mhurhangee/patent-ind-claim-en huggingface dataset:
Gauging device for a fuel distributor comprising a gauge , comprising: • a gauge member having a predefined volume, • a gauge neck provided with a graduation , • a first housing located on the gauge member , which device is characterised by : • a second housing located on the gauge neck , at least one temperature sensor which can be positioned in the first housing in order to measure the temperature T1 of the fuel in the gauge after this gauge has been filled or which can be positioned in the second housing in order to measure the temperature T2 of the fuel when it is introduced into the gauge during a gauging operation, and an electronic device which is connected to the temperature sensor(s) in order to acquire temperatures T1 and T2 and to calculate, based on the temperatures T1 and T2 measured, a correction value E c to be applied to the volume read on the graduation of the gauge, taking into account the temperature deviation between the temperature of the fuel passing through the measurer of the distributor and the temperature of the fuel contained in the gauge. • a gauge member having a predefined volume, • a gauge neck provided with a graduation , • a first housing located on the gauge member , • a second housing located on the gauge neck , at least one temperature sensor which can be positioned in the first housing in order to measure the temperature T1 of the fuel in the gauge after this gauge has been filled or which can be positioned in the second housing in order to measure the temperature T2 of the fuel when it is introduced into the gauge during a gauging operation, and
Industrial truck having wheel arms , loadbearing rollers being disposed in the latter, and an auxiliary apparatus holder , characterized in that the auxiliary apparatus holder is composed of a sheet-metal bearing plate which in the assembled position bears on the wheel arm and externally projects laterally beyond the wheel arm and the loadbearing rollers , and of an external perpendicular sheet-metal plate and internal detents , wherein a duct which is lateral to the wheel arm and into which auxiliary apparatuses can be inserted is formed by the internal detents , the latter bearing on the wheel arm , and by the external perpendicular sheet-metal plate .
A method for configuring sidelink (SL) transmission resource, characterized in comprising: receiving (S706) scheduling information from a network device, wherein the scheduling information is used for configuring the SL transmission resource of a terminal; and obtaining (S708) a start timepoint of a SL transmission of the terminal, wherein the start timepoint is a first one available resource in a resource pool not earlier than a target timepoint; wherein, the target timepoint is associated with a time-related parameter, and the time-related parameter is derived from the terminal or is determined according to the scheduling information, wherein the scheduling information is an RRC signaling, and the RRC signaling is used for configuring a first type of SL configured grant; the time-related parameter is a second timepoint determined according to the RRC signaling; and the second timepoint is determined according to a slot in which the RRC signaling is located. receiving (S706) scheduling information from a network device, wherein the scheduling information is used for configuring the SL transmission resource of a terminal; and obtaining (S708) a start timepoint of a SL transmission of the terminal, wherein the start timepoint is a first one available resource in a resource pool not earlier than a target timepoint; wherein, the target timepoint is associated with a time-related parameter, and the time-related parameter is derived from the terminal or is determined according to the scheduling information, wherein the scheduling information is an RRC signaling, and the RRC signaling is used for configuring a first type of SL configured grant; the time-related parameter is a second timepoint determined according to the RRC signaling; and the second timepoint is determined according to a slot in which the RRC signaling is located.
A hydrogel composition for a mask base comprising: 0.1 to 10 wt% of a cross-linking agent, wherein the cross-linking agent is a mixture of an acryl-based cross-linking polymer and a styrene-based copolymer; wherein the styrene-based copolymer is one or more from the group consisting of an acrylate/ethylhexyl acrylate/hema/styrene copolymer, a butylene/ethylene/styrene copolymer, an ammonium acrylate/methylstyrene/styrene copolymer, a styrene/VP copolymer, and a styrene/acrylate copolymer; 0.2 to 6 wt% of a gelling polymer, which comprises one or more from the group consisting of galactomannan, glucomannan, guar gum, locust bean gum, pluronic, agar, algin, carrageenan, xanthan gum, and gellan; 0.5 to 20 wt% of a polyhydric alcohol; and 70 to 90 wt% of purified water, wherein the mixture of the acryl-based cross-linking polymer and the styrene-based copolymer is added in a weight ratio of 2 : 8 to 8:2, and wherein the composition comprises 0.1 to 10 wt% of a cross-linking agent and 0.2 to 6 wt% of a gelling polymer. 0.1 to 10 wt% of a cross-linking agent, wherein the cross-linking agent is a mixture of an acryl-based cross-linking polymer and a styrene-based copolymer; wherein the styrene-based copolymer is one or more from the group consisting of an acrylate/ethylhexyl acrylate/hema/styrene copolymer, a butylene/ethylene/styrene copolymer, an ammonium acrylate/methylstyrene/styrene copolymer, a styrene/VP copolymer, and a styrene/acrylate copolymer; 0.2 to 6 wt% of a gelling polymer, which comprises one or more from the group consisting of galactomannan, glucomannan, guar gum, locust bean gum, pluronic, agar, algin, carrageenan, xanthan gum, and gellan; 0.5 to 20 wt% of a polyhydric alcohol; and 70 to 90 wt% of purified water, wherein the mixture of the acryl-based cross-linking polymer and the styrene-based copolymer is added in a weight ratio of 2 : 8 to 8:2, and wherein the composition comprises 0.1 to 10 wt% of a cross-linking agent and 0.2 to 6 wt% of a gelling polymer.
A method of manufacturing a medical introducer, comprising: placing an introducer sheath on a mandrel , the sheath having one or more score lines (1 10a. 1 10b) formed on an inner surface thereof; and overmolding an introducer hub onto a proximal end of the introducer sheath ; wherein the mandrel includes a number of surface protrusions such that when the introducer sheath is positioned on the mandrel , each of the surface protrusions contacts one of the score lines (1 10a, 1 10b) formed on the introducer sheath and prevents plastic material from the introducer hub from contacting the score lines . placing an introducer sheath on a mandrel , the sheath having one or more score lines (1 10a. 1 10b) formed on an inner surface thereof; and overmolding an introducer hub onto a proximal end of the introducer sheath ; wherein the mandrel includes a number of surface protrusions such that when the introducer sheath is positioned on the mandrel , each of the surface protrusions contacts one of the score lines (1 10a, 1 10b) formed on the introducer sheath and prevents plastic material from the introducer hub from contacting the score lines .
Method of differentiating and counting the cellular components present in a sample of a biological fluid, characterised in that it comprises: - a primary step of cytological analysis, carried out on its own, conventionally carried out by flow cytometry to obtain a set of primary results enabling all the cellular components of the sample to be differentiated and counted in different populations; - identifying at least one anomaly linked to an identified cellular peculiarity based on the primary results; - simultaneously carrying out the primary step, which is reiterated so as to obtain the set of primary results once more, and a complementary step of cytological analysis of a particular type of cellular components, based on an identified cellular peculiarity, to obtain complementary results enabling at least one cell population or subpopulation of the sample to be differentiated and counted in order to identify said cellular peculiarity, which complementary step of cytological analysis comprises using secondary measuring means enabling at least one cell population or subpopulation present in the sample of biological fluid to be differentiated and counted; and in that the primary step and the complementary step of cytological analysis simultaneously measure different physical characteristics of the same cellular components in the same flow. - a primary step of cytological analysis, carried out on its own, conventionally carried out by flow cytometry to obtain a set of primary results enabling all the cellular components of the sample to be differentiated and counted in different populations; - identifying at least one anomaly linked to an identified cellular peculiarity based on the primary results; - simultaneously carrying out the primary step, which is reiterated so as to obtain the set of primary results once more, and a complementary step of cytological analysis of a particular type of cellular components, based on an identified cellular peculiarity, to obtain complementary results enabling at least one cell population or subpopulation of the sample to be differentiated and counted in order to identify said cellular peculiarity, which complementary step of cytological analysis comprises using secondary measuring means enabling at least one cell population or subpopulation present in the sample of biological fluid to be differentiated and counted; and
A fluorescent material having a composition represented by (Gd 1-α-β-γ R α Ce β Tb γ ) 3+a (Al 1-u-v Ga u Sc v ) 5-b O 12 , wherein: R is at least one of Y and Lu; a, b, α, β, γ, u and v satisfy ranges below: 0≤a≤0.1, 0≤b≤0.1, 0≤α≤0.8, 0.0003≤β≤0.005, 0.02≤γ≤0.2, 0.27≤u≤0.75, and 0≤v≤0.02; a relative density is 99% or more; and an effective atomic number is 35 or more and 60 or less wherein, when R is Y; a, b and α satisfy ranges below: 0<a≤0.1, 0<b≤0.1, and 0.3<α≤0.8; and the effective atomic number is 35 or more and 50 or less and wherein, when R is Lu; a, b and α satisfy ranges below: 0<a≤0.1, 0<b≤0.1, and 0.3<α≤0.8; and the effective atomic number is 53 or more and 57 or less, wherein the effective atomic number is defined by the following expression: Z eff = f 1 × z 1 2.94 + f 2 × z 2 2.94 + f 3 × z 3 2.94 ... 2.94 wherein F 1 , F 2 , F 3 ,....., each represent the electron number ratio of an element with respect to the electron number of all elements of the fluorescent material, and wherein Z 1 , Z 2 , Z 3 each represent the atomic number of an element. R is at least one of Y and Lu; a, b, α, β, γ, u and v satisfy ranges below: 0≤a≤0.1, 0≤b≤0.1, 0≤α≤0.8, 0.0003≤β≤0.005, 0.02≤γ≤0.2, 0.27≤u≤0.75, and 0≤v≤0.02; 0≤a≤0.1, 0≤b≤0.1, 0≤α≤0.8, 0.0003≤β≤0.005, 0.02≤γ≤0.2, 0.27≤u≤0.75, and 0≤v≤0.02; a relative density is 99% or more; and an effective atomic number is 35 or more and 60 or less wherein, when R is Y; a, b and α satisfy ranges below: 0<a≤0.1, 0<b≤0.1, and 0.3<α≤0.8; and 0<a≤0.1, 0<b≤0.1, and 0.3<α≤0.8; and the effective atomic number is 35 or more and 50 or less and wherein, when R is Lu; a, b and α satisfy ranges below: 0<a≤0.1, 0<b≤0.1, and 0.3<α≤0.8; and 0<a≤0.1, 0<b≤0.1, and 0.3<α≤0.8; and the effective atomic number is 53 or more and 57 or less,
A surgical item managing method for a smart operating room, for use by a surgical item managing system for the smart operating room to manage a surgical item used during a surgical procedure, the surgical item comprising a flexible RFID tag , wherein the surgical item managing system for the smart operating room further comprises a scanner , the scanner comprises a plurality of read regions , and each region of the plurality of read regions has positioning coordinates (X, Y), wherein the surgical item managing method comprises the steps of: scanning the flexible RFID tag (901. 901a) with the scanner and receiving a plurality of return signals from the flexible RFID tag (901. 901a) by the plurality of read regions , computing a tag position of the flexible RFID tag (901. 901a) according to different levels of signal strength of the return signals received by the read regions between the flexible RFID tag (901. 901a) and the read regions , to obtain the tag position of the flexible RFID tag ; taking an image of a patient , so as to obtain an image position of the patient ; determining whether a position of the flexible RFID tag and the image position of the patient overlap, so as to determine whether the surgical item corresponding to the flexible RFID tag is in a body of the patient ; and giving a warning if the surgical item is in the body of the patient . scanning the flexible RFID tag (901. 901a) with the scanner and receiving a plurality of return signals from the flexible RFID tag (901. 901a) by the plurality of read regions , computing a tag position of the flexible RFID tag (901. 901a) according to different levels of signal strength of the return signals received by the read regions between the flexible RFID tag (901. 901a) and the read regions , to obtain the tag position of the flexible RFID tag ; taking an image of a patient , so as to obtain an image position of the patient ; determining whether a position of the flexible RFID tag and the image position of the patient overlap, so as to determine whether the surgical item corresponding to the flexible RFID tag is in a body of the patient ; and giving a warning if the surgical item is in the body of the patient .
An isolated immune cell modified to: comprise an altered expression or activity of POU2AF1, GATA3 and/or FOXO1, wherein the endogenous POU2AF1, GATA3 and/or FOXO1 gene has been modified whereby the cell comprises downregulated or abolished expression or activity of POU2AF1, GATA3 and/or FOXO1, or comprise an agent capable of inducibly altering expression or activity of POU2AF1, GATA3 or FOXO1, wherein the agent is capable of inducibly modifying the endogenous POU2AF1, GATA3 and/or FOXO1 gene such as to inducibly downregulate or abolish expression or activity of POU2AF1, GATA3 and/or FOXO1, or comprise a heterologous repressor protein capable of repressing the transcription of the endogenous POU2AF1, GATA3 and/or FOXO1 gene, for use in therapy. comprise an altered expression or activity of POU2AF1, GATA3 and/or FOXO1, wherein the endogenous POU2AF1, GATA3 and/or FOXO1 gene has been modified whereby the cell comprises downregulated or abolished expression or activity of POU2AF1, GATA3 and/or FOXO1, or comprise an agent capable of inducibly altering expression or activity of POU2AF1, GATA3 or FOXO1, wherein the agent is capable of inducibly modifying the endogenous POU2AF1, GATA3 and/or FOXO1 gene such as to inducibly downregulate or abolish expression or activity of POU2AF1, GATA3 and/or FOXO1, or comprise a heterologous repressor protein capable of repressing the transcription of the endogenous POU2AF1, GATA3 and/or FOXO1 gene, for use in therapy.
A control system for a rotary compressor driven by a rotary engine, said control system comprising: A) a first control subsystem comprising: - a performance input arranged to receive a first measure signal indicating performance of said rotary compressor, and - a first control output arranged to provide a first control signal as a function of said first measure signal ; B) a second control subsystem comprising: - a speed input arranged to receive a second measure signal indicating rotation speed of said rotary compressor or said rotary engine, and - a second control output arranged to provide a second control signal as a function of said second measure signal ; characterised in that said control system further comprises: C) a selector comprising: - a first input electrically connected to said first control output , - a second input electrically connected to said second control output , and - a third control output arranged to provide a third control signal to a power control input of said rotary engine, wherein said selector is arranged to select said first control signal or said second control signal as said third control signal to be provided at said third control output . A) a first control subsystem comprising: - a performance input arranged to receive a first measure signal indicating performance of said rotary compressor, and - a first control output arranged to provide a first control signal as a function of said first measure signal ; - a performance input arranged to receive a first measure signal indicating performance of said rotary compressor, and - a first control output arranged to provide a first control signal as a function of said first measure signal ; B) a second control subsystem comprising: - a speed input arranged to receive a second measure signal indicating rotation speed of said rotary compressor or said rotary engine, and - a second control output arranged to provide a second control signal as a function of said second measure signal ; characterised in that said control system further comprises: - a speed input arranged to receive a second measure signal indicating rotation speed of said rotary compressor or said rotary engine, and - a second control output arranged to provide a second control signal as a function of said second measure signal ; characterised in that said control system further comprises: C) a selector comprising: - a first input electrically connected to said first control output , - a second input electrically connected to said second control output , and - a third control output arranged to provide a third control signal to a power control input of said rotary engine, - a first input electrically connected to said first control output , - a second input electrically connected to said second control output , and - a third control output arranged to provide a third control signal to a power control input of said rotary engine,
A method of fabricating a graphene device , comprising: forming a graphene layer on first and second regions of a semiconductor substrate to form a Schottky barrier at the junction of the graphene layer and the semiconductor substrate ; forming a metal layer on the graphene layer ; forming a third electrode on a third region of the semiconductor substrate without an intervening graphene layer between the third electrode and the third region of the semiconductor substrate ; forming a first electrode on the first region of the semiconductor substrate by removing the metal layer from the second region of the semiconductor substrate to expose the graphene layer on the second region of the semiconductor substrate ; forming a gate insulating layer on the semiconductor substrate the graphene layer , the first electrode , and the third electrode ; forming a second electrode on the second region of the semiconductor substrate, on the gate insulating layer between the first electrode and the third electrode ; and forming holes through the gate insulating layer to expose upper portions of the first electrode and the third electrode ; and characterized in that on the first and second regions of the semiconductor substrate the graphene layer is disposed on the semiconductor substrate without an intervening insulating layer such that the graphene layer directly contacts the semiconductor substrate in the first and second regions of the semiconductor substrate. forming a graphene layer on first and second regions of a semiconductor substrate to form a Schottky barrier at the junction of the graphene layer and the semiconductor substrate ; forming a metal layer on the graphene layer ; forming a third electrode on a third region of the semiconductor substrate without an intervening graphene layer between the third electrode and the third region of the semiconductor substrate ; forming a first electrode on the first region of the semiconductor substrate by removing the metal layer from the second region of the semiconductor substrate to expose the graphene layer on the second region of the semiconductor substrate ; forming a gate insulating layer on the semiconductor substrate the graphene layer , the first electrode , and the third electrode ; forming a second electrode on the second region of the semiconductor substrate, on the gate insulating layer between the first electrode and the third electrode ; and forming holes through the gate insulating layer to expose upper portions of the first electrode and the third electrode ; and characterized in that on the first and second regions of the semiconductor substrate the graphene layer is disposed on the semiconductor substrate without an intervening insulating layer such that the graphene layer directly contacts the semiconductor substrate in the first and second regions of the semiconductor substrate.
An excreta treatment sheet for an animal including: a liquid-permeable top sheet that forms a supply surface for excreta, wherein the top sheet has a plurality of open holes running through a thickness direction, wherein each of the open holes is formed so that a hole diameter on a first surface forming the supply surface of the top sheet is larger than a hole diameter on a second surface opposite the first surface , and wherein between adjacent open holes , the top sheet has a gap where the second surface is depressed toward a supply surface side (S1), an absorbent body , and an interlayer sheet situated between them, wherein the interlayer sheet has a liquid permeability of greater than 0 and smaller than that of the top sheet , wherein the interlayer sheet has a slower liquid permeation rate than that of the top sheet , and wherein the interlayer sheet is a fiber sheet formed of hydrophobic synthetic fibers. a liquid-permeable top sheet that forms a supply surface for excreta, wherein the top sheet has a plurality of open holes running through a thickness direction, wherein each of the open holes is formed so that a hole diameter on a first surface forming the supply surface of the top sheet is larger than a hole diameter on a second surface opposite the first surface , and wherein between adjacent open holes , the top sheet has a gap where the second surface is depressed toward a supply surface side (S1), wherein the top sheet has a plurality of open holes running through a thickness direction, wherein each of the open holes is formed so that a hole diameter on a first surface forming the supply surface of the top sheet is larger than a hole diameter on a second surface opposite the first surface , and wherein between adjacent open holes , the top sheet has a gap where the second surface is depressed toward a supply surface side (S1), an absorbent body , and an interlayer sheet situated between them, wherein the interlayer sheet has a liquid permeability of greater than 0 and smaller than that of the top sheet , wherein the interlayer sheet has a slower liquid permeation rate than that of the top sheet , and wherein the interlayer sheet is a fiber sheet formed of hydrophobic synthetic fibers. wherein the interlayer sheet has a liquid permeability of greater than 0 and smaller than that of the top sheet , wherein the interlayer sheet has a slower liquid permeation rate than that of the top sheet , and wherein the interlayer sheet is a fiber sheet formed of hydrophobic synthetic fibers.
Burner plate for a central heating boiler, which burner plate comprises a first pattern of through-holes arranged therein, which through-holes extend between a first, inlet surface and a second, opposite outlet surface of the burner plate, and which holes are configured to allow passage of a combustible gas from the inlet surface to the outlet surface and thus form a permeable surface part of the total outlet surface of the burner plate, wherein a peripheral edge zone of the burner plate has no through-holes , characterized in that and the peripheral edge zone of the burner plate has a depth dimension lying between 30 and 60 mm, wherein the depth dimension is defined from a peripheral edge and perpendicularly thereof in the plane of the outlet surface .