mhurhangee/ep-ind-claims huggingface dataset:
A fragrance material holding member (200, 201, 202), comprising: an airflow passage (220, 220a, 220b, 220c) through which air supplied from an airflow source passes, the airflow passage (220, 220a, 220b, 220c) being provided to penetrate the fragrance material holding member (200, 201, 202); and a holding space (230, 230a, 230b) that branches at a branch part from the airflow passage (220, 220a, 220b, 220c) and holds a fragrance material, wherein the branch part is located on an outlet side of the airflow passage (220, 220a, 220b, 220c); wherein an end part of the holding space (230, 230a, 230b) opposite to the branch part is separated from the outside; wherein the fragrance material holding member is configured such that a vaporized component of the fragrance material held by the holding space (230, 230a, 230b) flows out to the airflow passage (220, 220a, 220b, 220c) via the branch part; and wherein a surface increasing part having a shape with rotational symmetry around a central axis of the airflow passage is provided in the airflow passage and fragrance material adheres to a surface of the surface increasing part, such that a surface inside the airflow passage is increased for increasing an amount of fragrance material held by the fragrance material holding member. an airflow passage (220, 220a, 220b, 220c) through which air supplied from an airflow source passes, the airflow passage (220, 220a, 220b, 220c) being provided to penetrate the fragrance material holding member (200, 201, 202); and a holding space (230, 230a, 230b) that branches at a branch part from the airflow passage (220, 220a, 220b, 220c) and holds a fragrance material, wherein the branch part is located on an outlet side of the airflow passage (220, 220a, 220b, 220c); wherein an end part of the holding space (230, 230a, 230b) opposite to the branch part is separated from the outside; wherein the fragrance material holding member is configured such that a vaporized component of the fragrance material held by the holding space (230, 230a, 230b) flows out to the airflow passage (220, 220a, 220b, 220c) via the branch part; and wherein a surface increasing part having a shape with rotational symmetry around a central axis of the airflow passage is provided in the airflow passage and fragrance material adheres to a surface of the surface increasing part, such that a surface inside the airflow passage is increased for increasing an amount of fragrance material held by the fragrance material holding member.
A method for preparing a cell population enriched for CD49f-positive adult stem cells, which exhibit an improved homogeneity as compared to stem cells prior to culturing, comprising: (a) a first step of culturing adult stem cells derived from umbilical cord blood, adipose tissue or bone marrow under non-adhesive culture conditions to obtain a cell population which forms spheres by spherical growth, and (b) a second step of isolating CD49f-positive adult stem cells from said spheres. (a) a first step of culturing adult stem cells derived from umbilical cord blood, adipose tissue or bone marrow under non-adhesive culture conditions to obtain a cell population which forms spheres by spherical growth, and (b) a second step of isolating CD49f-positive adult stem cells from said spheres.
A method for processing charging information, comprising: acquiring, by a mobility management device, a public land mobile network, PLMN, identifier corresponding to a network name displayed by a user equipment, UE; transmitting, in a request message related to a service node of a current serving network, the PLMN identifier corresponding to the network name displayed by the user equipment to a call detail record information generating device, wherein the PLMN identifier corresponding to the network name displayed by the UE is different from a PLMN identifier of the current serving network, so that user call detail record information generated by the call detail record information generating device comprises the PLMN identifier corresponding to the network name displayed by the user equipment. acquiring, by a mobility management device, a public land mobile network, PLMN, identifier corresponding to a network name displayed by a user equipment, UE; transmitting, in a request message related to a service node of a current serving network, the PLMN identifier corresponding to the network name displayed by the user equipment to a call detail record information generating device, wherein the PLMN identifier corresponding to the network name displayed by the UE is different from a PLMN identifier of the current serving network, so that user call detail record information generated by the call detail record information generating device comprises the PLMN identifier corresponding to the network name displayed by the user equipment.
A syringe comprising: a barrel having a distal end, a proximal end, and a sidewall extending substantially circumferentially between the distal end and the proximal end along a longitudinal axis; characterized in further comprising at least one engagement member protruding from a terminal portion of the sidewall in a proximal direction along the longitudinal axis, the at least one engagement member tapering axially in a direction from the distal end toward the proximal end, wherein the at least one engagement member is configured for engagement with a locking mechanism of a fluid injector to releasably position the syringe with a syringe port of the fluid injector, the locking mechanism having a plurality of interacting surfaces (85A, 85B), wherein a taper of the at least one engagement member is configured to slide along a corresponding tapered surface of the plurality of interacting surfaces (85A, 85B) to rotationally guide the syringe into self-orientation alignment with the locking mechanism during proximal insertion of the syringe into the syringe port and slides along the corresponding tapered surface of the plurality of interacting surfaces (85A, 85B) to disengage the locking mechanism and axially eject the syringe upon rotation of the syringe. a barrel having a distal end, a proximal end, and a sidewall extending substantially circumferentially between the distal end and the proximal end along a longitudinal axis; characterized in further comprising at least one engagement member protruding from a terminal portion of the sidewall in a proximal direction along the longitudinal axis, the at least one engagement member tapering axially in a direction from the distal end toward the proximal end, wherein the at least one engagement member is configured for engagement with a locking mechanism of a fluid injector to releasably position the syringe with a syringe port of the fluid injector, the locking mechanism having a plurality of interacting surfaces (85A, 85B), wherein a taper of the at least one engagement member is configured to slide along a corresponding tapered surface of the plurality of interacting surfaces (85A, 85B) to rotationally guide the syringe into self-orientation alignment with the locking mechanism during proximal insertion of the syringe into the syringe port and slides along the corresponding tapered surface of the plurality of interacting surfaces (85A, 85B) to disengage the locking mechanism and axially eject the syringe upon rotation of the syringe.
A component mounting line, in which multiple component mounting machines are arranged along a conveyance path of a circuit board and components supplied from a feeder setting base of each component mounting machine are mounted on the circuit board by the multiple component mounting machines, the component mounting line comprising: an automatic exchanging device configured to move alongside a front face of the component mounting line in the arrangement direction of the multiple component mounting machines to set and/or remove feeders of the feeder setting base of each component mounting machine, and a control device configured to control movement of the automatic exchanging device, characterized in that the control device is configured to monitor an operational state of the multiple component mounting machines, and when an error requiring an operator's work occurs in any of the component mounting machines, the control device is configured to set a predetermined range including the front side of the component mounting machine in which the error occurred as a movement prohibited area of the automatic exchanging device, and to cause the automatic exchanging device to move outside of the movement prohibited area until completion of the work is determined. an automatic exchanging device configured to move alongside a front face of the component mounting line in the arrangement direction of the multiple component mounting machines to set and/or remove feeders of the feeder setting base of each component mounting machine, and a control device configured to control movement of the automatic exchanging device, characterized in that the control device is configured to monitor an operational state of the multiple component mounting machines, and when an error requiring an operator's work occurs in any of the component mounting machines, the control device is configured to set a predetermined range including the front side of the component mounting machine in which the error occurred as a movement prohibited area of the automatic exchanging device, and to cause the automatic exchanging device to move outside of the movement prohibited area until completion of the work is determined.
An apparatus, comprising: memory to store instructions; and processing circuitry, coupled to the memory, operable to execute the instructions, that when executed, cause the processing circuitry to: receive an inference model for execution; convert the inference model to a computational graph; identify one or more operations from the computational graph; determine whether a computational cost associated with each of the one or more operations is stored in at least one data storage device; and partition the computational graph based on a determination that the computational cost for each of the one or more operations is stored in the at least one data storage device, or profile the computational graph based on a determination that the computational cost for each of the one or more operations is not stored in the at least one data storage device. memory to store instructions; and processing circuitry, coupled to the memory, operable to execute the instructions, that when executed, cause the processing circuitry to: receive an inference model for execution; convert the inference model to a computational graph; identify one or more operations from the computational graph; determine whether a computational cost associated with each of the one or more operations is stored in at least one data storage device; and partition the computational graph based on a determination that the computational cost for each of the one or more operations is stored in the at least one data storage device, or profile the computational graph based on a determination that the computational cost for each of the one or more operations is not stored in the at least one data storage device. receive an inference model for execution; convert the inference model to a computational graph; identify one or more operations from the computational graph; determine whether a computational cost associated with each of the one or more operations is stored in at least one data storage device; and partition the computational graph based on a determination that the computational cost for each of the one or more operations is stored in the at least one data storage device, or profile the computational graph based on a determination that the computational cost for each of the one or more operations is not stored in the at least one data storage device.
Process for reducing and/or maintaining the total viable count of bacteria in an aqueous mineral preparation comprising a step of: (a) adding at least one aldehyde-containing and/or aldehyde-releasing and/or phenolic and/or isothiazoline biocide to said aqueous mineral preparation; characterised in that: - said mineral comprises at least one of: a ground natural calcium carbonate, a precipitated calcium carbonate, a dolomite, a surface-reacted calcium carbonate, or a mixture thereof; - said process comprises a step (b), which may be simultaneous and/or distinct relative to step (a), of adding at least one monoalcohol primary alkanol amine to said aqueous mineral preparation; - said biocide(s) are added to said aqueous preparation in an amount corresponding to from 90 to 1 350 ppm based on the weight of the aqueous phase of said aqueous preparation; and - said monoalcohol primary alkanol amine(s) are added to said aqueous preparation in an amount corresponding to from 600 to 1 200 ppm based on the weight of the aqueous phase of said aqueous preparation, wherein the at least one monoalcohol primary alkanol amine is selected from 2-amino-2-methyl-1-propanol, 2-aminoethanol and mixtures thereof. (a) adding at least one aldehyde-containing and/or aldehyde-releasing and/or phenolic and/or isothiazoline biocide to said aqueous mineral preparation; characterised in that: - said mineral comprises at least one of: a ground natural calcium carbonate, a precipitated calcium carbonate, a dolomite, a surface-reacted calcium carbonate, or a mixture thereof; - said process comprises a step (b), which may be simultaneous and/or distinct relative to step (a), of adding at least one monoalcohol primary alkanol amine to said aqueous mineral preparation; - said biocide(s) are added to said aqueous preparation in an amount corresponding to from 90 to 1 350 ppm based on the weight of the aqueous phase of said aqueous preparation; and - said monoalcohol primary alkanol amine(s) are added to said aqueous preparation in an amount corresponding to from 600 to 1 200 ppm based on the weight of the aqueous phase of said aqueous preparation, wherein the at least one monoalcohol primary alkanol amine is selected from 2-amino-2-methyl-1-propanol, 2-aminoethanol and mixtures thereof. - said mineral comprises at least one of: a ground natural calcium carbonate, a precipitated calcium carbonate, a dolomite, a surface-reacted calcium carbonate, or a mixture thereof; - said process comprises a step (b), which may be simultaneous and/or distinct relative to step (a), of adding at least one monoalcohol primary alkanol amine to said aqueous mineral preparation; - said biocide(s) are added to said aqueous preparation in an amount corresponding to from 90 to 1 350 ppm based on the weight of the aqueous phase of said aqueous preparation; and - said monoalcohol primary alkanol amine(s) are added to said aqueous preparation in an amount corresponding to from 600 to 1 200 ppm based on the weight of the aqueous phase of said aqueous preparation, wherein the at least one monoalcohol primary alkanol amine is selected from 2-amino-2-methyl-1-propanol, 2-aminoethanol and mixtures thereof.
A process for carrying out an equilibrium limited reaction, the process comprising providing reactants to a reactor system, allowing reaction to occur and recovering product, wherein the reactor system comprises a reactor having a shell comprising: one or more reactor tubes located within the shell, said reactor tube or tubes comprising a plurality of catalyst receptacles (34, 34a) containing catalyst; means for providing a heat transfer fluid to the reactor shell such that the heat transfer fluid contacts the tube or tubes; an inlet for providing reactants to the reactor tubes; and an outlet for recovering products from the reactor tubes; wherein the plurality of catalyst receptacles (34, 34a) containing catalyst within a tube comprises catalyst receptacles (34, 34a) containing catalyst of at least two configurations in that the catalyst receptacles (34, 34a) containing catalyst differ in the type of catalyst within the receptacle, the amount of catalyst within the receptacle, the amount of heat removed from the receptacle or combinations of these; wherein the configurations of the catalyst receptacles (34, 34a) are such that the temperature of the reaction is within 100°C of the maximum rate locus of maximum reaction rate with respect to product as a function of conversion. one or more reactor tubes located within the shell, said reactor tube or tubes comprising a plurality of catalyst receptacles (34, 34a) containing catalyst; means for providing a heat transfer fluid to the reactor shell such that the heat transfer fluid contacts the tube or tubes; an inlet for providing reactants to the reactor tubes; and an outlet for recovering products from the reactor tubes; wherein the plurality of catalyst receptacles (34, 34a) containing catalyst within a tube comprises catalyst receptacles (34, 34a) containing catalyst of at least two configurations in that the catalyst receptacles (34, 34a) containing catalyst differ in the type of catalyst within the receptacle, the amount of catalyst within the receptacle, the amount of heat removed from the receptacle or combinations of these; wherein the configurations of the catalyst receptacles (34, 34a) are such that the temperature of the reaction is within 100°C of the maximum rate locus of maximum reaction rate with respect to product as a function of conversion.
A pipeline pig signal device comprising: a trigger cavity internal to the pipeline pig signal device and housing a magnet and at least a portion of a trigger and a sealing means and a pre-injected incompressible fluid; the sealing means located toward a lower end of the trigger cavity and above the housed portion of the trigger, the pre-injected incompressible fluid surrounds the magnet, the sealing means providing for flexing, the sealing means arranged to prevent pipeline debris from coming into contact with the pre-injected incompressible fluid and magnet by preventing pipeline debris from entering a portion of the trigger cavity located above the sealing means. a trigger cavity internal to the pipeline pig signal device and housing a magnet and at least a portion of a trigger and a sealing means and a pre-injected incompressible fluid; the sealing means located toward a lower end of the trigger cavity and above the housed portion of the trigger, the pre-injected incompressible fluid surrounds the magnet, the sealing means providing for flexing, the sealing means arranged to prevent pipeline debris from coming into contact with the pre-injected incompressible fluid and magnet by preventing pipeline debris from entering a portion of the trigger cavity located above the sealing means.
Charging device for charging a battery of a motor vehicle having with an electric drive motor, comprising - an inductor, wherein the inductor is formed by at least one winding of the electric drive motor, - a drive converter, which in the drive mode of the motor vehicle converts a DC voltage of the battery for the electric drive motor and has an DC link center, wherein the inductor together with the drive converter serves as a step-up converter for a charging operation of the battery, characterized in that the charging device has a controllable switching device which is adapted to charge and/or discharge the DC link center to a voltage, wherein the switching device is adapted to connect the DC link center with the positive pole and/or with the negative pole of the battery. - an inductor, wherein the inductor is formed by at least one winding of the electric drive motor, - a drive converter, which in the drive mode of the motor vehicle converts a DC voltage of the battery for the electric drive motor and has an DC link center, wherein the inductor together with the drive converter serves as a step-up converter for a charging operation of the battery, characterized in that the charging device has a controllable switching device which is adapted to charge and/or discharge the DC link center to a voltage, wherein the switching device is adapted to connect the DC link center with the positive pole and/or with the negative pole of the battery.
A preparation method of a coated alloy wire, comprising the following steps: S1: performing continuous heat treatment on an alloy wire rod, and then performing surface treatment to obtain an alloy core; S2: continuously extruding a coating metal layer onto a surface of the alloy core to form a coated wire; S3: performing bimetallic synchronous drawing on the coated wire to prepare the coated alloy wire; wherein in the step S1, the continuous heat treatment has a heating temperature of 680-820°C and a wire-feeding speed of 1.5-5m/min, the alloy wire rod is continuously fed into a heating furnace device, and the alloy wire rod comprises invar steel wire rod or iron-nickel alloy wire rod; wherein in the step S1, the continuous heat treatment is controlled so that the alloy wire rod after the continuous heat treatment has one or more of the following properties: tensile strength ≥ 1000MPa, elongation ≥ 10%, carbide size ≤ 6 μm, and wire tensile strength difference ≤20MPa. S1: performing continuous heat treatment on an alloy wire rod, and then performing surface treatment to obtain an alloy core; S2: continuously extruding a coating metal layer onto a surface of the alloy core to form a coated wire; S3: performing bimetallic synchronous drawing on the coated wire to prepare the coated alloy wire; wherein in the step S1, the continuous heat treatment has a heating temperature of 680-820°C and a wire-feeding speed of 1.5-5m/min, the alloy wire rod is continuously fed into a heating furnace device, and the alloy wire rod comprises invar steel wire rod or iron-nickel alloy wire rod; wherein in the step S1, the continuous heat treatment is controlled so that the alloy wire rod after the continuous heat treatment has one or more of the following properties: tensile strength ≥ 1000MPa, elongation ≥ 10%, carbide size ≤ 6 μm, and wire tensile strength difference ≤20MPa.
An infrared-sensitive color developing composition comprising a compound represented by Formula (Component A), wherein, in Formula, each of R 1 and R 8 independently represents an alkyl group, each of R 2, R 3, R 4, R 5, R 6, and R 7 independently represents a hydrogen atom or an alkyl group, R 4 and R 5 may be linked together and thus form a ring, each of Q 1 and Q 2 independently represents -NR 0 -, -S-, -O-, or a dialkylmethylene group, R 0 represents a hydrogen atom, an alkyl group, or an aryl group, each of T 1 and T 2 independently represents an aromatic ring or a heterocyclic aromatic ring, X 1 represents a divalent linking group, A - represents a counter anion, each of R 9, R 10, R 11, and R 12 independently represents an alkyl group or an aryl group, each of R 13 and R 14 independently represents a hydrogen atom or a monovalent substituent, R 13 and R 14 may be bonded together and thus form a ring, each of R 15 and R 16 independently represents a monovalent substituent, and each of n1 and n2 independently represents an integer of 0 to 3.
An organic-inorganic composite material, comprising a resin composed of a triazine ring and obtained by thermally curing a varnish containing a mixture of a layered clay mineral (clay) subjected to interlayer modification with a curing catalyst for a cyanate ester compound and a cyanate ester compound, wherein the amount of the clay is from 0.1 to 12 wt% of the amount of the cyanate ester compound.
A process for sealing a non-oriented polyethylene film to a substrate, preferably to a polyethylene film substrate, comprising bringing said polyethylene film and said substrate into contact and subjecting at least a part of the contact area to ultrasound so as to form a seal between said film and said substrate; wherein said polyethylene film comprises a multimodal linear low density polyethylene copolymer comprising ethylene and at least one C3-20 alpha olefin comonomer and having a density of 905 to 940 kg/m 3.