mhurhangee/ep-ind-claims huggingface dataset:
A roll-up device (100; 200; 300) for thermally insulating an opening, said device comprising: • an insulating blanket (110; 210; 310) comprising at least two outer walls (111, 112; 211, 212; 311, 312) and internal partitioning means (113; 213; 313) formed between its outer walls (111, 112; 211, 212; 311, 312) for impeding the flow of the air cushion; • means for rolling-down and rolling-up the insulating blanket (110; 210; 310) between a rolled-up configuration in which said insulating blanket (110; 210; 310) is rolled-up around a roller bar (7; 270), and a rolled-down configuration in which the insulating blanket (110; 210; 310) extends in a roll-down plane that is substantially parallel to the roller bar (7; 270); • mechanical deployment means (120; 220; 320) for deploying the insulating blanket (110; 210; 310) from a compacted configuration in which the insulating blanket (110; 210; 310) is flattened so as to enable it to be rolled-up, to a deployed configuration in which said outer walls (111, 112; 211, 212; 311, 312) are spaced apart from each other, at least in part, in a direction that is perpendicular to the roll-down plane, so as to hold a cushion of air captive between them; • said mechanical deployment means (120; 220; 320) operating at the ambient pressure of the air cushion, and being distinct and independent from said partitioning means (113; 213; 313); the device being characterized in that, between the outer walls (111, 112; 211, 212; 311, 312), said partitioning means (113; 213; 313) provide sealed partitioning at least in the rolling-down direction of the insulating blanket (110; 210; 310), parallel to the roll-down plane and perpendicular to the roller bar (7; 270). • an insulating blanket (110; 210; 310) comprising at least two outer walls (111, 112; 211, 212; 311, 312) and internal partitioning means (113; 213; 313) formed between its outer walls (111, 112; 211, 212; 311, 312) for impeding the flow of the air cushion; • means for rolling-down and rolling-up the insulating blanket (110; 210; 310) between a rolled-up configuration in which said insulating blanket (110; 210; 310) is rolled-up around a roller bar (7; 270), and a rolled-down configuration in which the insulating blanket (110; 210; 310) extends in a roll-down plane that is substantially parallel to the roller bar (7; 270); • mechanical deployment means (120; 220; 320) for deploying the insulating blanket (110; 210; 310) from a compacted configuration in which the insulating blanket (110; 210; 310) is flattened so as to enable it to be rolled-up, to a deployed configuration in which said outer walls (111, 112; 211, 212; 311, 312) are spaced apart from each other, at least in part, in a direction that is perpendicular to the roll-down plane, so as to hold a cushion of air captive between them; • said mechanical deployment means (120; 220; 320) operating at the ambient pressure of the air cushion, and being distinct and independent from said partitioning means (113; 213; 313);
A pharmaceutical composition comprising an antibody or an antigen-binding fragment thereof that specifically binds to interleukin-4 receptor (IL-4R) for use in treating a subject suffering from severe asthma, in reducing the incidence of asthma exacerbations in a subject suffering from severe asthma, or in improving one or more asthma-associated parameter(s) in a subject suffering from severe asthma, wherein the antibody or antigen-binding fragment thereof comprises a heavy chain variable region (HCVR) having the amino acid sequence of SEQ ID NO: 162 and a light chain variable region (LCVR) having the amino acid sequence of SEQ ID NO: 164, wherein the subject has a blood eosinophil level of at least 300 cells per microliter, and/or a sputum eosinophil level of at least 3%.
A method comprising: receiving session information at a traffic interceptor in communication with a plurality of service devices, said session information transmitted from one of the service devices and identifying flows associated with a session and the service device associated with the session, wherein the traffic interceptor is located in a communication path between a source and a destination and operable to intercept traffic on the communication path and transmit the traffic to one of the service devices; storing said session information at the traffic interceptor; intercepting traffic received at the traffic interceptor on the communication path; searching said session information for a flow corresponding to the traffic; identifying one of the service devices to transmit the traffic based on said session information; transmitting the traffic received at the traffic interceptor to the service device selected based on said session information; receiving the traffic from the service device after the service device applies services to the traffic; and forwarding the traffic to the destination; wherein the session comprises an application session. receiving session information at a traffic interceptor in communication with a plurality of service devices, said session information transmitted from one of the service devices and identifying flows associated with a session and the service device associated with the session, wherein the traffic interceptor is located in a communication path between a source and a destination and operable to intercept traffic on the communication path and transmit the traffic to one of the service devices; storing said session information at the traffic interceptor; intercepting traffic received at the traffic interceptor on the communication path; searching said session information for a flow corresponding to the traffic; identifying one of the service devices to transmit the traffic based on said session information; transmitting the traffic received at the traffic interceptor to the service device selected based on said session information; receiving the traffic from the service device after the service device applies services to the traffic; and forwarding the traffic to the destination; wherein the session comprises an application session.
Rubber mixture comprising at least the following constituents: - 5 to 50 phr of at least one butadiene rubber and - 30 to 150 phr of at least one carbon black having a DBP number according to ASTM D 2414 of 130 to 200 ml/100 g and an iodine adsorption number according to ASTM D 1510 of 40 to 75 g/kg and a distribution index DI of 1.00 to 1.10, wherein DI is calculated from the particle size distribution (mass distribution versus Stokes diameter) determined by DCP (disc centrifuge photosediometer) according to formula I): DI = Dw/D mode wherein D mode is the maximum of the particle size distribution function and thus the most frequent Stokes diameter and D w is the weighted average Stokes diameter determined from the particle size distribution function according to formula II): D w = ∑ n i D i 5 /n i D i 4 wherein i is an index for the respective measured value and n is the frequency of the mass distribution in units of percent by weight and D is the respective associated Stokes diameter. - 5 to 50 phr of at least one butadiene rubber and - 30 to 150 phr of at least one carbon black having a DBP number according to ASTM D 2414 of 130 to 200 ml/100 g and an iodine adsorption number according to ASTM D 1510 of 40 to 75 g/kg and a distribution index DI of 1.00 to 1.10, wherein DI is calculated from the particle size distribution (mass distribution versus Stokes diameter) determined by DCP (disc centrifuge photosediometer) according to formula I): DI = Dw/D mode wherein D mode is the maximum of the particle size distribution function and thus the most frequent Stokes diameter and D w is the weighted average Stokes diameter determined from the particle size distribution function according to formula II): D w = ∑ n i D i 5 /n i D i 4 wherein i is an index for the respective measured value and n is the frequency of the mass distribution in units of percent by weight and D is the respective associated Stokes diameter. D mode is the maximum of the particle size distribution function and thus the most frequent Stokes diameter and D w is the weighted average Stokes diameter determined from the particle size distribution function according to formula II): D w = ∑ n i D i 5 /n i D i 4 wherein i is an index for the respective measured value and n is the frequency of the mass distribution in units of percent by weight and D is the respective associated Stokes diameter. i is an index for the respective measured value and n is the frequency of the mass distribution in units of percent by weight and D is the respective associated Stokes diameter.
A method, comprising: receiving, at a memory device (110, 310, 510, 605) comprising a memory array (170, 325), a read command; reading first data of the memory array (170, 325) based at least in part on the read command; performing an error correction operation on the first data to obtain second data and an indicator of a state of error in the second data; and outputting the second data using a first channel (190, 390, 490) of the memory device (110, 310, 510, 605) and the indicator of the state of error using a second channel (192, 392, 492) of the memory device (110, 310, 510, 605) different than the first channel (190, 390, 490), wherein the indicator indicates one of at least three states of error, and wherein the at least three states of error comprise no detectable error, a corrected error, and an uncorrected error. receiving, at a memory device (110, 310, 510, 605) comprising a memory array (170, 325), a read command; reading first data of the memory array (170, 325) based at least in part on the read command; performing an error correction operation on the first data to obtain second data and an indicator of a state of error in the second data; and outputting the second data using a first channel (190, 390, 490) of the memory device (110, 310, 510, 605) and the indicator of the state of error using a second channel (192, 392, 492) of the memory device (110, 310, 510, 605) different than the first channel (190, 390, 490), wherein the indicator indicates one of at least three states of error, and wherein the at least three states of error comprise no detectable error, a corrected error, and an uncorrected error.
Solar cell module comprising a first solar cell string, wherein the first solar cell string includes a first solar cell and a second solar cell electrically connected in series, wherein the first solar cell and the second solar cell are electrically connected via a plurality of parallel connecting wires (2110, 2210); and an interconnector crossing at least some of the connecting wires, being arranged perpendicular to the connecting wires, and electrically connecting the at least some connecting wires; wherein the interconnector (2261; 5060) comprises an interconnector core having a first surface facing the connecting wires and a second surface; wherein the first surface is covered with a first coating and the second surface is covered with a second coating, wherein the first coating is thicker than the second coating, wherein the first coating is made of a first coating material, wherein the second coating is made of a second coating material, wherein the first coating material comprises a solder, characterized in that the first coating material is the same as the second coating material. a first solar cell string, wherein the first solar cell string includes a first solar cell and a second solar cell electrically connected in series, wherein the first solar cell and the second solar cell are electrically connected via a plurality of parallel connecting wires (2110, 2210); and an interconnector crossing at least some of the connecting wires, being arranged perpendicular to the connecting wires, and electrically connecting the at least some connecting wires; wherein the interconnector (2261; 5060) comprises an interconnector core having a first surface facing the connecting wires and a second surface; wherein the first surface is covered with a first coating and the second surface is covered with a second coating, wherein the first coating is thicker than the second coating, wherein the first coating is made of a first coating material, wherein the second coating is made of a second coating material, wherein the first coating material comprises a solder, characterized in that the first coating material is the same as the second coating material.
A genome analysis device configured to analyze genome data including information on a large quantity of fragmented genome base sequences outputted from a next generation sequencer, and transmit output data concerning the genome data in response to an output request from a client device connected via a network, the genome analysis device comprising: a processing unit for calculating coverage of fragmented genome base sequences, outputted from a next generation sequencer, in a bin size of 1, followed by repeatedly multiplying the bin size by N, wherein N is an integer equal to or greater than two, and calculating coverage of the fragmented genome base sequences in the multiplied bin size, wherein the bin size refers to a unit number of bases for which calculation of coverage is to be made, and wherein the coverage in the multiplied bin size is calculated by calculating a mean value of coverage from the number of bases corresponding to the multiplied bin size; a storage unit comprising a coverage database for storing the calculated coverages, for the genome data; a request receiving unit for receiving an output request from the client device; and an output data generating unit for selecting coverage of a bin size corresponding to the output request from the calculated coverages stored in the coverage database when the request receiving unit receives the output request, and generating output data based on the selected coverage. a processing unit for calculating coverage of fragmented genome base sequences, outputted from a next generation sequencer, in a bin size of 1, followed by repeatedly multiplying the bin size by N, wherein N is an integer equal to or greater than two, and calculating coverage of the fragmented genome base sequences in the multiplied bin size, wherein the bin size refers to a unit number of bases for which calculation of coverage is to be made, and wherein the coverage in the multiplied bin size is calculated by calculating a mean value of coverage from the number of bases corresponding to the multiplied bin size; a storage unit comprising a coverage database for storing the calculated coverages, for the genome data; a request receiving unit for receiving an output request from the client device; and an output data generating unit for selecting coverage of a bin size corresponding to the output request from the calculated coverages stored in the coverage database when the request receiving unit receives the output request, and generating output data based on the selected coverage.
A method for time-of-flight, ToF, positioning in a wireless network compliant with the IEEE 802.11 standards performed by an initiating station, the method comprising: transmitting a message M1 carrying a high-throughput control, HTC, field, the HTC field including a reverse direction grant, RDG, indication, the RDG indication granting permission to a responding station to send information back to the initiating station, the message M1 being a timing measurement action frame; receiving an acknowledgement, ACK, frame to acknowledge receipt of the message M1, the ACK frame carrying an HTC field that includes an indication to indicate whether a separate frame is to follow the ACK frame; and receiving a message M2 from the responding station, the message M2 including timing measurement information from at least at one of a current and a previous ToF message exchange; characterized in that when the message M2 is an Action No ACK management frame, the method includes refraining, by the initiating station, from sending an ACK frame to acknowledge the message M2, and the message M2 is arranged to include the timing measurement information from both a current ToF message exchange and a previous ToF message exchange. transmitting a message M1 carrying a high-throughput control, HTC, field, the HTC field including a reverse direction grant, RDG, indication, the RDG indication granting permission to a responding station to send information back to the initiating station, the message M1 being a timing measurement action frame; receiving an acknowledgement, ACK, frame to acknowledge receipt of the message M1, the ACK frame carrying an HTC field that includes an indication to indicate whether a separate frame is to follow the ACK frame; and receiving a message M2 from the responding station, the message M2 including timing measurement information from at least at one of a current and a previous ToF message exchange; characterized in that when the message M2 is an Action No ACK management frame, the method includes refraining, by the initiating station, from sending an ACK frame to acknowledge the message M2, and the message M2 is arranged to include the timing measurement information from both a current ToF message exchange and a previous ToF message exchange.
A fluid cushion guiding device for guiding a shaft into relative movement, rotary and translatory, relative to the guiding device, the guiding device comprising an inner sleeve and an outer sleeve that are coaxial with each other, wherein the inner sleeve has a plurality of radial holes having first ends communicating with a first sealed gap provided between the inner sleeve and the shaft to be guided, wherein the guiding device includes sealing elements with low frictional coefficient associated with the inner sleeve and arranged to cooperate with the shaft, limiting fluid leakage from the first gap and wherein the outer sleeve has at least one radial opening characterised in that the said radial opening is arranged to allow introducing from the outside a pressurised fluid which, by reaching the first gap through said holes, is suitable to create a gap of pressurised fluid between the inner sleeve and the shaft to be guided.
A filter element comprising: a block of filter media defining first and second flow faces (132, 134), first and second sides (136, 138) extending between the first and second flow faces, and first and second ends (128, 130) extending between the first and second flow faces and the first and second sides; first and second end caps (124, 126) attached to the first and second ends of the block of filter media, respectively, each of the first and second end caps including a panel portion and a rectangular sidewall portion extending outward from the panel portion, the rectangular sidewall portion overlapping the first and second flow faces and the first and second sides, the rectangular sidewall portion including first and second notches (152, 154), the first notch overlaps the first side and the second notch overlaps the second side; first adhesive material securing the first and second end caps to the first and second ends of the block of filter media, respectively, each of the first and second notches in the first and second end caps exposing a portion of the first adhesive material; a seal arrangement attached to the block of filter media and extending, at least in part, around the block of filter media and the first and second end caps; a second adhesive material sealingly securing the seal arrangement to the block of filter media and the first and second end caps, the second adhesive material contacting the first adhesive material exposed by the notches of the first and second end caps. a block of filter media defining first and second flow faces (132, 134), first and second sides (136, 138) extending between the first and second flow faces, and first and second ends (128, 130) extending between the first and second flow faces and the first and second sides; first and second end caps (124, 126) attached to the first and second ends of the block of filter media, respectively, each of the first and second end caps including a panel portion and a rectangular sidewall portion extending outward from the panel portion, the rectangular sidewall portion overlapping the first and second flow faces and the first and second sides, the rectangular sidewall portion including first and second notches (152, 154), the first notch overlaps the first side and the second notch overlaps the second side; first adhesive material securing the first and second end caps to the first and second ends of the block of filter media, respectively, each of the first and second notches in the first and second end caps exposing a portion of the first adhesive material; a seal arrangement attached to the block of filter media and extending, at least in part, around the block of filter media and the first and second end caps; a second adhesive material sealingly securing the seal arrangement to the block of filter media and the first and second end caps, the second adhesive material contacting the first adhesive material exposed by the notches of the first and second end caps.
An antibody or antigen binding fragment thereof that specifically binds Fzd2 to specifically downmodulate Fzd2 and does not down-modulate other Fzd proteins for use in the treatment of cancer.
An inflatable retention system for an enteral feeding tube having a base deployed outside the human body and an indwelling retainer which is deployed within a lumen of the body by insertion through a stoma from outside the body, the retention system comprising: a tube having a proximal end, a distal end, an external tube diameter, and tube walls defining a feeding lumen and an inflation lumen and an inflatable balloon located at a distal end of the tube in fluid communication with the inflation lumen, the balloon having thin, flexible walls and a predetermined spheroid shape, characterized in that it further comprises a reserve volume having a lower limit that is greater than 0.5 milliliters of a fluid and an upper limit at a transition between a non-distended state and a distended state of the balloon in which a fluid in the balloon is under no pressure, and a predetermined fill volume 1.01 to 1.5 times greater than an upper limit of the reserve volume, such that upon inflation with a fluid to pressurize fluid in the balloon, the balloon assumes a stable spheroid shape and exhibits a substantially linear pressure versus volume curve to at least the predetermined fill volume, wherein the balloon has a diameter of from 15 mm to 30 mm at a major axis of the spheroid when inflated to the predetermined fill volume. a tube having a proximal end, a distal end, an external tube diameter, and tube walls defining a feeding lumen and an inflation lumen and an inflatable balloon located at a distal end of the tube in fluid communication with the inflation lumen, the balloon having thin, flexible walls and a predetermined spheroid shape, characterized in that it further comprises a reserve volume having a lower limit that is greater than 0.5 milliliters of a fluid and an upper limit at a transition between a non-distended state and a distended state of the balloon in which a fluid in the balloon is under no pressure, and a predetermined fill volume 1.01 to 1.5 times greater than an upper limit of the reserve volume, such that upon inflation with a fluid to pressurize fluid in the balloon, the balloon assumes a stable spheroid shape and exhibits a substantially linear pressure versus volume curve to at least the predetermined fill volume, wherein the balloon has a diameter of from 15 mm to 30 mm at a major axis of the spheroid when inflated to the predetermined fill volume.