mhurhangee/patent-ind-claim-en huggingface dataset:
Guide system comprising: - a railway rail extending along an axis and having: - an upper element having a rolling surface ; - a lower element having a bearing surface ; - a connecting element between the lower and upper elements, at least one lateral recess being provided between the lower and upper elements on the side of the connecting element; the guide system also comprising: - at least first and second attitude sensors fastened to the rail by an adhesive bond in offset respective positions along said axis of the rail, said attitude sensors being housed at least partially in the lateral recess ; - a processing circuit configured to collect attitude measurements provided by the first and second attitude sensors and configured to calculate a deformed shape of said railway rail with respect to said axis depending on the attitude measurements collected. - a railway rail extending along an axis and having: - an upper element having a rolling surface ; - a lower element having a bearing surface ; - a connecting element between the lower and upper elements, at least one lateral recess being provided between the lower and upper elements on the side of the connecting element; - an upper element having a rolling surface ; - a lower element having a bearing surface ; - a connecting element between the lower and upper elements, at least one lateral recess being provided between the lower and upper elements on the side of the connecting element; - at least first and second attitude sensors fastened to the rail by an adhesive bond in offset respective positions along said axis of the rail, said attitude sensors being housed at least partially in the lateral recess ; - a processing circuit configured to collect attitude measurements provided by the first and second attitude sensors and configured to calculate a deformed shape of said railway rail with respect to said axis depending on the attitude measurements collected.
A continuous casting mold constituted by a water-cooled copper mold, the continuous casting mold comprising: recessed portions disposed partially or entirely in a region of an inner wall surface of the water-cooled copper mold from at least a position located at a meniscus to a position located 20 mm lower than the meniscus; and dissimilar material-filled layers formed by filling the corresponding recessed portions with a metal or nonmetal having a thermal conductivity different from that of a mold copper plate constituting the water-cooled copper mold, wherein the shape of each of the recessed portions at a surface of the mold copper plate includes a curved surface having a curvature in every direction and a flat surface, characterized in that a radius of curvature of the curved surface satisfies the formula below: d / 2 < R ≤ d where d is the minimum opening width (mm) of the recessed portion at the inner wall surface of the mold copper plate, and R is the average radius of curvature (mm) of the recessed portion . recessed portions disposed partially or entirely in a region of an inner wall surface of the water-cooled copper mold from at least a position located at a meniscus to a position located 20 mm lower than the meniscus; and dissimilar material-filled layers formed by filling the corresponding recessed portions with a metal or nonmetal having a thermal conductivity different from that of a mold copper plate constituting the water-cooled copper mold, wherein the shape of each of the recessed portions at a surface of the mold copper plate includes a curved surface having a curvature in every direction and a flat surface, characterized in that a radius of curvature of the curved surface satisfies the formula below: d / 2 < R ≤ d where d is the minimum opening width (mm) of the recessed portion at the inner wall surface of the mold copper plate, and R is the average radius of curvature (mm) of the recessed portion .
A method for obtaining a plurality of nucleic acid vectors containing nucleic acid encoding functional T cell receptors, wherein said method comprises: (a) obtaining a device comprising a plurality of separate locations, wherein each of said separate locations contains cDNA generated from RNA obtained from a single T cell that was sorted into said separate locations, (b) performing a nested amplification procedure using said cDNA of each of said plurality of separate locations as template to obtain a first amplification product and a second amplification product for said cDNA of each of said plurality of separate locations, wherein said first amplification product comprises nucleic acid encoding an α variable (Vα) or γ variable (Vγ) segment, and wherein said second amplification product comprises nucleic acid encoding a β variable (Vβ) or δ variable (Vδ) segment, and (c) assembling said first amplification product and said second amplification product for said cDNA of each of said plurality of separate locations into a nucleic acid vector to obtain an assembled nucleic acid vector for said cDNA of each of said plurality of separate locations, wherein seamless cloning is used to assemble said nucleic acid vectors from said first amplification product and said second amplification product, and wherein said assembled nucleic acid vectors for said cDNA of each of said plurality of separate locations comprise nucleic acid encoding a functional T cell receptor, wherein said functional T cell receptor of each of said assembled nucleic acid vectors comprises (i) a full-length α variable region and a full-length β variable region as present in said single T cell originating said RNA or (ii) a full-length γ variable region and a full-length δ variable region as present in said single T cell originating said RNA. (a) obtaining a device comprising a plurality of separate locations, wherein each of said separate locations contains cDNA generated from RNA obtained from a single T cell that was sorted into said separate locations, (b) performing a nested amplification procedure using said cDNA of each of said plurality of separate locations as template to obtain a first amplification product and a second amplification product for said cDNA of each of said plurality of separate locations, wherein said first amplification product comprises nucleic acid encoding an α variable (Vα) or γ variable (Vγ) segment, and wherein said second amplification product comprises nucleic acid encoding a β variable (Vβ) or δ variable (Vδ) segment, and (c) assembling said first amplification product and said second amplification product for said cDNA of each of said plurality of separate locations into a nucleic acid vector to obtain an assembled nucleic acid vector for said cDNA of each of said plurality of separate locations, wherein seamless cloning is used to assemble said nucleic acid vectors from said first amplification product and said second amplification product, and wherein said assembled nucleic acid vectors for said cDNA of each of said plurality of separate locations comprise nucleic acid encoding a functional T cell receptor,
A vehicle treatment device having a foam generator , comprising a foam generation chamber which contains or consists of a porous filling material , especially a tangled material, and which has at least one inlet for supplying a liquid and a gas as well as an outlet for discharging the foam generated in the foam generation chamber , characterized in that the mean pore diameter (P m ) of a cross-sectional area of the filling material decreases from the inlet to the outlet continuously and/or discretely, in particular in two or three stages, wherein the filling material includes knitted fibers, especially knitted synthetic fibers, and the filling material consists of a plurality of portions arranged directly in series in the axial direction of the foam generation chamber , substantially without any spacing, the cross-sectional areas of which differ by their mean pore diameter (P m ). the mean pore diameter (P m ) of a cross-sectional area of the filling material decreases from the inlet to the outlet continuously and/or discretely, in particular in two or three stages, wherein the filling material includes knitted fibers, especially knitted synthetic fibers, and the filling material consists of a plurality of portions arranged directly in series in the axial direction of the foam generation chamber , substantially without any spacing, the cross-sectional areas of which differ by their mean pore diameter (P m ).
An odor-inhibiting composition comprising: water-absorbing polymer particles; a first odor control agent comprising a chelation agent; and a second odor control agent, wherein the chelation agent is selected from a group consisting of: ethylenediaminetetraacetic acid (EDTA), nitrilotris(methylene)triphosphonic acid, sodium triphosphate pentabasic, N-carboxymethylated polyethyleneimine, and 1-hydroxyethane 1,1-diphosphonic acid, or salts thereof; and the second odor control agent is a membrane lysing compound selected from a group consisting of: 1,2-decanediol, cetrimonium chloride, cocamidopropyl betaine, poly(t-butylaminoethylmethacrylate), behentrimonium, and 1,2-pentanediol. water-absorbing polymer particles; a first odor control agent comprising a chelation agent; and a second odor control agent, wherein the chelation agent is selected from a group consisting of: ethylenediaminetetraacetic acid (EDTA), nitrilotris(methylene)triphosphonic acid, sodium triphosphate pentabasic, N-carboxymethylated polyethyleneimine, and 1-hydroxyethane 1,1-diphosphonic acid, or salts thereof; and the second odor control agent is a membrane lysing compound selected from a group consisting of: 1,2-decanediol, cetrimonium chloride, cocamidopropyl betaine, poly(t-butylaminoethylmethacrylate), behentrimonium, and 1,2-pentanediol.
A method of configuring communication routes in a wireless communications network, the wireless communications network comprising a plurality of nodes which support integrated wireless access and backhaul, IAB, between a core network and user equipment, UE, the method comprising: at an lAB donor node of the plurality of nodes, configuring a first communication route between the donor lAB node and an IAB node of the plurality of nodes to which the UE is attached with a first target quality of service, QoS, and at the lAB donor node, configuring a second communication route between the donor lAB node and the lAB node to which the UE is attached with a second target quality of service, QoS, wherein configuring the first communication route comprises transmitting first route configuration information from the IAB donor node to the downstream lAB nodes which are part of the first communication route, and transmitting second route configuration information from the IAB donor node to the downstream lAB nodes which are part of the second communication route. at an lAB donor node of the plurality of nodes, configuring a first communication route between the donor lAB node and an IAB node of the plurality of nodes to which the UE is attached with a first target quality of service, QoS, and at the lAB donor node, configuring a second communication route between the donor lAB node and the lAB node to which the UE is attached with a second target quality of service, QoS, wherein configuring the first communication route comprises transmitting first route configuration information from the IAB donor node to the downstream lAB nodes which are part of the first communication route, and transmitting second route configuration information from the IAB donor node to the downstream lAB nodes which are part of the second communication route.
Circuitry for driving a variable capacitive load comprising: a variable capacitive load , wherein at any time the variable capacitive load comprises an active subset of a set of capacitive loads and wherein the capacitance of each capacitive load is predetermined; a digital control circuit configured to generate a digital drive signal ; and a drive circuit configured to convert the digital drive signal into an analogue drive signal , the analogue drive signal forming a drive waveform for charging the variable capacitive load, the drive circuit comprising a slewing circuit configured to drive a time dependent voltage component of the drive waveform; and characterised in that the digital control circuit is configured to, for each charging cycle: receive an indication of the active subset of capacitive loads for that charging cycle; determine the variable capacitive load for that charging cycle based on the active subset of capacitive loads for that charging cycle and the predetermined capacitance of each capacitive load; and modify the digital drive signal so as to match the time dependent voltage component of the drive waveform to the variable capacitive load. a variable capacitive load , wherein at any time the variable capacitive load comprises an active subset of a set of capacitive loads and wherein the capacitance of each capacitive load is predetermined; a digital control circuit configured to generate a digital drive signal ; and a drive circuit configured to convert the digital drive signal into an analogue drive signal , the analogue drive signal forming a drive waveform for charging the variable capacitive load, the drive circuit comprising a slewing circuit configured to drive a time dependent voltage component of the drive waveform; and characterised in that the digital control circuit is configured to, for each charging cycle: receive an indication of the active subset of capacitive loads for that charging cycle; determine the variable capacitive load for that charging cycle based on the active subset of capacitive loads for that charging cycle and the predetermined capacitance of each capacitive load; and modify the digital drive signal so as to match the time dependent voltage component of the drive waveform to the variable capacitive load. receive an indication of the active subset of capacitive loads for that charging cycle; determine the variable capacitive load for that charging cycle based on the active subset of capacitive loads for that charging cycle and the predetermined capacitance of each capacitive load; and modify the digital drive signal so as to match the time dependent voltage component of the drive waveform to the variable capacitive load.
A composition comprising glucan-encapsulated siRNA directed against a region of cannabinoid receptor 1 (CNR1) comprised within the open reading frame of CNR1 (SEQ ID NO: 13) corresponding to SEQ ID NOs: 14-18 and 20-22 for use in the treatment or prevention of type 2 diabetes mellitus in a subject wherein the glucan encapsulation results in uptake of the siRNA by phagocytic macrophages upon administration to the subject.
A tool for inserting into a cavity, the tool comprising: a plurality of segments moveably coupled to one another, each segment moveable relative to an adjacent segment between a bent position and a coupled position, the plurality of segments comprising a first segment , the first segment comprising a core formed of a first material; and a shell formed of a second material characterised in that the tool comprises a guide feature, a drive feature, a line guide , or a combination thereof; wherein the first material defines a greater stiffness than the second material, wherein the shell comprises the guide feature, wherein the guide feature is a segment bearing feature, wherein the segment bearing feature is a segment sliding plain bearing feature , and wherein the tool further comprises: an insertion tube comprising a tube sliding plain bearing feature configured to interact with the segment sliding plain bearing feature , wherein the tube sliding plain bearing feature is formed of a third material defining a third material hardness greater than a second material hardness of the second material. a plurality of segments moveably coupled to one another, each segment moveable relative to an adjacent segment between a bent position and a coupled position, the plurality of segments comprising a first segment , the first segment comprising a core formed of a first material; and a shell formed of a second material a core formed of a first material; and a shell formed of a second material characterised in that the tool comprises a guide feature, a drive feature, a line guide , or a combination thereof; wherein the first material defines a greater stiffness than the second material, a guide feature, a drive feature, a line guide , or a combination thereof; wherein the first material defines a greater stiffness than the second material, wherein the shell comprises the guide feature, wherein the guide feature is a segment bearing feature, wherein the segment bearing feature is a segment sliding plain bearing feature , and wherein the tool further comprises: an insertion tube comprising a tube sliding plain bearing feature configured to interact with the segment sliding plain bearing feature , wherein the tube sliding plain bearing feature is formed of a third material defining a third material hardness greater than a second material hardness of the second material.
A motor control device electrically connectable to an AC motor , the motor control device comprising: a plurality of switching devices (26, 28, 30; 68, 70, 72) comprising at least one switch corresponding to a respective phase of the AC motor ; and a controller (22; 86) programmed to: define a motor start-up function based on a rated current of the AC motor , the motor start-up function comprising an initial torque factor and an initial ramp time; trigger the plurality of switching devices (26, 28, 30; 68, 70, 72) according to the motor start-up function to inject current into the AC motor during a first trial run; monitor operating conditions of at least one of the AC motor and the motor control device during the first trial run; modify the motor start-up function based on the monitored operating conditions; and trigger the plurality of switching devices (26, 28, 30; 68, 70, 72) according to the modified motor start-up function to inject current into the AC motor during a subsequent trial run. a plurality of switching devices (26, 28, 30; 68, 70, 72) comprising at least one switch corresponding to a respective phase of the AC motor ; and a controller (22; 86) programmed to: define a motor start-up function based on a rated current of the AC motor , the motor start-up function comprising an initial torque factor and an initial ramp time; trigger the plurality of switching devices (26, 28, 30; 68, 70, 72) according to the motor start-up function to inject current into the AC motor during a first trial run; monitor operating conditions of at least one of the AC motor and the motor control device during the first trial run; modify the motor start-up function based on the monitored operating conditions; and trigger the plurality of switching devices (26, 28, 30; 68, 70, 72) according to the modified motor start-up function to inject current into the AC motor during a subsequent trial run. define a motor start-up function based on a rated current of the AC motor , the motor start-up function comprising an initial torque factor and an initial ramp time; trigger the plurality of switching devices (26, 28, 30; 68, 70, 72) according to the motor start-up function to inject current into the AC motor during a first trial run; monitor operating conditions of at least one of the AC motor and the motor control device during the first trial run; modify the motor start-up function based on the monitored operating conditions; and trigger the plurality of switching devices (26, 28, 30; 68, 70, 72) according to the modified motor start-up function to inject current into the AC motor during a subsequent trial run.
A data sending method, comprising: obtaining (S301), according to a channel matrix of each of paired users, precoding matrix of the paired users, wherein the paired users are a set of multiple users sharing the same time-frequency resource and receiving and sending data on the same time-frequency resource simultaneously; performing (S302) layer mapping on service data of the paired users, to obtain layered service data; precoding (S303) the layered service data by using the precoding matrix, to obtain precoded output data; mapping (S304) the precoded output data and a common pilot sequence to a port of an antenna array together, wherein the common pilot sequence is the same pilot signal sequence sent by a base station on a specific time-frequency resource to each user in the paired users and is for channel estimation by each user when user data is demodulated; and sending (S305) the data mapped to the port of the antenna array to each user by using the antenna array. obtaining (S301), according to a channel matrix of each of paired users, precoding matrix of the paired users, wherein the paired users are a set of multiple users sharing the same time-frequency resource and receiving and sending data on the same time-frequency resource simultaneously; performing (S302) layer mapping on service data of the paired users, to obtain layered service data; precoding (S303) the layered service data by using the precoding matrix, to obtain precoded output data; mapping (S304) the precoded output data and a common pilot sequence to a port of an antenna array together, wherein the common pilot sequence is the same pilot signal sequence sent by a base station on a specific time-frequency resource to each user in the paired users and is for channel estimation by each user when user data is demodulated; and sending (S305) the data mapped to the port of the antenna array to each user by using the antenna array.
A modified conjugated diene-based polymer, comprising: 240 to 470 ppm of phosphor (P) based on a weight of the modified conjugated diene-based polymer; 490 to 900 ppm of sulfur (S) based on a weight of the modified conjugated diene-based polymer; and 450 to 1100 ppm of chlorine (CI) based on a weight of the modified conjugated diene-based polymer, wherein the modified conjugated diene-based polymer is prepared by a method including a step of polymerizing a conjugated diene-based monomer in the presence of a rare earth metal catalyst composition to prepare an active polymer (step 1); and a step of adding an additive including a compound represented by the following Formula 1 and sulfur chloride and modifying (step 2): wherein, Rx is an aliphatic hydrocarbonyl group of 1 to 30 carbon atoms, an alkylaryl group of 7 to 30 carbon atoms or an arylalkyl group of 7 to 30 carbon atoms, Ry is a hydroxyl group (-OH), an aliphatic hydrocarbonyl group of 1 to 30 carbon atoms, an alkylaryl group of 7 to 30 carbon atoms or an arylalkyl group of 7 to 30 carbon atoms, and n is an integer of 1 to 20. 240 to 470 ppm of phosphor (P) based on a weight of the modified conjugated diene-based polymer; 490 to 900 ppm of sulfur (S) based on a weight of the modified conjugated diene-based polymer; and 450 to 1100 ppm of chlorine (CI) based on a weight of the modified conjugated diene-based polymer, wherein the modified conjugated diene-based polymer is prepared by a method including a step of polymerizing a conjugated diene-based monomer in the presence of a rare earth metal catalyst composition to prepare an active polymer (step 1); and a step of adding an additive including a compound represented by the following Formula 1 and sulfur chloride and modifying (step 2): wherein, Rx is an aliphatic hydrocarbonyl group of 1 to 30 carbon atoms, an alkylaryl group of 7 to 30 carbon atoms or an arylalkyl group of 7 to 30 carbon atoms, Ry is a hydroxyl group (-OH), an aliphatic hydrocarbonyl group of 1 to 30 carbon atoms, an alkylaryl group of 7 to 30 carbon atoms or an arylalkyl group of 7 to 30 carbon atoms, and n is an integer of 1 to 20.