mhurhangee/ep-ind-claims huggingface dataset:
A base material for a lithium ion secondary battery separator comprising a polyethylene terephthalate fiber, characterized in that an average fiber diameter of the polyethylene terephthalate fiber is 9.0 μm or less, a specific X-ray diffraction intensity derived from the polyethylene terephthalate fiber is 300 cps/(g/m 2) or more, and a coefficient of variation of the specific X-ray diffraction intensity is 12.0 % or less.
An inlet guide for installation on a filter cassette, comprising: a plurality of rectangular openings, each opening defined by a set of parallel first sides and a set of parallel second sides (33, 34) orthogonal to the set of first sides, the parallel first sides being longer than the parallel second sides (33, 34); wherein each opening comprises a first pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of first sides; and wherein each opening comprises a second pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of second sides (33, 34); wherein the first and second pairs of curved lofted surfaces each have a short elliptical curve with a height ranging from 25 to 75 mm and a height to width ratio of from 1:1 to 1:2.7 causing a cross sectional area of the opening to decrease from an upstream end of the inlet guide to a downstream end of the inlet guide. a plurality of rectangular openings, each opening defined by a set of parallel first sides and a set of parallel second sides (33, 34) orthogonal to the set of first sides, the parallel first sides being longer than the parallel second sides (33, 34); wherein each opening comprises a first pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of first sides; and wherein each opening comprises a second pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of second sides (33, 34); wherein the first and second pairs of curved lofted surfaces each have a short elliptical curve with a height ranging from 25 to 75 mm and a height to width ratio of from 1:1 to 1:2.7 causing a cross sectional area of the opening to decrease from an upstream end of the inlet guide to a downstream end of the inlet guide.
System for controlling a speed of an agricultural machine, comprising: means for detecting a first speed V 1 of the agricultural machine by building up contact with the ground on which the agricultural machine is travelling, in particular a running wheel/ground wheel with an induction sensor; means for detecting a second speed v 2 of the agricultural machine by means of one or more contactless sensors, in particular a radar sensor and/or a GPS sensor, provided on the agricultural machine; means for determining a valid speed, V G, on the basis of the detected speeds v 1 and v 2, characterized in that the means for determining a valid speed v G comprise a control unit, wherein the control unit is designed to compare a predefined programmable threshold value, v S, in each case with the speeds v 1 and v 2; and is designed to set the valid speed v G = v 1; if the result of the comparison supplies v 1 as less than v S, otherwise setting the valid speed v G = v 2 if the result of the comparison supplies v 1 as being greater than or equal to v S. means for detecting a first speed V 1 of the agricultural machine by building up contact with the ground on which the agricultural machine is travelling, in particular a running wheel/ground wheel with an induction sensor; means for detecting a second speed v 2 of the agricultural machine by means of one or more contactless sensors, in particular a radar sensor and/or a GPS sensor, provided on the agricultural machine; means for determining a valid speed, V G, on the basis of the detected speeds v 1 and v 2, characterized in that the means for determining a valid speed v G comprise a control unit, wherein the control unit is designed to compare a predefined programmable threshold value, v S, in each case with the speeds v 1 and v 2; and is designed to set the valid speed v G = v 1; if the result of the comparison supplies v 1 as less than v S, otherwise setting the valid speed v G = v 2 if the result of the comparison supplies v 1 as being greater than or equal to v S.
A washing method for textile comprising: a. exposing a textile to a wash liquor comprising a DNase; b. completing at least one wash cycle; and c. optionally rinsing the textile. a. exposing a textile to a wash liquor comprising a DNase; b. completing at least one wash cycle; and c. optionally rinsing the textile.
A vacuum-cleaning apparatus with a vacuum-cleaner unit and a filter bag (230, 620, 720), in which the filter bag (230, 620, 720) is configured as a flat bag, as a nonwoven filter bag (230, 620, 720) and as a disposable filter bag (230, 620, 720), the vacuum-cleaner unit comprises a filter-bag accommodating chamber (210, 610, 710) with rigid walls, the filter-bag accommodating chamber (210, 610, 710) comprising an opening which can be closed by a flap and has a predetermined opening area, through which the filter bag (230, 620, 720) can be inserted into the filter-bag accommodating chamber (210, 610, 710), the ratio of the holding volume of the filter bag (230, 620, 720) in the filter-bag accommodating chamber to the maximum holding volume of the filter bag (230, 620, 720) is greater than 0.70, preferably greater than 0.75, highly preferably greater than 0.8; characterized in that the surface of the filter-bag accommodating chamber (210, 610, 710) comprises ribs and/or rib-shaped sections and/or bows and the filter bag (230, 620, 720) consists of a filter material with fold-like surface, wherein the height of the ribs and/or of the rib-shaped sections and/or the bows is greater than the maximum folding height of the fold-like surface.
A short message sending method comprising: a short message service center constructing a message body for bearing short message, containing routing information of the short message in this message body, and sending the message body to a short message mobile switching center gateway; wherein the routing information of the short message refers to an identification or an address of a core network service node, and after receiving the message body, analyzing the message body and judging whether the message body contains the routing information of the short message or not by the short message mobile switching center gateway, if yes, the short message mobile switching center gateway obtaining the routing information in the message body and sending the short message to the core network service node according to the routing information; if not, the short message mobile switching center gateway inquiring the routing information of the short message from a home subscriber information storage network element, and sending the short message to the core network service node according to this routing information. a short message service center constructing a message body for bearing short message, containing routing information of the short message in this message body, and sending the message body to a short message mobile switching center gateway; wherein the routing information of the short message refers to an identification or an address of a core network service node, and after receiving the message body, analyzing the message body and judging whether the message body contains the routing information of the short message or not by the short message mobile switching center gateway, if yes, the short message mobile switching center gateway obtaining the routing information in the message body and sending the short message to the core network service node according to the routing information; if not, the short message mobile switching center gateway inquiring the routing information of the short message from a home subscriber information storage network element, and sending the short message to the core network service node according to this routing information.
An exhaust gas analysis device that analyzes exhaust gas generated as a result of fuel being combusted comprising: a first analyzer that measures a concentration of a component to be measured in the exhaust gas; a second analyzer that measures a concentration of CO 2 in the exhaust gas; a storage portion that stores a hydrogen/carbon ratio, which is a ratio between hydrogen and carbon composing the fuel, or an input receiving portion that receives an input of the hydrogen/carbon ratio; characterised in further comprising: a moisture concentration estimating portion that, based on the measured CO 2 concentration and on the hydrogen/carbon ratio of the fuel, estimates a concentration of moisture in the exhaust gas; and a correcting portion that, based on the estimated moisture concentration, corrects the measured concentration of the component to be measured. a first analyzer that measures a concentration of a component to be measured in the exhaust gas; a second analyzer that measures a concentration of CO 2 in the exhaust gas; a storage portion that stores a hydrogen/carbon ratio, which is a ratio between hydrogen and carbon composing the fuel, or an input receiving portion that receives an input of the hydrogen/carbon ratio; characterised in further comprising: a moisture concentration estimating portion that, based on the measured CO 2 concentration and on the hydrogen/carbon ratio of the fuel, estimates a concentration of moisture in the exhaust gas; and a correcting portion that, based on the estimated moisture concentration, corrects the measured concentration of the component to be measured. a moisture concentration estimating portion that, based on the measured CO 2 concentration and on the hydrogen/carbon ratio of the fuel, estimates a concentration of moisture in the exhaust gas; and a correcting portion that, based on the estimated moisture concentration, corrects the measured concentration of the component to be measured.
A system for controlling qubit gates comprising: a first packaged device comprising a quantum device including a plurality of qubit gates, wherein the quantum device is configured to operate at a cryogenic temperature; and a second packaged device comprising a control system configured to operate at the cryogenic temperature, wherein the first packaged device is coupled to the second packaged device, and wherein the control system comprises: a plurality of charge locking circuits (432, 434), wherein each of the plurality of charge locking circuits is coupled to at least one qubit gate of the plurality of qubit gates via an interconnect such that each of the plurality of charge locking circuits is configured to provide a voltage signal to at least one qubit gate, and a control circuit comprising a finite state machine configured to provide at least one control signal to selectively enable at least one of the plurality of charge locking circuits (432, 434) and to selectively enable a provision of at least one voltage signal to a selected one of the plurality of charge locking circuits (432, 434); wherein the control system further comprises a waveform generator and a register for storing a bit pattern corresponding to a waveform for generation by the waveform generator. a first packaged device comprising a quantum device including a plurality of qubit gates, wherein the quantum device is configured to operate at a cryogenic temperature; and a second packaged device comprising a control system configured to operate at the cryogenic temperature, wherein the first packaged device is coupled to the second packaged device, and wherein the control system comprises: a plurality of charge locking circuits (432, 434), wherein each of the plurality of charge locking circuits is coupled to at least one qubit gate of the plurality of qubit gates via an interconnect such that each of the plurality of charge locking circuits is configured to provide a voltage signal to at least one qubit gate, and a control circuit comprising a finite state machine configured to provide at least one control signal to selectively enable at least one of the plurality of charge locking circuits (432, 434) and to selectively enable a provision of at least one voltage signal to a selected one of the plurality of charge locking circuits (432, 434); a plurality of charge locking circuits (432, 434), wherein each of the plurality of charge locking circuits is coupled to at least one qubit gate of the plurality of qubit gates via an interconnect such that each of the plurality of charge locking circuits is configured to provide a voltage signal to at least one qubit gate, and a control circuit comprising a finite state machine configured to provide at least one control signal to selectively enable at least one of the plurality of charge locking circuits (432, 434) and to selectively enable a provision of at least one voltage signal to a selected one of the plurality of charge locking circuits (432, 434); wherein the control system further comprises a waveform generator and a register for storing a bit pattern corresponding to a waveform for generation by the waveform generator.
An oxytocin peptide in an effective dose for use in treating pain in a subject in need thereof by co-administration with an effective dose of a magnesium salt, wherein co-administration of the oxytocin peptide and the magnesium salt produces a synergistic analgesia, and wherein the oxytocin peptide and the magnesium salt are administered via craniofacial mucosal administration; optionally wherein the oxytocin peptide is human oxytocin (SEQ ID NO: 1).
A method for manufacturing an electronic device, the method comprising: a step of preparing a structure provided with an electronic component and an adhesive film attached to the electronic component; and a step of dicing the electronic component with a dicing blade in a state of being attached to the adhesive film, wherein the adhesive film is provided with a base material layer, an intermediate layer, and an adhesive resin layer in this order, and when a thickness of the base material layer is X 1 and a thickness of the intermediate layer is X 2, a relationship of X 2 > X 1 is satisfied, wherein a tip of the dicing blade has a tapered shape, and wherein, when a tip diameter of the dicing blade is R, a relationship of X 2 > R is satisfied. a step of preparing a structure provided with an electronic component and an adhesive film attached to the electronic component; and a step of dicing the electronic component with a dicing blade in a state of being attached to the adhesive film, wherein the adhesive film is provided with a base material layer, an intermediate layer, and an adhesive resin layer in this order, and when a thickness of the base material layer is X 1 and a thickness of the intermediate layer is X 2, a relationship of X 2 > X 1 is satisfied, wherein a tip of the dicing blade has a tapered shape, and wherein, when a tip diameter of the dicing blade is R, a relationship of X 2 > R is satisfied.
A braking force control structure of a wheeled walking aid, which is pivot mounted on a wheel of a wheeled walking aid, comprising: a wheel housing, a holding space is formed within the wheel housing, and a fixing member, a movable member, damping oil, and a wheel shaft are installed within the holding space; the fixing member and the movable member are respectively disposed within the holding space of the wheel housing, wherein one end of the wheel shaft penetrates the fixing member, and a fixing insert pin is used to penetrate and rigidly fix the fixing member; a wheel outer cover, the wheel outer cover is disposed on the wheel housing, and covers the holding space to form a sealed space, an interior of the sealed space is filled with the damping oil, wherein the wheel outer cover enables another end of the wheel shaft to penetrate therethrough; a ventilation structure, the ventilation structure is disposed on an outer side of the wheel housing or an outer side of the wheel outer cover to enable entering and expelling of air in the sealed space. a wheel housing, a holding space is formed within the wheel housing, and a fixing member, a movable member, damping oil, and a wheel shaft are installed within the holding space; the fixing member and the movable member are respectively disposed within the holding space of the wheel housing, wherein one end of the wheel shaft penetrates the fixing member, and a fixing insert pin is used to penetrate and rigidly fix the fixing member; a wheel outer cover, the wheel outer cover is disposed on the wheel housing, and covers the holding space to form a sealed space, an interior of the sealed space is filled with the damping oil, wherein the wheel outer cover enables another end of the wheel shaft to penetrate therethrough; a ventilation structure, the ventilation structure is disposed on an outer side of the wheel housing or an outer side of the wheel outer cover to enable entering and expelling of air in the sealed space.
A method of preparing one or more cords for a forming process of a belt for suspending and/or driving an elevator car, comprising: arranging a plurality of wires into a one or more cords; directing the one or more cords in a cord travel direction toward a jacket former; directing a 3-10 bar airflow at the one or more cords of the belt to remove volatile contaminants from the one or more cords in a direction away from the jacket former; characterized in that the method further comprises utilizing a vacuum system located between the airflow and the jacket former to remove contaminants dislodged by the airflow. arranging a plurality of wires into a one or more cords; directing the one or more cords in a cord travel direction toward a jacket former; directing a 3-10 bar airflow at the one or more cords of the belt to remove volatile contaminants from the one or more cords in a direction away from the jacket former; characterized in that the method further comprises utilizing a vacuum system located between the airflow and the jacket former to remove contaminants dislodged by the airflow.
A plastic glazing of a window of a vehicle having a light feature to externally emit light from the vehicle, the plastic glazing comprising: a first vehicle window glazing component forming a clear transparent portion of the plastic glazing; a second vehicle window glazing component molded onto the first vehicle window glazing component, forming a colored portion of the plastic glazing, either translucent or opaque; a light unit configured to produce light for the light feature and emit light through a first portion of one or more of the first vehicle window glazing component and the second vehicle window glazing component, the light unit being integrated with the second vehicle window glazing component; and the plastic glazing further comprising a light guide configured to receive light from the light unit, wherein the light guide is configured to deliver the light to an end thereof to provide a light feature internally within the vehicle; and the light unit further configured to direct the light for the light feature to externally emit light from the vehicle through or from at least one of the following: the first vehicle window glazing component and the second vehicle window glazing component, and wherein the plastic glazing is of one-piece molded plastic construction; and wherein the plastic glazing comprises a housing unit attached thereto that is configured to support the light unit, wherein the housing unit comprises a fiber-reinforced polymer. a first vehicle window glazing component forming a clear transparent portion of the plastic glazing; a second vehicle window glazing component molded onto the first vehicle window glazing component, forming a colored portion of the plastic glazing, either translucent or opaque; a light unit configured to produce light for the light feature and emit light through a first portion of one or more of the first vehicle window glazing component and the second vehicle window glazing component, the light unit being integrated with the second vehicle window glazing component; and the plastic glazing further comprising a light guide configured to receive light from the light unit, wherein the light guide is configured to deliver the light to an end thereof to provide a light feature internally within the vehicle; and the light unit further configured to direct the light for the light feature to externally emit light from the vehicle through or from at least one of the following: the first vehicle window glazing component and the second vehicle window glazing component, and wherein the plastic glazing is of one-piece molded plastic construction; and wherein the plastic glazing comprises a housing unit attached thereto that is configured to support the light unit, wherein the housing unit comprises a fiber-reinforced polymer.
An automated method to obtain a radiopharmaceutial composition of 18 F-1-amino-3-fluoro-cyclobutane-1-carboxylic acid ( 18 F-FACBC) wherein said composition; (a) comprises 50-100 mM citrate buffer; and, (b) has a pH of 4.0 - 5.0; wherein said method comprises: (i) reacting with a suitable source of [ 18 F]fluoride a precursor compound of Formula I: wherein: LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; to obtain a compound of Formula II: wherein PG 1 and PG 2 are as defined for Formula I; (ii) reacting said compound of Formula II with a PG 1 deprotecting agent to obtain a compound of Formula III: wherein PG 2 is as defined for Formula I; (iii) reacting said compound of Formula III with a PG 2 deprotecting agent to obtain a crude product containing 18 F-FACBC; (iv) carrying out a purification step comprising passing said crude product through a hydrophilic lipophilic balanced solid phase to obtain [ 18 F]-FACBC, wherein said crude product is not passed through an ion retardation column; and (v) formulating said [ 18 F]-FACBC with citrate buffer to obtain said pharmaceutical composition. (a) comprises 50-100 mM citrate buffer; and, (b) has a pH of 4.0 - 5.0; wherein said method comprises: (i) reacting with a suitable source of [ 18 F]fluoride a precursor compound of Formula I: wherein: LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; to obtain a compound of Formula II: wherein PG 1 and PG 2 are as defined for Formula I; (ii) reacting said compound of Formula II with a PG 1 deprotecting agent to obtain a compound of Formula III: wherein PG 2 is as defined for Formula I; (iii) reacting said compound of Formula III with a PG 2 deprotecting agent to obtain a crude product containing 18 F-FACBC; (iv) carrying out a purification step comprising passing said crude product through a hydrophilic lipophilic balanced solid phase to obtain [ 18 F]-FACBC, wherein said crude product is not passed through an ion retardation column; and (v) formulating said [ 18 F]-FACBC with citrate buffer to obtain said pharmaceutical composition. (i) reacting with a suitable source of [ 18 F]fluoride a precursor compound of Formula I: wherein: LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; to obtain a compound of Formula II: wherein PG 1 and PG 2 are as defined for Formula I; LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; (ii) reacting said compound of Formula II with a PG 1 deprotecting agent to obtain a compound of Formula III: wherein PG 2 is as defined for Formula I; (iii) reacting said compound of Formula III with a PG 2 deprotecting agent to obtain a crude product containing 18 F-FACBC; (iv) carrying out a purification step comprising passing said crude product through a hydrophilic lipophilic balanced solid phase to obtain [ 18 F]-FACBC, wherein said crude product is not passed through an ion retardation column; and (v) formulating said [ 18 F]-FACBC with citrate buffer to obtain said pharmaceutical composition.