mhurhangee/patent-ind-claim-en huggingface dataset:
A lead-free and antimony-free solder alloy having an alloy composition consisting of, by mass %, 12 to 23% of In, 0.001 to 0.08% of Ge, and optionally at least one of 3.5% or less of Ag, 0.05% or less of Ni, and 0.02% or less of Co, with the balance being Sn and unavoidable impurities, wherein the unavoidable impurities comprise U and Th, each in an amount of 5 mass ppb or less, and As and Pb, each in an amount of 5 mass ppm or less. 12 to 23% of In, 0.001 to 0.08% of Ge, and optionally at least one of 3.5% or less of Ag, 0.05% or less of Ni, and 0.02% or less of Co, with the balance being Sn and unavoidable impurities, wherein the unavoidable impurities comprise U and Th, each in an amount of 5 mass ppb or less, and As and Pb, each in an amount of 5 mass ppm or less.
A dirt cover arrangement having a semitrailer and a towing vehicle for closing a hollow-drilled kingpin at the semitrailer for an automatic fifth wheel coupling, wherein the kingpin is arranged at the underside , serving as a counter bearing for a fifth wheel of the towing vehicle , of the semitrailer , characterised in that a dirt cover device is arranged in a manner resting against the underside of the semitrailer and rotatable about the kingpin , wherein the dirt cover device has a dirt cover for covering the bore provided in the kingpin and the dirt cover is formed at the dirt cover device to be displaceable during the coupling procedure from an initial position covering the bore in the kingpin into a coupling position freeing the bore .
A process of the preparation of the salts of N,N '-disubstituted ethylenediamine- N , N '-diacetic acid derivatives, said salts being represented by the formula (IA) wherein both R have the same meaning and represent hydrogen atom or CH 3 group, and both M have the same meaning and represent sodium or potassium cation, characterized in that it comprises alkylation reaction of A-substituted glycine derivative of the formula (II) wherein R has the meaning as defined for the formula (IA), with 1,2-dichloroethane in water in the presence of MOH hydroxide, wherein M represents sodium or potassium cation, respectively, at a pH from 10 to 12.5, wherein molar ratio of the compound of the formula (II) to 1,2-dichloroethane is from 1:1 to 1:15. wherein both R have the same meaning and represent hydrogen atom or CH 3 group, and both M have the same meaning and represent sodium or potassium cation, characterized in that it comprises alkylation reaction of A-substituted glycine derivative of the formula (II) wherein R has the meaning as defined for the formula (IA), with 1,2-dichloroethane in water in the presence of MOH hydroxide, wherein M represents sodium or potassium cation, respectively, at a pH from 10 to 12.5, wherein molar ratio of the compound of the formula (II) to 1,2-dichloroethane is from 1:1 to 1:15.
A placental membrane preparation comprising a demineralized bone powder (DBP) and a placental membrane sheet wherein the placental membrane sheet is folded to form an implantable unit; wherein the implantable unit has an exterior surface including an upper side and a lower side, at least about 90% of the exterior surface of the implantable unit presenting an exposed placental epithelial monolayer.
A battery separator, having a composite structure comprising a first element and a second element , the battery separator comprising: the first element , made of a modification material provided to improve thermal stability of the battery separator, wherein the first element is a stack of nanowires distributed in one or more layers; and the second element made of a base material provided as a main body of the battery separator, wherein the first element is loaded on the second element and supported by the second element ; characterized in that the first element has a thickness of 0.01 to 0.8 μm, the nanowire has a length-to-diameter ratio of greater than 50, the nanowire has a diameter of 1 to 100 nm and a length of 0.1 to 100 μm; the modification material comprises one or more of a carbon nanotube, a silver nanowire, a boron carbide nanowire, nanocellulose, a copper hydroxide nanowire and a silicon monoxide nanowire; and the base material is an organic polymer material, the organic polymer material comprises polyolefin. the first element , made of a modification material provided to improve thermal stability of the battery separator, wherein the first element is a stack of nanowires distributed in one or more layers; and the second element made of a base material provided as a main body of the battery separator, wherein the first element is loaded on the second element and supported by the second element ; characterized in that the first element has a thickness of 0.01 to 0.8 μm, the nanowire has a length-to-diameter ratio of greater than 50, the nanowire has a diameter of 1 to 100 nm and a length of 0.1 to 100 μm; the modification material comprises one or more of a carbon nanotube, a silver nanowire, a boron carbide nanowire, nanocellulose, a copper hydroxide nanowire and a silicon monoxide nanowire; and the base material is an organic polymer material, the organic polymer material comprises polyolefin.
A compound of Formula (II): or a stereoisomer, a tautomer, a pharmaceutically acceptable salt or a solvate thereof, wherein: X 3 is independently CH or N; R 1 is independently selected from: R 2 is independently C 1-4 alkyl; R 3 is independently selected from H, C 1-4 alkyl, and C 1-4 alkyl (fully or partially deuterated); R 4 is independently selected from C 1-6 alkyl, -(CH 2 ) 0-2 -(C 3-6 cycloalkyl), and -CH(CH 3 )-(C 3-6 cycloalkyl); and R 5 is independently H or C 1-4 alkyl. X 3 is independently CH or N; R 1 is independently selected from: R 2 is independently C 1-4 alkyl; R 3 is independently selected from H, C 1-4 alkyl, and C 1-4 alkyl (fully or partially deuterated); R 4 is independently selected from C 1-6 alkyl, -(CH 2 ) 0-2 -(C 3-6 cycloalkyl), and -CH(CH 3 )-(C 3-6 cycloalkyl); and R 5 is independently H or C 1-4 alkyl.
A method for constructing a library based on an RNA sample, the method comprising: step 1 of subjecting the RNA sample to a reverse transcription reaction to obtain DNA-RNA hybrid strands; step 2 of performing reaction of the DNA-RNA hybrid strands with an endoribonuclease, a first DNA polymerase, a second DNA polymerase, and dATPs to obtain a double-stranded DNA added with dA-tailing, wherein the first DNA polymerase has a 5'-3' exonuclease activity and a 3'-5' exonuclease activity, and the second DNA polymerase has no 3'-5' exonuclease activity; step 3 of ligating the double-stranded DNA added with dA-tail and a sequencing adaptor to obtain a ligated product; and step 4 of subjecting the ligated product to PCR amplification to obtain a sequencing library. step 1 of subjecting the RNA sample to a reverse transcription reaction to obtain DNA-RNA hybrid strands; step 2 of performing reaction of the DNA-RNA hybrid strands with an endoribonuclease, a first DNA polymerase, a second DNA polymerase, and dATPs to obtain a double-stranded DNA added with dA-tailing, wherein the first DNA polymerase has a 5'-3' exonuclease activity and a 3'-5' exonuclease activity, and the second DNA polymerase has no 3'-5' exonuclease activity; step 3 of ligating the double-stranded DNA added with dA-tail and a sequencing adaptor to obtain a ligated product; and step 4 of subjecting the ligated product to PCR amplification to obtain a sequencing library.
A cell reselection method, comprising: receiving , by a terminal device, first configuration information transmitted by a serving cell, the first configuration information being used to determine Multimedia Broadcast Multicast Service (MBMS) service deployment information of a neighboring cell; and determining , by the terminal device, a target cell for cell reselection based on the first configuration information, characterized in that , the method is applied in a New Radio, NR, system, and the first configuration information is carried in a MBMS signaling, wherein the MBMS service deployment information of the neighboring cell comprises: MBMS service deployment information of each cell in at least one frequency layer, wherein each of the at least one frequency layer belongs tc an adjacent frequency of the serving cell, and each cell belongs to the neighboring cell of the serving cell. receiving , by a terminal device, first configuration information transmitted by a serving cell, the first configuration information being used to determine Multimedia Broadcast Multicast Service (MBMS) service deployment information of a neighboring cell; and determining , by the terminal device, a target cell for cell reselection based on the first configuration information, characterized in that , the method is applied in a New Radio, NR, system, and the first configuration information is carried in a MBMS signaling, wherein the MBMS service deployment information of the neighboring cell comprises: MBMS service deployment information of each cell in at least one frequency layer, wherein each of the at least one frequency layer belongs tc an adjacent frequency of the serving cell, and each cell belongs to the neighboring cell of the serving cell.
A method, comprising: determining that a control on an edge of a touch screen display is contacted, held, and dragged towards a center of the touch screen display by a first object, the edge comprising at least one of a top, bottom, sides or corners of the touch screen display; displaying a panel of one or more user interface components at least a portion of the panel being displayed in response to the determining, wherein the panel is associated with the control on the touch screen display; while the holding of the control by the first object is continued, allowing for interaction with one or more components of the at least a portion of the panel using a second object; determining that the control is released comprising sensing that the first object is no longer in contact with the control; and ceasing to display the at least a portion of the panel in response to sensing that the first object is no longer in contact with the control. determining that a control on an edge of a touch screen display is contacted, held, and dragged towards a center of the touch screen display by a first object, the edge comprising at least one of a top, bottom, sides or corners of the touch screen display; displaying a panel of one or more user interface components at least a portion of the panel being displayed in response to the determining, wherein the panel is associated with the control on the touch screen display; while the holding of the control by the first object is continued, allowing for interaction with one or more components of the at least a portion of the panel using a second object; determining that the control is released comprising sensing that the first object is no longer in contact with the control; and ceasing to display the at least a portion of the panel in response to sensing that the first object is no longer in contact with the control.
An apparatus for sensing a flow of fluid , the apparatus comprising: a flow sensing device comprising: a heating structure having a centerline ; and a thermopile , wherein at least a portion of the thermopile is disposed over the heating structure , and wherein the thermopile comprises a first thermocouple having a first thermocouple junction disposed upstream of the centerline , and a second thermocouple having a second thermocouple junction disposed downstream of the centerline ; wherein: a maximum temperature difference is defined by a maximum temperature difference minimum location upstream of the centerline and a maximum temperature difference maximum location downstream of the centerline , wherein the first thermocouple junction is disposed at about the first location, and wherein the second thermocouple junction is disposed at about the second location. a heating structure having a centerline ; and a thermopile , wherein at least a portion of the thermopile is disposed over the heating structure , and wherein the thermopile comprises a first thermocouple having a first thermocouple junction disposed upstream of the centerline , and a second thermocouple having a second thermocouple junction disposed downstream of the centerline ; wherein: a maximum temperature difference is defined by a maximum temperature difference minimum location upstream of the centerline and a maximum temperature difference maximum location downstream of the centerline , wherein the first thermocouple junction is disposed at about the first location, and wherein the second thermocouple junction is disposed at about the second location. a first thermocouple having a first thermocouple junction disposed upstream of the centerline , and a second thermocouple having a second thermocouple junction disposed downstream of the centerline ; wherein: a maximum temperature difference is defined by a maximum temperature difference minimum location upstream of the centerline and a maximum temperature difference maximum location downstream of the centerline , wherein the first thermocouple junction is disposed at about the first location, and wherein the second thermocouple junction is disposed at about the second location.
A diagnostic assay for determining the presence of a tumor cell in a sample, the diagnostic assay comprising the steps of a) contacting the sample with an antigen binding molecule comprising an antigen binding domain and a recognition domain, wherein the antigen binding domain comprises a target antigen binding moiety capable of specific binding to the tumor cell; b) contacting the sample with a chimeric antigen receptor (CAR) expressing reporter T (CAR-T) cell wherein the reporter CAR-T cell comprises: i. a CAR capable of specific binding to the recognition domain, wherein the CAR is operationally coupled to a response element; ii. a reporter gene under the control of the response element; and c) determining T cell activation by measuring the expression of the reporter gene to establish the presence of the tumor cell. a) contacting the sample with an antigen binding molecule comprising an antigen binding domain and a recognition domain, wherein the antigen binding domain comprises a target antigen binding moiety capable of specific binding to the tumor cell; b) contacting the sample with a chimeric antigen receptor (CAR) expressing reporter T (CAR-T) cell wherein the reporter CAR-T cell comprises: i. a CAR capable of specific binding to the recognition domain, wherein the CAR is operationally coupled to a response element; ii. a reporter gene under the control of the response element; and i. a CAR capable of specific binding to the recognition domain, wherein the CAR is operationally coupled to a response element; ii. a reporter gene under the control of the response element; and c) determining T cell activation by measuring the expression of the reporter gene to establish the presence of the tumor cell.
Polymer composition comprising a) 100 parts by weight of a polyamide; b) 0.5 to 20 parts by weight of one or more adhesion-promoting additives of the formula (I): M a M' b D c D' d (I) with M = [R 3 SiO 1/2 ] M' = [R'R 2 SiO 1/2 ] D = [R 2 SiO 2/2 ] D' = [R'RSiO 2/2 ] where each R is independently methyl or phenyl and R' is a glycidyloxypropyl radical of the formula (II) and where the indices are as follows: a = 0 to 2 b = 0 to 2 c = 15 to 100 d = 0 to 50 a + b = 2 and b + d ≥ 2, where a ratio of the sum total of the indices a + c to the sum total of the indices b + d is in the range from 4 to 20. a) 100 parts by weight of a polyamide; b) 0.5 to 20 parts by weight of one or more adhesion-promoting additives of the formula (I): M a M' b D c D' d (I) with M = [R 3 SiO 1/2 ] M' = [R'R 2 SiO 1/2 ] D = [R 2 SiO 2/2 ] D' = [R'RSiO 2/2 ] where each R is independently methyl or phenyl and R' is a glycidyloxypropyl radical of the formula (II) and where the indices are as follows: a = 0 to 2 b = 0 to 2 c = 15 to 100 d = 0 to 50 a + b = 2 and b + d ≥ 2, where a ratio of the sum total of the indices a + c to the sum total of the indices b + d is in the range from 4 to 20. M = [R 3 SiO 1/2 ] M' = [R'R 2 SiO 1/2 ] D = [R 2 SiO 2/2 ] D' = [R'RSiO 2/2 ] a = 0 to 2 b = 0 to 2 c = 15 to 100 d = 0 to 50 a + b = 2 and b + d ≥ 2,
A method for manufacturing at least one monolithic inorganic porous support having a porosity comprised between 10% and 60% and an average pore diameter ranging from 0.5 μm to 50 μm, using a 3D printing machine (I) including at least one extrusion head movably mounted in space relative to and above a fixed horizontal plate , said 3D printing machine allowing the deposition of a string (7i,j) of inorganic composition to build, from a 3D digital model (M), a manipulable three-dimensional raw structure intended to form the monolithic inorganic porous support(s) , the method consisting of: - having the inorganic composition , said inorganic composition , including a first powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a second phase in the form of a matrix comprising at least one hot-melt polymer, - supplying the extrusion head of the 3D printing machine (I) with the inorganic composition , said extrusion head being at a temperature allowing the extrusion of the inorganic composition to form the string (7i,j), - building, using said string (7i,j) on said horizontal plate , the manipulable three-dimensional raw structure in accordance with the 3D digital model (M), - placing this manipulable three-dimensional raw structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 times the melting temperature of at least one material forming the powdery solid inorganic phase. - having the inorganic composition , said inorganic composition , including a first powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a second phase in the form of a matrix comprising at least one hot-melt polymer, - supplying the extrusion head of the 3D printing machine (I) with the inorganic composition , said extrusion head being at a temperature allowing the extrusion of the inorganic composition to form the string (7i,j), - building, using said string (7i,j) on said horizontal plate , the manipulable three-dimensional raw structure in accordance with the 3D digital model (M), - placing this manipulable three-dimensional raw structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 times the melting temperature of at least one material forming the powdery solid inorganic phase.
A controller apparatus comprising: a controller for communication with a storage device through a signal line; wherein the controller is configured to: detect a first signal on the signal line indicating a presence of the storage device on the signal line; and provide a second signal on the signal line to reset the storage device after a detection that the first signal indicates the presence of the storage device; characterized in that : the controller is further configured to send a power down command to the storage device through the signal line by holding the second signal for a predetermined amount of time, thereby signaling the storage device that in addition to resetting itself it should also trigger a power down sequence for the entire storage device. a controller for communication with a storage device through a signal line; wherein the controller is configured to: detect a first signal on the signal line indicating a presence of the storage device on the signal line; and provide a second signal on the signal line to reset the storage device after a detection that the first signal indicates the presence of the storage device; characterized in that : the controller is further configured to send a power down command to the storage device through the signal line by holding the second signal for a predetermined amount of time, thereby signaling the storage device that in addition to resetting itself it should also trigger a power down sequence for the entire storage device. detect a first signal on the signal line indicating a presence of the storage device on the signal line; and provide a second signal on the signal line to reset the storage device after a detection that the first signal indicates the presence of the storage device;
A transmission method for increasing a capacity of reception data for a Line of Sight, LOS, environment, comprising: selecting one matrix from among N matrices F[i], wherein i is an integer no less than 0 and no more than N-1, and N is an integer 3 or greater, by hopping between the matrices over each of a plurality of slots, the N matrices F[i] defining a precoding process that is performed on a plurality of baseband signals; generating a first precoded signal z1 and a second precoded signal z2 by performing the precoding process, which corresponds to the matrix selected from among the N matrices F[i], over each of the plurality of slots on a first baseband signal s1 included in the plurality of baseband signals, a second baseband signal s2 included in the plurality of baseband signals; and transmitting the first precoded signal z1, and the second precoded signal z2 being transmitted from a first transmission antenna and a second transmission antenna respectively in the same frequency at the same time when the precoding process is performed, wherein the first precoded signal z1 and the second precoded signal z2 satisfy (z1, z2) T = F[i] (s1, s2) T , the N matrices F[i] are expressed as: F i = 1 α 2 + 1 e jθ 11 i α × e j θ 11 i + λ α × e jθ 21 i e j θ 21 i + λ + π λ representing an arbitrary angle, α representing a positive real number, θ 11 (i) and θ 21 (i) satisfying: e j θ 11 x − θ 21 x ≠ e j θ 11 y − θ 21 y wherein x and y are any integers no less than 0 and no more than N-1, satisfying x ≠ y, and each of the N matrices is selected at least once in a determined number of slots. selecting one matrix from among N matrices F[i], wherein i is an integer no less than 0 and no more than N-1, and N is an integer 3 or greater, by hopping between the matrices over each of a plurality of slots, the N matrices F[i] defining a precoding process that is performed on a plurality of baseband signals; generating a first precoded signal z1 and a second precoded signal z2 by performing the precoding process, which corresponds to the matrix selected from among the N matrices F[i], over each of the plurality of slots on a first baseband signal s1 included in the plurality of baseband signals, a second baseband signal s2 included in the plurality of baseband signals; and transmitting the first precoded signal z1, and the second precoded signal z2 being transmitted from a first transmission antenna and a second transmission antenna respectively in the same frequency at the same time when the precoding process is performed, wherein the first precoded signal z1 and the second precoded signal z2 satisfy (z1, z2) T = F[i] (s1, s2) T , the N matrices F[i] are expressed as: F i = 1 α 2 + 1 e jθ 11 i α × e j θ 11 i + λ α × e jθ 21 i e j θ 21 i + λ + π λ representing an arbitrary angle, α representing a positive real number, θ 11 (i) and θ 21 (i) satisfying: e j θ 11 x − θ 21 x ≠ e j θ 11 y − θ 21 y wherein x and y are any integers no less than 0 and no more than N-1, satisfying x ≠ y, and each of the N matrices is selected at least once in a determined number of slots.