mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising at least three fusion proteins that each activate a Toll-like Receptor 5, wherein: (a) a first fusion protein includes a first flagellin and a first influenza A viral hemagglutinin antigen that has an isoelectric point greater than 6.0 fused to a portion of the first flagellin; (b) a second fusion protein includes a second flagellin and a second influenza A viral hemagglutinin antigen that is distinct from the first influenza A viral hemagglutinin antigen and that has an isoelectric point greater than 7.0 fused to a portion of the second flagellin; and (c) a third fusion protein includes a third flagellin and a first influenza B viral hemagglutinin antigen that has an isolectric point greater than 8.0 and is fused to at least one loop of domain 3 of the third flagellin. (a) a first fusion protein includes a first flagellin and a first influenza A viral hemagglutinin antigen that has an isoelectric point greater than 6.0 fused to a portion of the first flagellin; (b) a second fusion protein includes a second flagellin and a second influenza A viral hemagglutinin antigen that is distinct from the first influenza A viral hemagglutinin antigen and that has an isoelectric point greater than 7.0 fused to a portion of the second flagellin; and (c) a third fusion protein includes a third flagellin and a first influenza B viral hemagglutinin antigen that has an isolectric point greater than 8.0 and is fused to at least one loop of domain 3 of the third flagellin.
A computer-implemented method for training a deep convolutional neural network to provide a patient radiation treatment plan, the method comprising: collecting patient data from a group of patients, the patient data including at least one image of patient anatomy and a prior treatment plan, wherein the treatment plan includes predetermined machine parameters; and training a deep convolution neural network for regression by using the prior treatment plans and the corresponding collected patient data to determine a new treatment plan. collecting patient data from a group of patients, the patient data including at least one image of patient anatomy and a prior treatment plan, wherein the treatment plan includes predetermined machine parameters; and training a deep convolution neural network for regression by using the prior treatment plans and the corresponding collected patient data to determine a new treatment plan.
A hybrid vessel propulsion apparatus comprising: an engine; an electric motor; a propeller shaft that is configured to rotate together with a propeller; a first transmission path that is configured to transmit power of the engine to the propeller shaft; a second transmission path that is configured to transmit power of the electric motor to the propeller shaft without transmitting the power through the first transmission path; and a third transmission path that is configured to transmit a portion of the power of the engine that has been transmitted from the first transmission path to the propeller shaft to the electric motor in order for the electric motor to generate electricity, a first clutch that includes a first cut-off state in which power transmission of the first transmission path is cut off and a first connection state in which the power transmission of the first transmission path is permitted; wherein the hybrid vessel propulsion apparatus further comprises: a second clutch that includes a second cut-off state in which both power transmission of the second transmission path and power transmission of the third transmission path are cut off, a second connection state in which the power transmission of the third transmission path is cut off and the power transmission of the second transmission path is permitted, and a third connection state in which the power transmission of the second transmission path is cut off and the power transmission of the third transmission path is permitted. an engine; an electric motor; a propeller shaft that is configured to rotate together with a propeller; a first transmission path that is configured to transmit power of the engine to the propeller shaft; a second transmission path that is configured to transmit power of the electric motor to the propeller shaft without transmitting the power through the first transmission path; and a third transmission path that is configured to transmit a portion of the power of the engine that has been transmitted from the first transmission path to the propeller shaft to the electric motor in order for the electric motor to generate electricity, a first clutch that includes a first cut-off state in which power transmission of the first transmission path is cut off and a first connection state in which the power transmission of the first transmission path is permitted; wherein the hybrid vessel propulsion apparatus further comprises: a second clutch that includes a second cut-off state in which both power transmission of the second transmission path and power transmission of the third transmission path are cut off, a second connection state in which the power transmission of the third transmission path is cut off and the power transmission of the second transmission path is permitted, and a third connection state in which the power transmission of the second transmission path is cut off and the power transmission of the third transmission path is permitted.
A system, comprising: a client system in communication with a network; a secondary storage system in communication with the network; and a supervisor system in communication with the network, wherein the supervisor system is configured to assign a unique identifier to a first node system; and to place the first node system in communication with the network in a location computed by using hashing, wherein the client system is configured to store a data object on the first node system, characterized in that the supervisor system is configured to detect overlap of data storage on the first and second node systems; and wherein the supervisor system is configured to send correct data object range information to the first and second node systems. a client system in communication with a network; a secondary storage system in communication with the network; and a supervisor system in communication with the network, wherein the supervisor system is configured to assign a unique identifier to a first node system; and to place the first node system in communication with the network in a location computed by using hashing, wherein the client system is configured to store a data object on the first node system, the supervisor system is configured to detect overlap of data storage on the first and second node systems; and wherein the supervisor system is configured to send correct data object range information to the first and second node systems.
A solar cell sealing film, comprising: an ethylene-unsaturated ester copolymer, a crosslinker, and crosslinking auxiliary agents, wherein the solar cell sealing film comprises a polyfunctional (meth)acrylate having 5 or more (meth)acryloyl groups in the molecule and triallyl isocyanurate as the crosslinking auxiliary agents, and a mass ratio of the polyfunctional (meth)acrylate to the triallyl isocyanurate is 0.06 to 0.3. an ethylene-unsaturated ester copolymer, a crosslinker, and crosslinking auxiliary agents, wherein the solar cell sealing film comprises a polyfunctional (meth)acrylate having 5 or more (meth)acryloyl groups in the molecule and triallyl isocyanurate as the crosslinking auxiliary agents, and a mass ratio of the polyfunctional (meth)acrylate to the triallyl isocyanurate is 0.06 to 0.3.
A method of manufacturing a repeating array of blanks for forming packaging articles, the method comprising the steps of: a) continuously feeding a web of substrate along a press from an input end thereof; b) securing a continuous web of plastics material to the web of substrate to form a laminate; and c) applying perforations and/or cuts to the web of substrate to form said repeating array of blanks, wherein step a) precedes step b) and step c) succeeds step b), wherein in step c) the perforations and/or cuts are applied only to the web of substrate, and are made against the web of plastics material, leaving the web of plastics material intact, and wherein in step c) at least one cut is applied to the web of substrate to define the edges of at least one aperture or window in the web of substrate. a) continuously feeding a web of substrate along a press from an input end thereof; b) securing a continuous web of plastics material to the web of substrate to form a laminate; and c) applying perforations and/or cuts to the web of substrate to form said repeating array of blanks, wherein step a) precedes step b) and step c) succeeds step b), wherein in step c) the perforations and/or cuts are applied only to the web of substrate, and are made against the web of plastics material, leaving the web of plastics material intact, and wherein in step c) at least one cut is applied to the web of substrate to define the edges of at least one aperture or window in the web of substrate.
A method of detecting a target object using a radiant energy detector, wherein the detector comprises two opposing side panels, said side panels being fixed and together delimiting a passage, the detection method comprising the following steps: S1: placing a person to be inspected in a first position within the passage between the side panels of the detector; S2: acquiring first signals representative of radiant energy when the person to be inspected is in the first position; S3: placing the person to be inspected in a second position within the passage between the side panels of the detector, the second position being different from the first position; and S4: acquiring second signals representative of radiant energy when the person to be inspected is in the second position; and S5: from the first signals and the second signals, making an electronic image so as to determine whether the person to be inspected is carrying a target object; wherein in one of steps S1 and S3 the person to be inspected is positioned facing one of the side panels, and in the other of steps S1 and S3 the person to be inspected is positioned perpendicular to the side panels. the detection method comprising the following steps: S1: placing a person to be inspected in a first position within the passage between the side panels of the detector; S2: acquiring first signals representative of radiant energy when the person to be inspected is in the first position; S3: placing the person to be inspected in a second position within the passage between the side panels of the detector, the second position being different from the first position; and S4: acquiring second signals representative of radiant energy when the person to be inspected is in the second position; and S5: from the first signals and the second signals, making an electronic image so as to determine whether the person to be inspected is carrying a target object; S1: placing a person to be inspected in a first position within the passage between the side panels of the detector; S2: acquiring first signals representative of radiant energy when the person to be inspected is in the first position; S3: placing the person to be inspected in a second position within the passage between the side panels of the detector, the second position being different from the first position; and S4: acquiring second signals representative of radiant energy when the person to be inspected is in the second position; and S5: from the first signals and the second signals, making an electronic image so as to determine whether the person to be inspected is carrying a target object; wherein in one of steps S1 and S3 the person to be inspected is positioned facing one of the side panels, and in the other of steps S1 and S3 the person to be inspected is positioned perpendicular to the side panels.
A turbine blade comprising a surface, a recess within the surface, and a damping inlay within the recess, wherein the damping inlay comprises a chamber and a damping material disposed within the chamber, and the damping inlay substantially maintains the aerodynamic profile of the blade and is disposed in a side wall of the turbine blade; characterized in that the turbine blade additionally comprises cooling means wherein at least part of the cooling means is provided upstream of the damping inlay and include at least one film cooling hole.
An oxidative hair coloring composition comprising: (i) an oxidizing phase comprising an oxidizing agent; (ii) an alkaline phase comprising an alkaline agent, a dye precursor and a coupling compound; and (iii) core-shell microcapsules having a polymeric shell, and a core comprising a perfume oil, said microcapsules having a mean size equal or greater than 25 microns. (i) an oxidizing phase comprising an oxidizing agent; (ii) an alkaline phase comprising an alkaline agent, a dye precursor and a coupling compound; and (iii) core-shell microcapsules having a polymeric shell, and a core comprising a perfume oil, said microcapsules having a mean size equal or greater than 25 microns.
A turbo or super charged intake tract diverter valve system having a valve body adaptable to be sealingly mounted to said intake tract upstream of a throttle valve associated with said intake tract, said body having mounting apertures (1.1) through it, and including a closure means to operatively close off a diversion aperture (4.1) in said intake tract so as to vent pressurised gases in said intake tract to a bypass path or atmosphere at predetermined times, said system including an actuation means to allow said closure means to open whereby pressurised gases in said intake tract will pass through said diversion aperture (4.1) into said bypass path or to atmosphere, said closure means including a chamber (5.1) associated with said valve body and a valve member which cooperates with said chamber (5.1) to close said diversion aperture (4.1), said valve member including at least one transfer aperture through it, said valve member is configured so that by means of said pressurised gases, said valve member has a net force provided from a surface area differential with respect to opposite upstream and downstream sides of said valve member so as to close said diversion aperture (4.1) or keep it closed, when gas pressure on opposite sides of said valve member is equal, and when a pressure differential is created so that an upstream side of said valve member has pressure greater than a downstream side, then said valve member will move to open said diversion aperture (4.1), said system including said actuation means associated with said chamber (5.1) or said valve member, said actuation means will open a control aperture associated with said chamber to thereby create said pressure differential on the valve member to thereby cause same to open said diversion aperture (4.1),characterised in that said body has a frustoconical portion (1.6), said chamber (5.1) being generally cylindrical and being formed in said frustoconical portion (1.6), said valve body including at least one transfer passage through the body which have a port formed in the frustoconical portion (1.6) at one end of the at least one passage.
Dairy animal treatment assembly, comprising - a dairy animal standing area, - a teat treatment device configured to apply liquid to a teat of a dairy animal at the dairy animal standing area - a control device to control the teat treatment device, wherein the teat treatment device comprises at least one liquid line with an opening for applying the liquid to the teat, and also a sensor system with: - a through-flow cell with a liquid delivery opening and a liquid removal opening, said through-flow cell being configured to allow the through-flow of the liquid (5-1, 5-2), - a detector device which is configured to measure a characteristic of the liquid in the cell and to generate an associated detector signal, and - a sensor control which is configured to analyse the detector signal, wherein the sensor control is configured to detect a liquid changeover in the through-flow cell if a change per time unit in the detector signal and/or a change in the detector signal is greater than a predefined change threshold value or than a predefined threshold value, respectively, wherein the dairy animal treatment assembly furthermore comprises a storage container for the liquid and a buffer device, wherein the buffer device is directly connected to the liquid line, and wherein the storage container and the buffer device are directly interconnected by means of a buffer delivery line, wherein the buffer delivery line comprises the through-flow cell. - a dairy animal standing area, - a teat treatment device configured to apply liquid to a teat of a dairy animal at the dairy animal standing area - a control device to control the teat treatment device, - a through-flow cell with a liquid delivery opening and a liquid removal opening, said through-flow cell being configured to allow the through-flow of the liquid (5-1, 5-2), - a detector device which is configured to measure a characteristic of the liquid in the cell and to generate an associated detector signal, and - a sensor control which is configured to analyse the detector signal,
An in vitro method for modifying a genome at a genomic locus of interest in a pluripotent cell, comprising: introducing into the pluripotent cell a Cas9 protein or a nucleic acid encoding the Cas9 protein, a CRISPR RNA that hybridizes to a target sequence at the genomic locus of interest or a DNA encoding the CRISPR RNA, a tracrRNA or a DNA encoding the tracrRNA, and a large targeting vector (LTVEC) that is at least 10 kb in size and comprises an insert nucleic acid flanked by: (i) a 5' homology arm that is homologous to a 5' target sequence at the genomic locus of interest; and (ii) a 3' homology arm that is homologous to a 3' target sequence at the genomic locus of interest, wherein the insert nucleic acid is at least 30 kb and/or the 5' target sequence and the 3' target sequence are separated by at least 30 kb, wherein the pluripotent cell is a non-human mammalian pluripotent cell or a human induced pluripotent stem cell, wherein the pluripotent cell is not a rat cell, and wherein following introducing into the pluripotent cell the Cas9 protein or the nucleic acid encoding the Cas9 protein, the CRISPR RNA or the DNA encoding the CRISPR RNA, the tracrRNA or the DNA encoding the tracrRNA, and the LTVEC, the genome of the pluripotent cell is modified to comprise a targeted genetic modification comprising insertion of the insert nucleic acid at the genomic locus of interest. introducing into the pluripotent cell a Cas9 protein or a nucleic acid encoding the Cas9 protein, a CRISPR RNA that hybridizes to a target sequence at the genomic locus of interest or a DNA encoding the CRISPR RNA, a tracrRNA or a DNA encoding the tracrRNA, and a large targeting vector (LTVEC) that is at least 10 kb in size and comprises an insert nucleic acid flanked by: (i) a 5' homology arm that is homologous to a 5' target sequence at the genomic locus of interest; and (ii) a 3' homology arm that is homologous to a 3' target sequence at the genomic locus of interest, (i) a 5' homology arm that is homologous to a 5' target sequence at the genomic locus of interest; and (ii) a 3' homology arm that is homologous to a 3' target sequence at the genomic locus of interest, wherein the insert nucleic acid is at least 30 kb and/or the 5' target sequence and the 3' target sequence are separated by at least 30 kb, wherein the pluripotent cell is a non-human mammalian pluripotent cell or a human induced pluripotent stem cell, wherein the pluripotent cell is not a rat cell, and wherein following introducing into the pluripotent cell the Cas9 protein or the nucleic acid encoding the Cas9 protein, the CRISPR RNA or the DNA encoding the CRISPR RNA, the tracrRNA or the DNA encoding the tracrRNA, and the LTVEC, the genome of the pluripotent cell is modified to comprise a targeted genetic modification comprising insertion of the insert nucleic acid at the genomic locus of interest.
Device for connecting adjacent ends of two pipes (14, 24) through which at least one product to be delivered flows, with a sealing device which is assigned to a first pipe and, at the end of the first pipe, has an elastic and/or flexible sealant and is arranged at least axially movably at that end of the first pipe which is directed towards the second pipe, and with an abutment means for the sealing device at the end of the first pipe, the abutment means being assigned in a fixed position to that end of the second pipe which faces the sealing device of the first pipe, wherein at least one boundary of a sealing part, which has a sealing surface, of the sealant is assigned at least one reinforcement, the reinforcement is assigned a plurality of pressure medium cylinders or other linear drives for at least axially changing the distance of the sealing surface with respect to the end of the first pipe, a piston rod of the respective pressure medium cylinder or a movable part of another linear drive is connected in an articulated manner to an end or end region of the reinforcement, which end or end region faces the second pipe, in order to compensate for orientation inaccuracies, such as a radial position deviation or anti-parallelisms, between the sealing surface, which connects the two pipes (14, 24), of the elastic and/or flexible sealant on the first pipe and the abutment means on the second pipe, characterized in that the flexible and/or elastic sealant has a ring-like sealing part having the sealing surface, a collar part serving for connecting the sealant to an end region of the first pipe, starting from that end of the first pipe which faces the second pipe, and a tube-like bellows part integrally connecting the sealing part to the collar part.
A method for controlling signaling connection between a network and a terminal, characterized by comprising: judging, by a Mobility Management Element, whether the number of times of the terminal receiving and transmitting data in a predetermined statistical period, reaches a predetermined times threshold, and based on that a judgment result is that the number of times of the terminal receiving and transmitting data in the predetermined statistical period, reaches the predetermined times threshold, determining that the terminal has entered a state of receiving and transmitting data frequently (S202, S306); maintaining, by the MME, signaling connection with the terminal (S204, S308); and judging, by a Packet Data Network Gateway, whether the number of times of the terminal receiving and transmitting data in a predetermined lag period is less than the times threshold, and based on that the number of times of the terminal receiving and transmitting data in the predetermined lag period is less than the times threshold, determining that the terminal has exited the state of receiving and transmitting data frequently (S206, S312). judging, by a Mobility Management Element, whether the number of times of the terminal receiving and transmitting data in a predetermined statistical period, reaches a predetermined times threshold, and based on that a judgment result is that the number of times of the terminal receiving and transmitting data in the predetermined statistical period, reaches the predetermined times threshold, determining that the terminal has entered a state of receiving and transmitting data frequently (S202, S306); maintaining, by the MME, signaling connection with the terminal (S204, S308); and judging, by a Packet Data Network Gateway, whether the number of times of the terminal receiving and transmitting data in a predetermined lag period is less than the times threshold, and based on that the number of times of the terminal receiving and transmitting data in the predetermined lag period is less than the times threshold, determining that the terminal has exited the state of receiving and transmitting data frequently (S206, S312).