mhurhangee/patent-ind-claim-en huggingface dataset:
A food processor comprising a base , a vacuum creating device , a food processing cup provided on the base and a cup lid provided on the food processing cup , wherein the cup lid comprises an upper lid and a lower lid that are rotatably assembled to form a reserved cavity therebetween, the upper lid and the lower lid being able to switch between a communicating state in which the reserved cavity is in communication with the food processing cup and a blocked state in which the communication is blocked, and wherein the vacuum creating device communicating with the reserved cavity can perform a vacuum creating operation on the food processing cup , characterized in that the upper lid comprises a first top wall and a first side wall connected with the first top wall , the first top wall being provided with a venting part at its center, at least one venting hole being provided in the venting part , in that the lower lid comprises a second top wall and a second side wall connected with the second top wall , a sliding slot being provided on the second top wall , the first side wall being inserted inside the sliding slot and rotatable along the sliding slot , the second top wall being provided with a suction hole that can communicate with the venting hole .
A polymer having a repeating unit comprising at least one astaxanthin moiety.
A suspension line assembly : for a parachute assembly, comprising: a first end of suspension line assembly ; a first plurality of suspension lines bound together at a first confluence , a second plurality of suspension lines bound together at a second confluence ; a first riser extending between the first confluence and a first attachment location disposed on a first strap proximate a second end of the suspension line assembly ; a second riser extending between the second confluence and a second attachment location disposed on a second strap proximate a second end of the suspension line assembly ; a cradle disposed between the first riser and the second riser; a first parallel riser coupled between the first confluence and the first attachment location in parallel with the first riser; a second parallel riser coupled between the second confluence and the second attachment location in parallel with the second riser; a first tandem riser coupled to the first parallel riser; and a second tandem riser coupled to the second parallel riser, wherein the cradle is coupled to the first tandem riser and the second tandem riser; wherein a first set of horizontal straps is coupled to the first tandem riser and the first parallel riser; and a second set of horizontal straps is coupled to the second tandem riser and the second parallel riser. a first end of suspension line assembly ; a first plurality of suspension lines bound together at a first confluence , a second plurality of suspension lines bound together at a second confluence ; a first riser extending between the first confluence and a first attachment location disposed on a first strap proximate a second end of the suspension line assembly ; a second riser extending between the second confluence and a second attachment location disposed on a second strap proximate a second end of the suspension line assembly ; a cradle disposed between the first riser and the second riser; a first parallel riser coupled between the first confluence and the first attachment location in parallel with the first riser; a second parallel riser coupled between the second confluence and the second attachment location in parallel with the second riser; a first tandem riser coupled to the first parallel riser; and a second tandem riser coupled to the second parallel riser, wherein the cradle is coupled to the first tandem riser and the second tandem riser; wherein a first set of horizontal straps is coupled to the first tandem riser and the first parallel riser; and a second set of horizontal straps is coupled to the second tandem riser and the second parallel riser.
A method for wireless communications executed by a user equipment, UE, comprising: communicating , via at least first and second receive chains, with a first radio access technology, RAT, using carrier aggregation, CA; receiving, from a base station scheduling the UE, signaling for configuring the UE with a set of threshold values to be used by the UE to trigger measurement events during tune-away intervals when the UE has tuned away at least one receive chain from the first RAT; tuning away , with the second receive chain, for a particular time, to communicate with a second RAT during a tune-away interval; and during the tune-away interval, manipulating reporting, to the base station scheduling the UE, of measurement triggering events for the first RAT used by the base station for making decisions regarding CA cells for the first RAT, wherein the manipulating is based, at least in part, on a duration of the tune-away interval. communicating , via at least first and second receive chains, with a first radio access technology, RAT, using carrier aggregation, CA; receiving, from a base station scheduling the UE, signaling for configuring the UE with a set of threshold values to be used by the UE to trigger measurement events during tune-away intervals when the UE has tuned away at least one receive chain from the first RAT; tuning away , with the second receive chain, for a particular time, to communicate with a second RAT during a tune-away interval; and during the tune-away interval, manipulating reporting, to the base station scheduling the UE, of measurement triggering events for the first RAT used by the base station for making decisions regarding CA cells for the first RAT, wherein the manipulating is based, at least in part, on a duration of the tune-away interval.
Hybrid drive arrangement with an internal combustion engine as first drive unit , an electric machine as second drive unit , and a transmission which is coupled to the two drive units , the transmission having an input shaft and an output shaft , at least a first, second, third and a fourth shifting element (SE1, SE2, SE3, SE4), and at least one double planetary gear mechanism , with a first sun gear and a first internal gear and a second sun gear and a second internal gear and a planetary carrier, the first drive unit being coupled to the input shaft , the input shaft being coupled to the planetary carrier of the double planetary gear mechanism , and it being possible for the output shaft to be coupled by means of the first shifting element (SE1) to the first internal gear of the double planetary gear mechanism , and to be coupled by means of the second shifting element (SE2) to the second internal gear of the double planetary gear mechanism , and the third shifting element (SE3) being configured to brake or to release the first sun gear of the double planetary gear mechanism , and the fourth shifting element (SE4) being configured to brake or to release the second sun gear of the double planetary gear mechanism , characterized in that the second drive unit is coupled to the first internal gear of the double planetary gear mechanism .
A laminate including - a mineral wool panel whose fibers are bonded by a first organic binder having a density less than or equal to 40 kg/m 3 and - a facing comprising a nonwoven fiber web of textile mineral fibers bonded by a second organic binder, laminated on at least one of the two main faces of the mineral wool panel, characterized by the fact that the tensile stiffness of the nonwoven fiber web is greater than 30 N/mm. - a mineral wool panel whose fibers are bonded by a first organic binder having a density less than or equal to 40 kg/m 3 and - a facing comprising a nonwoven fiber web of textile mineral fibers bonded by a second organic binder, laminated on at least one of the two main faces of the mineral wool panel,
An electric tool comprising: an output part that comes into contact with a working target to process the working target; a motor that drives the output part; a sensor that measures capacitance of a metal part comprising the output part; characterized by a metal case accommodating the output part, wherein the sensor is electrically connected to the case, and the electric tool detects a foreign object based on a change in the capacitance measured by the sensor . an output part that comes into contact with a working target to process the working target; a motor that drives the output part; a sensor that measures capacitance of a metal part comprising the output part; characterized by a metal case accommodating the output part, wherein the sensor is electrically connected to the case, and the electric tool detects a foreign object based on a change in the capacitance measured by the sensor .
A preparation method for a composite porous structure, comprising the following steps: step (a1): preparing a porous substrate having multiple pores , a first surface and a second surface opposite to the first surface , wherein the porous substrate is a hollow tube, hollow cone or hollow column; step (a2): filling a liquid into the pores of the porous substrate , wherein the liquid is water, alcohols, ketones, or combinations thereof; and step (b): heating a coating material to multiple molten particles by a heat source and spraying the molten particles onto the second surface of the porous substrate , so as to form a coating layer having multiple micropores on the second surface of the porous substrate and obtain the composite porous structure ; wherein the coating material is an organic polymer coating material or an inorganic coating material; the preparation method characterized in that : the step (b) further comprises continuously feeding a cooling fluid to contact the first surface and to flow continuously to the second surface through the pores of the porous substrate when spraying the molten particles onto the second surface of the porous substrate ; and wherein a flow rate of the cooling fluid is between 0.1 L/min and 10 L/min; wherein a temperature of the molten particles is higher than the temperature of the cooling fluid ; and a temperature of the heat source of step (b) is between 100°C and 10000°C, and a temperature of the cooling fluid of step (b) is between 5°C and 60°C. step (a1): preparing a porous substrate having multiple pores , a first surface and a second surface opposite to the first surface , wherein the porous substrate is a hollow tube, hollow cone or hollow column; step (a2): filling a liquid into the pores of the porous substrate , wherein the liquid is water, alcohols, ketones, or combinations thereof; and step (b): heating a coating material to multiple molten particles by a heat source and spraying the molten particles onto the second surface of the porous substrate , so as to form a coating layer having multiple micropores on the second surface of the porous substrate and obtain the composite porous structure ; wherein the coating material is an organic polymer coating material or an inorganic coating material; the step (b) further comprises continuously feeding a cooling fluid to contact the first surface and to flow continuously to the second surface through the pores of the porous substrate when spraying the molten particles onto the second surface of the porous substrate ; and wherein a flow rate of the cooling fluid is between 0.1 L/min and 10 L/min; wherein a temperature of the molten particles is higher than the temperature of the cooling fluid ; and
A power source for actuating a subsurface tool , the power source comprising: a quantity of thermite sufficient to generate a thermite reaction when heated in excess of an ignition temperature; and a polymer disposed in association with the thermite , wherein said polymer comprises polyethylene, polypropylene, polystyrene, polyester, polyurethane, acetal, nylon, polycarbonate, vinyl, acrylin, acrylonitrile butadiene styrene, polyimide, cyclic olefin copolymer, polyphenylene sulfide, polytetrafluroethylene, polyketone, polyetheretherketone, polyetherimide, polyethersulfone, polyamide imide, styrene acrylonitrile, cellulose propionate, diallyl phthalate, or melamine formaldehyde, or combinations thereof; wherein said polymer produces a gas when the thermite reaction occurs, wherein the gas slows the thermite reaction, and wherein, in use, pressure produced by the thermite reaction, the gas, or combinations thereof, is applied to the subsurface tool to actuate the subsurface tool , and the power source is provided in operative association with a movable member of the subsurface tool , wherein the power source is placed adjacent to the movable member . a quantity of thermite sufficient to generate a thermite reaction when heated in excess of an ignition temperature; and a polymer disposed in association with the thermite , wherein said polymer comprises polyethylene, polypropylene, polystyrene, polyester, polyurethane, acetal, nylon, polycarbonate, vinyl, acrylin, acrylonitrile butadiene styrene, polyimide, cyclic olefin copolymer, polyphenylene sulfide, polytetrafluroethylene, polyketone, polyetheretherketone, polyetherimide, polyethersulfone, polyamide imide, styrene acrylonitrile, cellulose propionate, diallyl phthalate, or melamine formaldehyde, or combinations thereof; wherein said polymer produces a gas when the thermite reaction occurs, wherein the gas slows the thermite reaction, and wherein, in use, pressure produced by the thermite reaction, the gas, or combinations thereof, is applied to the subsurface tool to actuate the subsurface tool , and the power source is provided in operative association with a movable member of the subsurface tool , wherein the power source is placed adjacent to the movable member .
A cooling cigarette filter, comprising a cooling section, the cooling section is provided with one or more channels connecting two ends of the cooling section, and an inner surface of each channel is coated with a cooling material; wherein the cooling material is a compound mixture of an inorganic phase change material and PEG, and the inorganic phase change material comprises at least one of Na 2 CO 3 •10H 2 O, CH 3 COONa•3H 2 O, CaC1 2 •4H 2 O, and Na 2 SO 4 •10H 2 O.
A transformer structure, comprising: a core and at least one coil , wherein the core comprises side yokes and a core limb , the side yokes define an accommodating region configured to close a magnetic circuit, the core limb is disposed in the accommodating region , and the at least one coil is sleeved outside the core limb so that the at least one coil is located in the accommodating region ; and a sum of cross-sectional areas of the side yokes on any two sides of the core limb is greater than or equal to a cross-sectional area of the core limb , wherein the side yokes comprise a first side yoke , a second side yoke , a third side yoke , and a fourth side yoke ; and the first side yoke , the second side yoke , the third side yoke and the fourth side yoke are sequentially connected in an end-to-end manner, and any two adjacent ones of the first side yoke , the second side yoke , the third side yoke and the fourth side yoke are disposed perpendicular to each other, such that the accommodating region defined by the first side yoke , the second side yoke , the third side yoke and the fourth side yoke is in a rectangular shape, wherein each of the first side yoke , the second side yoke , the third side yoke and the fourth side yoke has a rectangular cross-sectional shape, a cross-sectional area of the first side yoke is not equal to a cross-sectional area of the third side yoke , and a cross-sectional area of the second side yoke is not equal to a cross-sectional area of the fourth side yoke , characterized in that the core limb has a circular cross-sectional shape. wherein the core comprises side yokes and a core limb , the side yokes define an accommodating region configured to close a magnetic circuit, the core limb is disposed in the accommodating region , and the at least one coil is sleeved outside the core limb so that the at least one coil is located in the accommodating region ; and a sum of cross-sectional areas of the side yokes on any two sides of the core limb is greater than or equal to a cross-sectional area of the core limb , wherein the side yokes comprise a first side yoke , a second side yoke , a third side yoke , and a fourth side yoke ; and the first side yoke , the second side yoke , the third side yoke and the fourth side yoke are sequentially connected in an end-to-end manner, and any two adjacent ones of the first side yoke , the second side yoke , the third side yoke and the fourth side yoke are disposed perpendicular to each other, such that the accommodating region defined by the first side yoke , the second side yoke , the third side yoke and the fourth side yoke is in a rectangular shape, wherein each of the first side yoke , the second side yoke , the third side yoke and the fourth side yoke has a rectangular cross-sectional shape, a cross-sectional area of the first side yoke is not equal to a cross-sectional area of the third side yoke , and a cross-sectional area of the second side yoke is not equal to a cross-sectional area of the fourth side yoke , characterized in that the core limb has a circular cross-sectional shape.
An assembly of a cam buckle for tightening protection straps of a trailer tarp and a door bumper attached to said cam buckle , wherein the body of said door bumper resembles letter "T" in the cross-section and has at least a bumper part to protect the cam buckle from being hit by a trailer door and an attachment part attached to said cam buckle , wherein the bumper part and the attachment part define a space the shape of which fits at least a part of the cam buckle , wherein the bumper part covers at least a part of the cam buckle and protrudes from said cam buckle outwardly as the furthest element intended to be hit first by the trailer door, wherein the attachment part has a cross-wise pass-through hole which is aligned in one axis with a mounting hole made in the cam buckle , whereby there is a connecting element put through the pass-through hole and the mounting hole.
A device for the automatic cutting of a material web , having a longitudinal cutting device , by means of which the material web can be severed in a longitudinal direction L into at least a partial web and/or at least a residual web , a discharge device for the automatic discharge of the residual web produced, a transverse cutting device downstream of the longitudinal cutting device for severing the residual web transversely to the longitudinal direction L, wherein the discharge device can be positioned on a first roller , which provides for a transport of the material web , and the discharge device has at least one auxiliary roller , characterized in that the auxiliary roller can be brought between two positions , and that in the first position the auxiliary roller acts on the first roller and in the second position the auxiliary roller is spaced apart from the first roller .
A method of making an intraocular lens , comprising: forming a support structure ; and forming a base optic having an anterior surface and an opposing posterior surface ; wherein the support structure is coupled to the base optic ; and characterized by : processing the base optic to remove unwanted impurities, wherein processing the base optic comprises extracting impurities from the base optic , wherein extracting impurities comprises performing a Soxhlet extraction; and subsequent to processing the base optic , forming a finished optic by affixing a membrane to at least one of the surfaces of the base optic, wherein the surface quality of an outer surface of the membrane is higher than the surface quality of the surfaces of the base optic , wherein the surface quality is expressed in terms of an RMS roughness, where a lower RMS roughness corresponds to a higher surface quality, or deviation from a desired profile or shape, where a lower deviation corresponds to a higher surface quality. forming a support structure ; and forming a base optic having an anterior surface and an opposing posterior surface ; wherein the support structure is coupled to the base optic ; and characterized by : processing the base optic to remove unwanted impurities, wherein processing the base optic comprises extracting impurities from the base optic , wherein extracting impurities comprises performing a Soxhlet extraction; and subsequent to processing the base optic , forming a finished optic by affixing a membrane to at least one of the surfaces of the base optic, wherein the surface quality of an outer surface of the membrane is higher than the surface quality of the surfaces of the base optic , wherein the surface quality is expressed in terms of an RMS roughness, where a lower RMS roughness corresponds to a higher surface quality, or deviation from a desired profile or shape, where a lower deviation corresponds to a higher surface quality. processing the base optic to remove unwanted impurities, wherein processing the base optic comprises extracting impurities from the base optic , wherein extracting impurities comprises performing a Soxhlet extraction; and subsequent to processing the base optic , forming a finished optic by affixing a membrane to at least one of the surfaces of the base optic, wherein the surface quality of an outer surface of the membrane is higher than the surface quality of the surfaces of the base optic , wherein the surface quality is expressed in terms of an RMS roughness, where a lower RMS roughness corresponds to a higher surface quality, or deviation from a desired profile or shape, where a lower deviation corresponds to a higher surface quality.
A thread rolling head comprising at least one roller holder for holding rollers for forming a thread on a workpiece , wherein the rollers rotate in the course of the formation of the thread, characterized in that an energy recovery apparatus is integrated into the thread rolling head, which apparatus recovers electrical energy during operation of the thread rolling head.
A method for handling a service request in a network, wherein the method is performed by a first service communication proxy, SCP, node that is configured to operate as an SCP between a first network function, NF, node of a service consumer and a second NF node of a service producer in the network, the method comprising: checking whether the first NF node supports being bound by one or more parameters; and initiating transmission of a second response towards the first NF node in response to receiving, from the second NF node , a first response to a first request transmitted towards the second NF node via the first SCP node , wherein the first request is for the second NF node to provide a first service requested by the first NF node , wherein the second response comprises binding information irrespective of whether the binding information is present in the first response , wherein the second response comprises the binding information only if the first NF node supports being bound by the one or more parameters, and wherein the binding information is indicative of the one or more parameters by which the first NF node is bound when selecting a second service in an NF node of a service producer for a subsequent second request . checking whether the first NF node supports being bound by one or more parameters; and initiating transmission of a second response towards the first NF node in response to receiving, from the second NF node , a first response to a first request transmitted towards the second NF node via the first SCP node , wherein the first request is for the second NF node to provide a first service requested by the first NF node , wherein the second response comprises binding information irrespective of whether the binding information is present in the first response , wherein the second response comprises the binding information only if the first NF node supports being bound by the one or more parameters, and wherein the binding information is indicative of the one or more parameters by which the first NF node is bound when selecting a second service in an NF node of a service producer for a subsequent second request .