the application logic does not include ring oscillators, and abort the generating of the configuration data if the application logic includes ring oscillators. receiving a first request to generate configuration data for configurable hardware using a specification for application logic of the configurable hardware ; generating a host logic wrapper ; generating the configuration data for the configurable hardware , the configuration data comprising data for implementing the application logic through integration of the application logic into the host logic wrapper ; receiving a second request to transmit the configuration data to a host server computer comprising an instance of the configurable hardware ; and transmitting the configuration data to the host server computer in response to the second request ; characterized in that the application logic is received in a logic repository service of a compute service provider that analyzes the application logic to: determine whether the application logic includes ring oscillators, continue with the generating of the configuration data if the application logic does not include ring oscillators, and abort the generating of the configuration data if the application logic includes ring oscillators. determine whether the application logic includes ring oscillators, continue with the generating of the configuration data if the application logic does not include ring oscillators, and abort the generating of the configuration data if the application logic includes ring oscillators.
A heat flow rate measurement method for use with a differential scanning calorimeter sensor , the method comprising: calculating a heat exchange between a plurality of sample containers and a reference container placed on a plurality of sample calorimeter units and a reference calorimeter unit , respectively; and determining a heat flow rate of samples within the sample containers using the calculated heat exchange between the plurality of sample containers and the reference container, the determination being made according to: q ̇ PA = T PB − T PA / R AB + T PC − T PA / R AC + ... + T P n − T PA / R A n + T PR − T PA / R AR ; q ̇ P B = T P A − T P B / R AB + T PC − T P B / R B C + ... + T P n − T P B / R Bn + T PR − T P B / R B R ; q ̇ P C = T P A − T P C / R AC + T P B − T P C / R BC + ... + T P n − T P C / R Cn + T PR − T P C / R C R ; and q ̇ P n = T P A − T P n / R An + T P B − T P n / R Bn + ... T Pn − 1 − T Pn / R n − 1 n + T PR − T P n / R n R , wherein T PA is a temperature of a first sample container, T PB is a temperature of a second sample container, R AB is a thermal resistance between the first sample container and the second sample container, T PC is a temperature of a third sample container, R AC is a thermal resistance between the first sample container and the third sample container, R BC is a thermal resistance between the second sample container and the third sample container, T P n is a temperature of a nth sample container, R A n is a thermal resistance between the first sample container and the nth sample container, R B n is a thermal resistance between the second sample container and the nth sample container, R C n is a thermal resistance between the third sample container and the nth sample container, T PR is a temperature of the reference container, R AR is a thermal resistance between the first sample container and the reference container, R B R is a thermal resistance between the second sample container and the reference container, R CR is a thermal resistance between the third sample container and the reference container, and q̇ PA , q̇ PB , q̇ PC and q̇ P n are the heat flow rates between the sample and reference containers for the first, second, third and nth sample containers, respectively.
A method of wireless communication, comprising: receiving , at a user equipment, UE, a first minimum processing time signal from a serving base station, wherein the first minimum processing time signal identifies a minimum processing time for the serving base station to process autonomous uplink, AUL, transmissions from the UE; receiving , at the UE, a downlink feedback information, DFI, message from the serving base station, wherein the DFI message includes a bitmap containing acknowledgment information for a plurality of outstanding AUL transmissions from the UE; and identifying , by the UE, one or more acknowledged AUL transmissions of the plurality of outstanding AUL transmissions having a pending time in excess of the minimum processing time and one or more pending AUL transmissions of the plurality of outstanding AUL transmissions having the pending time within the minimum processing time by interpreting the bitmap using the minimum processing time received by the first signal and processing the identified AUL transmissions according to the interpretation. receiving , at a user equipment, UE, a first minimum processing time signal from a serving base station, wherein the first minimum processing time signal identifies a minimum processing time for the serving base station to process autonomous uplink, AUL, transmissions from the UE; receiving , at the UE, a downlink feedback information, DFI, message from the serving base station, wherein the DFI message includes a bitmap containing acknowledgment information for a plurality of outstanding AUL transmissions from the UE; and identifying , by the UE, one or more acknowledged AUL transmissions of the plurality of outstanding AUL transmissions having a pending time in excess of the minimum processing time and one or more pending AUL transmissions of the plurality of outstanding AUL transmissions having the pending time within the minimum processing time by interpreting the bitmap using the minimum processing time received by the first signal and processing the identified AUL transmissions according to the interpretation.
A protein having an amino acid sequence set forth in SEQ ID No. 16.