mhurhangee/ep-ind-claims huggingface dataset:
A method for uplink data transmission, comprising: sending, by a centralized processing node, control information to evolved remote radio units, ERRUs, in a coordinated multipoint transmission and reception, COMP, set, the COMP set being composed of a plurality of ERRUs that jointly receive data of a user, wherein the control information comprises the address information of a service ERRU in the COMP set and the transmission mode of ERRUs in the COMP set, and the other ERRUs excluding the service ERRU in the COMP set are non-service ERRUs; receiving, by the centralised processing node, compressed uplink COMP data in a frequency domain sent by the service ERRU in the COMP set according to the transmission mode, wherein the compressed uplink COMP data in the frequency domain are data obtained by the service ERRU by compressing original uplink COMP data in the frequency domain sent by a non-service ERRU in the COMP set and the original uplink COMP data in the frequency domain of the service ERRU, and receiving the original uplink COMP data in the frequency domain sent by at least one ERRU in the COMP set according to the transmission mode. sending, by a centralized processing node, control information to evolved remote radio units, ERRUs, in a coordinated multipoint transmission and reception, COMP, set, the COMP set being composed of a plurality of ERRUs that jointly receive data of a user, wherein the control information comprises the address information of a service ERRU in the COMP set and the transmission mode of ERRUs in the COMP set, and the other ERRUs excluding the service ERRU in the COMP set are non-service ERRUs; receiving, by the centralised processing node, compressed uplink COMP data in a frequency domain sent by the service ERRU in the COMP set according to the transmission mode, wherein the compressed uplink COMP data in the frequency domain are data obtained by the service ERRU by compressing original uplink COMP data in the frequency domain sent by a non-service ERRU in the COMP set and the original uplink COMP data in the frequency domain of the service ERRU, and receiving the original uplink COMP data in the frequency domain sent by at least one ERRU in the COMP set according to the transmission mode.
A method for processing graphical instruction data of a graphical interface for interaction with a user, the graphical user interface to be generated by a graphical rendering application programming interface, API, on a user equipment based on the graphical instruction data, the method being applied to a cloud interactive system, the cloud interactive system comprising a server and the user equipment, the graphical instruction data being sent from the server to the user equipment in frames and the method comprising: obtaining, by the server, graphical instruction data of a frame; determining whether the frame meets a key frame setting condition; comparing the graphical instruction data of the frame with graphical instruction data of a current key frame to obtain differential data, in a case that the frame does not meet the key frame setting condition; and sending the differential data to the user equipment, wherein the user equipment obtains the graphical instruction data of the frame based on the current key frame and the differential data, wherein the graphical instruction data is data that is generated, by the server, by capturing a drawing operation for the graphical user interface of each frame, recording a rendering instruction for graphical drawing, and generating the graphical instruction data of the frame. obtaining, by the server, graphical instruction data of a frame; determining whether the frame meets a key frame setting condition; comparing the graphical instruction data of the frame with graphical instruction data of a current key frame to obtain differential data, in a case that the frame does not meet the key frame setting condition; and sending the differential data to the user equipment, wherein the user equipment obtains the graphical instruction data of the frame based on the current key frame and the differential data, wherein the graphical instruction data is data that is generated, by the server, by capturing a drawing operation for the graphical user interface of each frame, recording a rendering instruction for graphical drawing, and generating the graphical instruction data of the frame.
An immunogenic composition comprising two different meningococcal fHBP antigens, both of which are adsorbed to aluminium hydroxyphosphate adjuvant, wherein (i) both of the meningococcal fHBP antigens have an isoelectric point between 5.0 and 7.0, (ii) the aluminium hydroxyphosphate adjuvant has a point of zero charge between 5.0 and 7.0, and (iii) the composition includes a buffer to maintain pH in the range of 5.0 to 7.0.
A forehead support for a mask assembly, comprising: a support provided to a mask frame; a forehead cushion support movably mounted to the support; and an adjustment knob; characterized in that the adjustment knob is threadably engaged with the forehead cushion support such that turning movement of the adjustment knob causes a generally linear movement moving the forehead cushion support between a retracted position away from a patient's forehead with respect to the support and an extended position towards a patient's forehead with respect to the support. a support provided to a mask frame; a forehead cushion support movably mounted to the support; and an adjustment knob; characterized in that the adjustment knob is threadably engaged with the forehead cushion support such that turning movement of the adjustment knob causes a generally linear movement moving the forehead cushion support between a retracted position away from a patient's forehead with respect to the support and an extended position towards a patient's forehead with respect to the support.
A method of forming a medical device comprising a conductive graphene film, the method comprising: forming a graphene film over a substrate; depositing, by gas phase deposition, a polymer material covering a surface of the graphene film; removing the substrate from the graphene film, wherein the polymer material forms a support for the graphene film. forming a graphene film over a substrate; depositing, by gas phase deposition, a polymer material covering a surface of the graphene film; removing the substrate from the graphene film, wherein the polymer material forms a support for the graphene film.
A piston, comprising: an upper part providing an upper combustion surface including a top land, a land ring, a combustion bowl and an undercrown surface formed under the combustion bowl; and a lower part including pin bosses and a piston skirt formed under the undercrown surface, wherein at least one of the upper part and the lower part are formed with metal injection molding. an upper part providing an upper combustion surface including a top land, a land ring, a combustion bowl and an undercrown surface formed under the combustion bowl; and a lower part including pin bosses and a piston skirt formed under the undercrown surface, wherein at least one of the upper part and the lower part are formed with metal injection molding.
Tamping machine comprising at least one first tamping unit comprising first tamping tools (40, 42) and a first hydraulic motor that is provided with a first drive shaft driving the first tamping tools (40, 42) so as to generate tamping movements, and a second tamping unit adjacent to the first tamping unit and comprising second tamping tools (44, 46) and a second hydraulic motor that is provided with a second drive shaft driving the second tamping tools (44, 46) so as to generate tamping movements, wherein the first tamping unit and the second tamping unit are positioned with respect to one another such that, in a synchronized working position, the first tamping unit serves to tamp a first track crosstie and the second tamping unit serves to tamp a second track crosstie that is directly adjacent to the first track crosstie, given a standard spacing between the first track crosstie and the second track crosstie characterized in that the tamping machine comprises means for the synchronized supply of the first hydraulic motor and of the second hydraulic motor.
A coated part comprising a metallic and/or intermetallic substrate and a protective coating (2; 2'; 2"; 2"') forming a thermal barrier covering said substrate, the protective coating comprising a ceramic first layer and the part being characterized in that the protective coating further comprises a second layer (23; 26) present on the first layer, the second layer comprising a majority by weight of a first feldspar mineral having a melting temperature higher than or equal to 1010°C and presenting a thickness greater than or equal to 10 μm, the second layer presenting a degree of crystallinity that is greater than or equal to 5%.
A compound of formula I: wherein A is x-C(R 10 R 11)-C(=O)-, x-C(R 12 R 13)-C(=S)-, x-O-C(=O)-, x-O-C(=S)-, x-N(R 14)-C(=O)-, x-N(R 15)-C(=S)-or x-C(R 16 R 17)-SO 2 -, x-N=C(R 30)-, in each case x indicates the bond that is connected to R 1; T is CR 18 or N; Y 1, Y 2, Y 3, and Y 4 are independently CR 19 or N; Q is O or S; n is 1 or 2; p is 1 or 2, providing that when n is 2, p is 1. R 1 is selected from group (c) or (d): wherein R 22, R 23, R 24 and R 25 are independently selected from hydrogen, halogen, methyl and halomethyl, R 2, R 3, R 4, R 5, R 6, R 7, R 10, R 11, R 12, R 13, R 16, R 17, R 18,R 19 and R 30 each independently are hydrogen, halogen, cyano, C 1 -C 4 alkyl, or C 1 -C 4 haloalkyl; R 8, R 14 and R 15 each independently are hydrogen or C 1 -C 4 alkyl; and R 9 is phenyl, benzyl or group (a): wherein the phenyl, benzyl and group (a) are each optionally substituted with 1 to 3 substituents independently selected from C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, halogen, cyano, hydroxy and amino; or a salt or a N-oxide thereof. A is x-C(R 10 R 11)-C(=O)-, x-C(R 12 R 13)-C(=S)-, x-O-C(=O)-, x-O-C(=S)-, x-N(R 14)-C(=O)-, x-N(R 15)-C(=S)-or x-C(R 16 R 17)-SO 2 -, x-N=C(R 30)-, in each case x indicates the bond that is connected to R 1; T is CR 18 or N; Y 1, Y 2, Y 3, and Y 4 are independently CR 19 or N; Q is O or S; n is 1 or 2; p is 1 or 2, providing that when n is 2, p is 1. R 1 is selected from group (c) or (d): wherein R 22, R 23, R 24 and R 25 are independently selected from hydrogen, halogen, methyl and halomethyl, R 2, R 3, R 4, R 5, R 6, R 7, R 10, R 11, R 12, R 13, R 16, R 17, R 18,R 19 and R 30 each independently are hydrogen, halogen, cyano, C 1 -C 4 alkyl, or C 1 -C 4 haloalkyl; R 8, R 14 and R 15 each independently are hydrogen or C 1 -C 4 alkyl; and R 9 is phenyl, benzyl or group (a): wherein the phenyl, benzyl and group (a) are each optionally substituted with 1 to 3 substituents independently selected from C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, halogen, cyano, hydroxy and amino; or a salt or a N-oxide thereof.
A porous hollow fiber membrane having a graft chain on a pore surface and an anion-exchange group fixed to the graft chain, wherein: the base material of the porous hollow fiber membrane is polyethylene or polyvinylidene fluoride, the graft chain is a polymer of glycidyl methacrylate and has a graft rate of from 10% to 90% (both inclusive), and wherein the anion-exchange group is selected from the group consisting of a diethylamino (DEA, Et 2 N-) group, a quaternary ammonium (Q, R 3 N + -) group, a quaternary aminoethyl (QAE, R 3 N + -(CH 2) 2 -) group, a diethylaminoethyl (DEAE, Et 2 N- (CH 2) 2 -) group, and a diethylaminopropyl (DEAP, Et 2 N-(CH 2) 3 -) group wherein R's bonded to the same N may be the same or different and R represents an alkyl group, a phenyl group or an aralkyl group, and when a bovine serum albumin solution dissolved at a concentration of 1 g/L in a 20 mmol/L Tris-HCI (pH 8.0) buffer containing 0.1 mol/L of a salt is passed through the porous hollow fiber membrane, the dynamic adsorption volume calculated from the volume of the BSA solution passed through by the time point at which the concentration of BSA in the filtrate has exceeded 0.1 g/L is 10 mg/mL or more, wherein the dynamic adsorption volume is determined as described in the description. the base material of the porous hollow fiber membrane is polyethylene or polyvinylidene fluoride, the graft chain is a polymer of glycidyl methacrylate and has a graft rate of from 10% to 90% (both inclusive), and wherein the anion-exchange group is selected from the group consisting of a diethylamino (DEA, Et 2 N-) group, a quaternary ammonium (Q, R 3 N + -) group, a quaternary aminoethyl (QAE, R 3 N + -(CH 2) 2 -) group, a diethylaminoethyl (DEAE, Et 2 N- (CH 2) 2 -) group, and a diethylaminopropyl (DEAP, Et 2 N-(CH 2) 3 -) group wherein R's bonded to the same N may be the same or different and R represents an alkyl group, a phenyl group or an aralkyl group, and when a bovine serum albumin solution dissolved at a concentration of 1 g/L in a 20 mmol/L Tris-HCI (pH 8.0) buffer containing 0.1 mol/L of a salt is passed through the porous hollow fiber membrane, the dynamic adsorption volume calculated from the volume of the BSA solution passed through by the time point at which the concentration of BSA in the filtrate has exceeded 0.1 g/L is 10 mg/mL or more, wherein the dynamic adsorption volume is determined as described in the description.
A polishing device (1, 101) that polishes surfaces of a plurality of workpieces, the polishing device comprising: a processing vessel (10, 110) that includes a bottom surface portion (12, 112) having a surface side and a back side and allows the plurality of the workpieces to stay on the surface side of the bottom surface portion (12, 112), and a fluidizing unit that fluidizes the plurality of the workpieces in the processing vessel (10, 110); characterized by an abrasive-feeding unit (30, 130) that feeds the abrasive to the surface side of the bottom surface portion (12, 112), such that it is not scattered to the surroundings; and an opening formed on the bottom surface portion (12, 112) allowing the abrasive to pass therethrough; and a suction unit (40, 140) that generates an air flow in a direction from the surface side to the back side of the bottom surface portion (12, 112), and recovers the abrasive by suction, on the back side of the bottom surface portion (12, 112). a processing vessel (10, 110) that includes a bottom surface portion (12, 112) having a surface side and a back side and allows the plurality of the workpieces to stay on the surface side of the bottom surface portion (12, 112), and a fluidizing unit that fluidizes the plurality of the workpieces in the processing vessel (10, 110); characterized by an abrasive-feeding unit (30, 130) that feeds the abrasive to the surface side of the bottom surface portion (12, 112), such that it is not scattered to the surroundings; and an opening formed on the bottom surface portion (12, 112) allowing the abrasive to pass therethrough; and a suction unit (40, 140) that generates an air flow in a direction from the surface side to the back side of the bottom surface portion (12, 112), and recovers the abrasive by suction, on the back side of the bottom surface portion (12, 112).
An apparatus comprising: a first member (120, 130); a shaft (40, 50) rotatable relative to the first member about an axis; and a seal system comprising: a seal carrier having: an axially-extending wall having an inner diameter surface; and a radially-extending wall having a first surface; a seal carried by the seal carrier and having a seal face; a seat carried by the shaft (40, 50) and having a seat face in sliding sealing engagement with the seal face; and one or more springs biasing the seal carrier relative to the first member (120, 130) so as to bias the seal face against the seat face, wherein: the seal carrier axially-extending wall ID surface has a radially inwardly open groove having a first sidewall and a second sidewall and a base; and characterised in that the seal system further comprises a wave-form split ring contacting the first sidewall and biasing the seal into engagement with the radial wall first surface. a first member (120, 130); a shaft (40, 50) rotatable relative to the first member about an axis; and a seal system comprising: a seal carrier having: an axially-extending wall having an inner diameter surface; and a radially-extending wall having a first surface; a seal carried by the seal carrier and having a seal face; a seat carried by the shaft (40, 50) and having a seat face in sliding sealing engagement with the seal face; and one or more springs biasing the seal carrier relative to the first member (120, 130) so as to bias the seal face against the seat face, a seal carrier having: an axially-extending wall having an inner diameter surface; and a radially-extending wall having a first surface; an axially-extending wall having an inner diameter surface; and a radially-extending wall having a first surface; a seal carried by the seal carrier and having a seal face; a seat carried by the shaft (40, 50) and having a seat face in sliding sealing engagement with the seal face; and one or more springs biasing the seal carrier relative to the first member (120, 130) so as to bias the seal face against the seat face, wherein: the seal carrier axially-extending wall ID surface has a radially inwardly open groove having a first sidewall and a second sidewall and a base; and characterised in that the seal system further comprises a wave-form split ring contacting the first sidewall and biasing the seal into engagement with the radial wall first surface. the seal carrier axially-extending wall ID surface has a radially inwardly open groove having a first sidewall and a second sidewall and a base; and characterised in that the seal system further comprises a wave-form split ring contacting the first sidewall and biasing the seal into engagement with the radial wall first surface.
A base station for a cellular communications network, comprising: a radio subsystem; and a processing subsystem associated with the radio subsystem and configured to transmit, via the radio subsystem, a non-standardized bandwidth carrier (20, 24) and information that identifies a standardized bandwidth and additional information that, together with the information that identifies the standardized bandwidth, defines a non-standardized bandwidth of the non-standardized bandwidth carrier (20, 24), wherein the standardized bandwidth is greater than the non-standardized bandwidth, and the additional information is information that restricts use of frequency resources of the standardized bandwidth to provide the non-standardized bandwidth. a radio subsystem; and a processing subsystem associated with the radio subsystem and configured to transmit, via the radio subsystem, a non-standardized bandwidth carrier (20, 24) and information that identifies a standardized bandwidth and additional information that, together with the information that identifies the standardized bandwidth, defines a non-standardized bandwidth of the non-standardized bandwidth carrier (20, 24), wherein the standardized bandwidth is greater than the non-standardized bandwidth, and the additional information is information that restricts use of frequency resources of the standardized bandwidth to provide the non-standardized bandwidth.
A method for isolating and/or quantifying exosomes in a sample, comprising the steps of, (a) contacting a plurality of lectin-modified magnetic beads with the sample to obtain a first mixture, wherein the plurality of lectin-modified magnetic beads are suspended in an exosome-free buffer, and each lectin-modified magnetic bead comprises a plurality of lectin molecules that are covalently bonded to the magnetic bead, wherein the exosome-free buffer is an exosome-free bovine serum albumin or exosome-free human serum albumin, and the lectin is galectin-3; (b) incubating the first mixture at a condition allowing the exosomes to conjugate with the lectin molecules of the lectin-modified magnetic beads thereby obtaining a second mixture comprising a plurality of exosome-bead complexes; and (c) subjecting the second mixture from the step (b) to a magnetic field, thereby separating the exosome-bead complexes from the remainder of the second mixture. (a) contacting a plurality of lectin-modified magnetic beads with the sample to obtain a first mixture, wherein the plurality of lectin-modified magnetic beads are suspended in an exosome-free buffer, and each lectin-modified magnetic bead comprises a plurality of lectin molecules that are covalently bonded to the magnetic bead, wherein the exosome-free buffer is an exosome-free bovine serum albumin or exosome-free human serum albumin, and the lectin is galectin-3; (b) incubating the first mixture at a condition allowing the exosomes to conjugate with the lectin molecules of the lectin-modified magnetic beads thereby obtaining a second mixture comprising a plurality of exosome-bead complexes; and (c) subjecting the second mixture from the step (b) to a magnetic field, thereby separating the exosome-bead complexes from the remainder of the second mixture.
A valve system, comprising: a valve body comprising a first void and a second void; an inlet component coupled to the first void; an outlet component coupled to the second void; a valve tube coupled to the first void, the inlet component, the second void, and the outlet component, the valve tube comprising a side port; characterized in that the valve body is a septum or septa, and in that the valve tube is positioned through the septum or septa stretching the septum or septa over the valve tube to create a seal. a valve body comprising a first void and a second void; an inlet component coupled to the first void; an outlet component coupled to the second void; a valve tube coupled to the first void, the inlet component, the second void, and the outlet component, the valve tube comprising a side port; characterized in that the valve body is a septum or septa, and in that the valve tube is positioned through the septum or septa stretching the septum or septa over the valve tube to create a seal.