mhurhangee/ep-ind-claims huggingface dataset:
A wound filler (103, 200, 300, 310, 320, 400) for use in treating a wound with negative pressure, comprising: a porous wound filling material (202, 302, 402); and a plurality of vertically extending members (204, 308, 404) configured to extend vertically when the wound filler (103, 200, 300, 310, 320, 400) is positioned within a wound bed, the vertically extending members (204, 308, 404) being made of a more rigid material than the porous wound filling material (202, 302, 402); wherein the vertically extending members (204, 308, 404) are surrounded by the porous wound filling material (202, 302, 402) in a horizontal plane and the porous wound filling material (202, 302, 402) extends between the plurality of vertically extending members (204, 308, 404); wherein the vertical extending members (204, 308, 404) are elongate members configured to extend lengthwise across a wound bed and are aligned parallel to one another; and wherein upon application of negative pressure to the wound filler (103, 200, 300, 310, 320, 400), the wound filler is configured to contract horizontally with the vertically extending members (204, 308, 404) reducing vertical movement of the wound filler (103, 200, 300, 310, 320, 400). a porous wound filling material (202, 302, 402); and a plurality of vertically extending members (204, 308, 404) configured to extend vertically when the wound filler (103, 200, 300, 310, 320, 400) is positioned within a wound bed, the vertically extending members (204, 308, 404) being made of a more rigid material than the porous wound filling material (202, 302, 402); wherein the vertically extending members (204, 308, 404) are surrounded by the porous wound filling material (202, 302, 402) in a horizontal plane and the porous wound filling material (202, 302, 402) extends between the plurality of vertically extending members (204, 308, 404); wherein the vertical extending members (204, 308, 404) are elongate members configured to extend lengthwise across a wound bed and are aligned parallel to one another; and wherein upon application of negative pressure to the wound filler (103, 200, 300, 310, 320, 400), the wound filler is configured to contract horizontally with the vertically extending members (204, 308, 404) reducing vertical movement of the wound filler (103, 200, 300, 310, 320, 400).
A computer-implemented method for determining an inaccurate response to a speech query, the method comprising: receiving first audio data comprising a first speech query from a user; determining a first transcription of the first speech query; providing a response to the first transcription of the first speech query; receiving a second query from the user after initiation of the response to the first transcription of the first speech query; determining a second transcription of the second query; comparing the second transcription to the first transcription to determine a similarity between the first transcription and the second transcription; determining whether the first transcription is inaccurate based on the comparing of the second transcription to the first transcription; labeling the first transcription according to the determined similarity being above or below one or more thresholds, wherein: if the determined similarity is below a lower threshold, the first transcription is labelled as being unrelated to the second transcription; if the determined similarity is above a higher threshold, the first transcription is labelled as an incorrect transcription; and if the determined similarity is above the lower threshold and below the higher threshold, the first transcription is labeled as a misinterpretation; and training a statistical natural language model using the labeled first transcription. receiving first audio data comprising a first speech query from a user; determining a first transcription of the first speech query; providing a response to the first transcription of the first speech query; receiving a second query from the user after initiation of the response to the first transcription of the first speech query; determining a second transcription of the second query; comparing the second transcription to the first transcription to determine a similarity between the first transcription and the second transcription; determining whether the first transcription is inaccurate based on the comparing of the second transcription to the first transcription; labeling the first transcription according to the determined similarity being above or below one or more thresholds, wherein: if the determined similarity is below a lower threshold, the first transcription is labelled as being unrelated to the second transcription; if the determined similarity is above a higher threshold, the first transcription is labelled as an incorrect transcription; and if the determined similarity is above the lower threshold and below the higher threshold, the first transcription is labeled as a misinterpretation; and if the determined similarity is below a lower threshold, the first transcription is labelled as being unrelated to the second transcription; if the determined similarity is above a higher threshold, the first transcription is labelled as an incorrect transcription; and if the determined similarity is above the lower threshold and below the higher threshold, the first transcription is labeled as a misinterpretation; and training a statistical natural language model using the labeled first transcription.
A cosmetic composition for temporarily shaping keratin fibers, the composition containing: (a) at least one copolymer (a), which is at least made up of the following monomer units: N-tert-octylacrylamide, acrylic acid, tert-butylaminoethyl methacrylate, and (b) at least one anionic acrylate copolymer (b), which is made up only of the units, and, wherein is at least one (meth)acrylic acid unit, which consists of methacrylic acid, is at least one (meth)acrylic acid ethyl ester unit, which consists of ethyl acrylate, and is at least one (meth)acrylic acid ester unit, which consists of a (meth)acrylic acid alkyl ester having a linear or branched alkyl group having 3 to 12 carbon atoms. (a) at least one copolymer (a), which is at least made up of the following monomer units: N-tert-octylacrylamide, acrylic acid, tert-butylaminoethyl methacrylate, and N-tert-octylacrylamide, acrylic acid, tert-butylaminoethyl methacrylate, and (b) at least one anionic acrylate copolymer (b), which is made up only of the units, and, wherein is at least one (meth)acrylic acid unit, which consists of methacrylic acid, is at least one (meth)acrylic acid ethyl ester unit, which consists of ethyl acrylate, and is at least one (meth)acrylic acid ester unit, which consists of a (meth)acrylic acid alkyl ester having a linear or branched alkyl group having 3 to 12 carbon atoms. is at least one (meth)acrylic acid unit, which consists of methacrylic acid, is at least one (meth)acrylic acid ethyl ester unit, which consists of ethyl acrylate, and is at least one (meth)acrylic acid ester unit, which consists of a (meth)acrylic acid alkyl ester having a linear or branched alkyl group having 3 to 12 carbon atoms.
A TGF-β ligand trap comprising a TGF-β ligand binding domain of a TGF-β type II receptor and an Fc domain of an immunoglobulin for use in a method of treating, preventing, or reducing the progression rate of pulmonary hypertension in a subject, wherein the method comprises administering a therapeutically effective amount of the TGF-β ligand trap to the subject.
A method for determining a fluid composition parameter of an unknown fluid in a mass flow controller, the mass flow controller comprising a flow sensor and a control valve, the flow sensor comprising a heating element arranged between a first and a second temperature sensor (112, 113), the method comprising: (a) actuating the control valve to establish a constant flow through the mass flow controller; (b) activating the heating element of the flow sensor and measuring at least one temperature value with the first and/or second temperature sensors (112, 113) of the flow sensor while the fluid contacts the flow sensor; (c) retrieving first calibration data, the first calibration data having, as input values, temperature values measured with the flow sensor at said constant flow and having, as output values, values of said fluid composition parameter; and (d) using said first calibration data to determine said fluid composition parameter from the measured temperature value. (a) actuating the control valve to establish a constant flow through the mass flow controller; (b) activating the heating element of the flow sensor and measuring at least one temperature value with the first and/or second temperature sensors (112, 113) of the flow sensor while the fluid contacts the flow sensor; (c) retrieving first calibration data, the first calibration data having, as input values, temperature values measured with the flow sensor at said constant flow and having, as output values, values of said fluid composition parameter; and (d) using said first calibration data to determine said fluid composition parameter from the measured temperature value.
A terminal device for use with a wireless telecommunications network, the terminal device comprising: a receiver; and a controller operable to control the receiver to receive data from the wireless telecommunications network, wherein the data is transmitted using a candidate of a radio search space, the radio search space being defined by a plurality of candidates and each candidate of the radio search space being defined by a set of time and/or frequency radio resources for use in repeatedly transmitting the data a number of times associated with that candidate, and wherein the controller is operable to control the receiver to attempt to receive the data from each candidate of the radio search space; wherein the controller is operable to determine the radio search space on the basis of a predetermined radio search space and one or more multiplier values, wherein the number of times that data is repeatedly transmittable using each candidate of the radio search space is determined using multiplication of a predetermined number of times that data is repeatedly transmittable using a corresponding candidate of the predetermined radio search space with a respective one of the multiplier values, wherein each of the one or more multiplier values is variable based on a value of each of one or more predetermined parameters; and the terminal device is a Narrow Band Internet of Things, NB-IoT, terminal device and the radio search space is a Narrow Band Physical Downlink Control Channel, NB-PDCCH, search space. a receiver; and a controller operable to control the receiver to receive data from the wireless telecommunications network, wherein the data is transmitted using a candidate of a radio search space, the radio search space being defined by a plurality of candidates and each candidate of the radio search space being defined by a set of time and/or frequency radio resources for use in repeatedly transmitting the data a number of times associated with that candidate, and wherein the controller is operable to control the receiver to attempt to receive the data from each candidate of the radio search space; wherein the controller is operable to determine the radio search space on the basis of a predetermined radio search space and one or more multiplier values, wherein the number of times that data is repeatedly transmittable using each candidate of the radio search space is determined using multiplication of a predetermined number of times that data is repeatedly transmittable using a corresponding candidate of the predetermined radio search space with a respective one of the multiplier values, wherein each of the one or more multiplier values is variable based on a value of each of one or more predetermined parameters; and the terminal device is a Narrow Band Internet of Things, NB-IoT, terminal device and the radio search space is a Narrow Band Physical Downlink Control Channel, NB-PDCCH, search space.
An isolated peptide, comprising the amino acid sequence wherein X2 is H, L, or P; X3 is K or E; X4 is T, F, S, or L; X5 is V, D, or is absent; X6 is E, G, or is absent X7 is Y or F; X8 is T, K, or E; and X9 is N or S; wherein at least one of the following is true: X2 is P; X3 is E; X4 is S, or L; X5 is D; X6 is G; X7 is F; X8 is E; or X9 is S. X2 is H, L, or P; X3 is K or E; X4 is T, F, S, or L; X5 is V, D, or is absent; X6 is E, G, or is absent X7 is Y or F; X8 is T, K, or E; and X9 is N or S; X2 is P; X3 is E; X4 is S, or L; X5 is D; X6 is G; X7 is F; X8 is E; or X9 is S.
A tuned sensor system comprising: a main body comprising a substantially planar structure; an enclosing member comprising a structure corresponding to at least one face of the main body and arranged to be mechanically joined to the main body; a pressure inlet port configured to receive an unsteady pressure with a first component having a substantially static pressure and a second component having a high frequency variable pressure from an external environment; and a tuned path configured to receive the unsteady pressure from the pressure inlet port and conduct the first component to a sensor terminus and block the second component; wherein a distance between the pressure inlet port and the sensor terminus is less than a length of the tuned path, and the pressure inlet port is configured to be aligned to at least one of an opening in an external surface of an aircraft and opening in a propulsion system surface; wherein the tuned path is defined by the main body and a planar face of the enclosing member. a main body comprising a substantially planar structure; an enclosing member comprising a structure corresponding to at least one face of the main body and arranged to be mechanically joined to the main body; a pressure inlet port configured to receive an unsteady pressure with a first component having a substantially static pressure and a second component having a high frequency variable pressure from an external environment; and a tuned path configured to receive the unsteady pressure from the pressure inlet port and conduct the first component to a sensor terminus and block the second component; wherein a distance between the pressure inlet port and the sensor terminus is less than a length of the tuned path, and the pressure inlet port is configured to be aligned to at least one of an opening in an external surface of an aircraft and opening in a propulsion system surface; wherein the tuned path is defined by the main body and a planar face of the enclosing member.
A process for producing an isothiazole compound represented by a general formula: (wherein R is a cyano group; and X is a fluorine atom, a chlorine atom, a bromine atom or an iodine atom) which comprises heating a nitrile compound represented by a general formula: (wherein R is as defined above) and sulfur, and then carrying out a reaction between the nitrile compound represented by the general formula, the sulfur and a halogen represented by a general formula: [Chemical Formula 2] X 2 (wherein X is as defined above).
A system for transferring medical data, the system comprising: a hospital computer network upon which an electronic medical record, EMR, of a patient is stored, the EMR comprising patient demographic information, patient medical data, and patient test result data; a mobile computer that includes a graphical display and the mobile computer is communicatively connected to the hospital computer network, upon receiving an input from a clinician, the mobile computer presents a bar code on the graphical display that comprises at least patient information and mobile computer information encoded in the bar code, the mobile computer information identifies the mobile computer; a bar code scanner configured to read the bar code off of the graphical display; and a medical device being communicatively connected to the bar code scanner and receives the patient information and mobile computer information from the bar code scanner, the medical device further performs a medical test to generate test result data, the test result data being transmitted to the mobile computer based upon the received mobile computer information. a hospital computer network upon which an electronic medical record, EMR, of a patient is stored, the EMR comprising patient demographic information, patient medical data, and patient test result data; a mobile computer that includes a graphical display and the mobile computer is communicatively connected to the hospital computer network, upon receiving an input from a clinician, the mobile computer presents a bar code on the graphical display that comprises at least patient information and mobile computer information encoded in the bar code, the mobile computer information identifies the mobile computer; a bar code scanner configured to read the bar code off of the graphical display; and a medical device being communicatively connected to the bar code scanner and receives the patient information and mobile computer information from the bar code scanner, the medical device further performs a medical test to generate test result data, the test result data being transmitted to the mobile computer based upon the received mobile computer information.
A method comprising: receiving radar parameters from a unit under test, UUT; generating multiple tasks based on the radar parameters; sending the tasks and the radar parameters to multiple graphics processing units, GPUs (110a-110f); generating, using the GPUs, a simulated radar return for the UUT based on the tasks, the radar parameters, and a three-dimensional model of a scene, the simulated radar return comprising digital signals; controlling a timing of output of the simulated radar return to the UUT using multiple field programmable gate array, FPGA, carriers (108a, 108b), the FPGA carriers associated with different ones of the GPUs; converting the digital signals into analog signals using multiple digital-to-analog converters, DACs (106a-106h); and transmitting the analog signals to the UUT. receiving radar parameters from a unit under test, UUT; generating multiple tasks based on the radar parameters; sending the tasks and the radar parameters to multiple graphics processing units, GPUs (110a-110f); generating, using the GPUs, a simulated radar return for the UUT based on the tasks, the radar parameters, and a three-dimensional model of a scene, the simulated radar return comprising digital signals; controlling a timing of output of the simulated radar return to the UUT using multiple field programmable gate array, FPGA, carriers (108a, 108b), the FPGA carriers associated with different ones of the GPUs; converting the digital signals into analog signals using multiple digital-to-analog converters, DACs (106a-106h); and transmitting the analog signals to the UUT.
A method for handling calcium carbonate shells of hatching eggs in order to help chicks hatch on industrial and other poultry farms, wherein chicks develop in the hatching eggs, characterized in that at least one hatching egg and at least its air cell are detected and the calcium carbonate shell is equipped prior to hatching with at least one predetermined hatch breaking point (9, 9a, 9b, 9c, 9d) above the boundaries of the air cell on the calcium carbonate shell of the detected hatching egg in order to help chicks hatch from the hatching egg, comprising at least the following steps, - supplying the hatching eggs by means of a supply device, - acquiring/detecting a zone associated with the hatching eggs and at least their air cells by means of a detection device (18, 18a) and converting the detected zone associated with the fixated hatching eggs into electrical data and processing the converted electrical zone data for positioning a handling device for creating a predetermined breaking point at a position predetermined for creating such breaking point with respect to the calcium carbonate shell area of the hatching egg to be handled, - handling (102, 8) the hatching eggs by means of the handling device to create a breaking point in the calcium carbonate shell area, wherein the handling of the calcium carbonate shell of the hatching egg is performed from outside above the boundaries on said calcium carbonate shell of the air cell located inside the hatching egg and oriented towards the large end, and - discharging the hatching eggs having the predetermined breaking point (9, 9a, 9b, 9c, 9d) by means of a discharge device. - supplying the hatching eggs by means of a supply device, - acquiring/detecting a zone associated with the hatching eggs and at least their air cells by means of a detection device (18, 18a) and converting the detected zone associated with the fixated hatching eggs into electrical data and processing the converted electrical zone data for positioning a handling device for creating a predetermined breaking point at a position predetermined for creating such breaking point with respect to the calcium carbonate shell area of the hatching egg to be handled, - handling (102, 8) the hatching eggs by means of the handling device to create a breaking point in the calcium carbonate shell area, wherein the handling of the calcium carbonate shell of the hatching egg is performed from outside above the boundaries on said calcium carbonate shell of the air cell located inside the hatching egg and oriented towards the large end, and - discharging the hatching eggs having the predetermined breaking point (9, 9a, 9b, 9c, 9d) by means of a discharge device.
An apparatus usable with a well, comprising: a first equipment section comprising a first inductive coupler; a second equipment section comprising a second inductive coupler and being adapted to be run downhole into the well after the first equipment section is run downhole into the well to engage the first equipment section; a mechanism to provide a mechanical feedback at the surface of the well indicating whether the first inductive coupler is substantially aligned with the second inductive coupler; the first equipment section comprising a device to provide other mechanical feedback at the surface of the well when the device engages a feature of the well; a contraction joint to allow an operator at the surface of the well to discriminate between the mechanical feedback provided by the mechanism and the other mechanical feedback; and characterised by a connector to lock the contraction joint in place until the mechanism provides the mechanical feedback at the surface of the well indicating that the first and second inductive couplers (1512,1516) are substantially aligned. a first equipment section comprising a first inductive coupler; a second equipment section comprising a second inductive coupler and being adapted to be run downhole into the well after the first equipment section is run downhole into the well to engage the first equipment section; a mechanism to provide a mechanical feedback at the surface of the well indicating whether the first inductive coupler is substantially aligned with the second inductive coupler; the first equipment section comprising a device to provide other mechanical feedback at the surface of the well when the device engages a feature of the well; a contraction joint to allow an operator at the surface of the well to discriminate between the mechanical feedback provided by the mechanism and the other mechanical feedback; and characterised by a connector to lock the contraction joint in place until the mechanism provides the mechanical feedback at the surface of the well indicating that the first and second inductive couplers (1512,1516) are substantially aligned.