mhurhangee/patent-ind-claim-en huggingface dataset:
A method of establishing a sample tube set which is adapted to be processed by a laboratory automation system, the method comprising: - selecting a sample tube set comprising several sample tube types by selecting a plurality of different sample tube types from an assortment of available sample tube types; - obtaining a parameter of distribution for at least one detection parameter of each sample tube type comprised in said sample tube set, wherein the parameter of distribution comprises information regarding a distribution of previously detected reference data values of the at least one detection parameter; - determining whether or not the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set by comparing the parameter of distribution for the at least one detection parameter of each sample tube type comprised in said sample tube set with the parameter of distribution for the at least one detection parameter of all the other sample tube types comprised in said sample tube set; and - indicating that the selected sample tube set is approved for being processed by the laboratory automation system, if it is determined that the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set, or - proposing at least one conflict remediation, if it is determined that the laboratory automation system is not capable of identifying each sample tube type comprised in said sample tube set. - selecting a sample tube set comprising several sample tube types by selecting a plurality of different sample tube types from an assortment of available sample tube types; - obtaining a parameter of distribution for at least one detection parameter of each sample tube type comprised in said sample tube set, wherein the parameter of distribution comprises information regarding a distribution of previously detected reference data values of the at least one detection parameter; - determining whether or not the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set by comparing the parameter of distribution for the at least one detection parameter of each sample tube type comprised in said sample tube set with the parameter of distribution for the at least one detection parameter of all the other sample tube types comprised in said sample tube set; and - indicating that the selected sample tube set is approved for being processed by the laboratory automation system, if it is determined that the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set, or - proposing at least one conflict remediation, if it is determined that the laboratory automation system is not capable of identifying each sample tube type comprised in said sample tube set.
Measuring apparatus for measuring a predetermined physical property of a liquid measuring sample, the measuring apparatus comprising: a preparing unit for preparing the liquid measuring sample; and a supply route connected to the preparing unit and configured to supply a liquid material to the preparing unit in order to prepare the liquid measuring sample; characterised by a withdrawing unit configured to withdraw the liquid measuring sample from the preparing unit into the supply route ; and a measuring unit installed on the supply route ; wherein the measuring unit is configured to measure the predetermined physical property of the liquid measuring sample withdrawn into the supply route by the withdrawing unit. a preparing unit for preparing the liquid measuring sample; and a supply route connected to the preparing unit and configured to supply a liquid material to the preparing unit in order to prepare the liquid measuring sample; characterised by a withdrawing unit configured to withdraw the liquid measuring sample from the preparing unit into the supply route ; and a measuring unit installed on the supply route ; wherein the measuring unit is configured to measure the predetermined physical property of the liquid measuring sample withdrawn into the supply route by the withdrawing unit.
A method for controlling a passenger conveyor , which passenger conveyor comprises an endless band of conveying elements , the endless band comprising an inclined conveying section (I); a drive shaft arranged to drive the endless band of conveying elements when rotated; a motor for rotating the drive shaft ; a first sensing arrangement for sensing a rotation speed of the motor ; a brake (7;7') activatable to act directly on the drive shaft or an element (8;10) fixedly connected to it for stopping rotation of the drive shaft ; a control system ; wherein the method comprises rotating the drive shaft with the motor ; and sensing rotation speed of the motor with the first sensing arrangement , characterized in that the passenger conveyor comprises a second sensing arrangement (6;6') for sensing rotation speed of the drive shaft ; and the method comprises sensing rotation speed of the drive shaft with the second sensing arrangement (6;6'); and detecting deviation between the rotation speed of the motor and the rotation speed of the drive shaft or a multifold thereof; and activating the brake (7;7') for stopping rotation of the drive shaft if deviation, in particular deviation meeting predefined criteria, is detected between the rotation speed of the motor and the rotation speed of the drive shaft or a multifold thereof, wherein said multifold equals to the rotation speed of the drive shaft multiplied with a preset factor n, wherein n preferably equals to transmission ratio between the drive shaft and the motor . an endless band of conveying elements , the endless band comprising an inclined conveying section (I); a drive shaft arranged to drive the endless band of conveying elements when rotated; a motor for rotating the drive shaft ; a first sensing arrangement for sensing a rotation speed of the motor ; a brake (7;7') activatable to act directly on the drive shaft or an element (8;10) fixedly connected to it for stopping rotation of the drive shaft ; a control system ; wherein the method comprises rotating the drive shaft with the motor ; and sensing rotation speed of the motor with the first sensing arrangement , characterized in that the passenger conveyor comprises a second sensing arrangement (6;6') for sensing rotation speed of the drive shaft ; and the method comprises sensing rotation speed of the drive shaft with the second sensing arrangement (6;6'); and detecting deviation between the rotation speed of the motor and the rotation speed of the drive shaft or a multifold thereof; and activating the brake (7;7') for stopping rotation of the drive shaft if deviation, in particular deviation meeting predefined criteria, is detected between the rotation speed of the motor and the rotation speed of the drive shaft or a multifold thereof, wherein said multifold equals to the rotation speed of the drive shaft multiplied with a preset factor n, wherein n preferably equals to transmission ratio between the drive shaft and the motor .
A downstream data frame transmitting method, wherein the method is applied to a passive optical network, PON, system and comprises: generating , by an optical line terminal, OLT, a downstream data frame, wherein the downstream data frame comprises a frame header and a payload, the frame header comprises a physical synchronization sequence, Psync, field, and the Psync field is used to identify the downstream data frame, and to indicate whether or not payload data is protected by forward error correction, FEC, wherein the frame header comprises a reserved, REV, field, and the REV field is used to increase a length of the Psync field for indicating whether or not payload data is protected by FEC, wherein when a value of the Psync field is a first value, the Psync field is further used to indicate that payload data is protected by FEC; or when a value of the Psync field is a second value, the Psync field is further used to indicate that payload data is not protected by FEC; and wherein a Hamming distance between the first value and the second value is the largest; and sending , by the OLT, the downstream data frame. generating , by an optical line terminal, OLT, a downstream data frame, wherein the downstream data frame comprises a frame header and a payload, the frame header comprises a physical synchronization sequence, Psync, field, and the Psync field is used to identify the downstream data frame, and to indicate whether or not payload data is protected by forward error correction, FEC, wherein the frame header comprises a reserved, REV, field, and the REV field is used to increase a length of the Psync field for indicating whether or not payload data is protected by FEC, wherein when a value of the Psync field is a first value, the Psync field is further used to indicate that payload data is protected by FEC; or when a value of the Psync field is a second value, the Psync field is further used to indicate that payload data is not protected by FEC; and wherein a Hamming distance between the first value and the second value is the largest; and sending , by the OLT, the downstream data frame.
Hybrid motor vehicle comprising a hydraulic circuit used for the traction of this vehicle, this hydraulic circuit comprising a low pressure circuit supplied by a booster pump drawing from a very low pressure tank , this very low tank pressure being sealed, and comprising a device for depressurizing the internal volume relative to atmospheric pressure, characterized in that the hydraulic circuit comprises a calibrated non-return valve arranged in parallel of the booster pump , allowing a passage of the fluid from downstream to upstream, in order to limit the outlet pressure to the pressure required in the low pressure circuit .
An intravascular blood pump , comprising a drive section which has a motor housing having a proximal end and a distal end and an electric motor disposed in the motor housing, with the electric motor possessing a motor shaft which protrudes at one end out of the distal end of the motor housing and is mounted radially in the motor housing both at the proximal end and at the distal end of the motor housing, a catheter which is connected to the proximal end of the motor housing and along which there extend lines for power supply to the electric motor, and a pump section having a tubular pump housing which is fastened to the distal end of the motor housing , and an impeller which is seated on the end of the motor shaft protruding out of the distal end of the motor housing and is rotatable in the pump housing , the motor shaft is mounted in the motor housing axially by means of at least one axial sliding bearing or radial-axial sliding bearing , characterized in that lead wires of the electric motor and the lines extending along the catheter are connected electroconductively on a surface located proximally of the radial bearing situated at the proximal end of the motor housing.
A method for manufacturing a retread tire, wherein, during vulcanization of a unvulcanized tread by using a vulcanization press apparatus, a non-vulcanizable sheet is placed between the vulcanization press apparatus and the unvulcanized tread, and wherein loss tangent (tanδ a ) of strain at 2% at 25 °C at a position (a) within 1 mm deep from a tire tread outer surface in a direction perpendicular to a tread surface and loss tangent (tanδ b ) of strain at 2% at 25 °C at a position (b) within 2 mm from a median center between a tread portion outer surface and a bottom surface in the direction perpendicular to the tread surface satisfy the following relationship: − 0.05 ≤ tanδ a − tanδ b / tanδ b ≤ 0.05 , wherein the non-vulcanizable sheet is paper or nonwoven fabric, wherein, where T represents a time from start of vulcanization to a time when temperature reaches 99.5% of maximum vulcanization temperature, after T/4 minutes, a vulcanization degree (A T/4 ) at the position (a) within 1 mm deep from the tire tread outer surface in the direction perpendicular to the tread surface and a vulcanization degree (B T/4 ) at the position (b) within 2 mm from the median center between the tread portion outer surface and the bottom surface in the direction perpendicular to the tread surface satisfy the following relationship: 0 ≤ A T / 4 ≤ 0.13 , 0 ≤ B T / 4 ≤ 0.05 , and also, after T/2 minutes, a vulcanization degree (A T/2 ) at the position (a) within 1 mm deep from the tire tread outer surface in the direction perpendicular to the tread surface and a vulcanization degree (B T/2 ) at the position (b) within 2 mm from the median center between the tread portion outer surface and the bottom surface in the direction perpendicular to the tread surface satisfy the following relationship: 0.1 ≤ A T / 2 ≤ 0.29 , 0.05 ≤ B T / 2 ≤ 0.2 . wherein the non-vulcanizable sheet is paper or nonwoven fabric, wherein, where T represents a time from start of vulcanization to a time when temperature reaches 99.5% of maximum vulcanization temperature, after T/4 minutes, a vulcanization degree (A T/4 ) at the position (a) within 1 mm deep from the tire tread outer surface in the direction perpendicular to the tread surface and a vulcanization degree (B T/4 ) at the position (b) within 2 mm from the median center between the tread portion outer surface and the bottom surface in the direction perpendicular to the tread surface satisfy the following relationship: 0 ≤ A T / 4 ≤ 0.13 , 0 ≤ B T / 4 ≤ 0.05 , and also, after T/2 minutes, a vulcanization degree (A T/2 ) at the position (a) within 1 mm deep from the tire tread outer surface in the direction perpendicular to the tread surface and a vulcanization degree (B T/2 ) at the position (b) within 2 mm from the median center between the tread portion outer surface and the bottom surface in the direction perpendicular to the tread surface satisfy the following relationship: 0.1 ≤ A T / 2 ≤ 0.29 , 0.05 ≤ B T / 2 ≤ 0.2 .
An aromatic polycarbonate resin composition, which comprises: per 100 mass parts of an aromatic polycarbonate resin (A) comprising an aromatic polycarbonate resin (a1) with a viscosity average molecular weight of 3 × 10 3 to 2.5 × 10 4 and an aromatic polycarbonate resin (a2) with a viscosity average molecular weight of 5 × 10 4 to 9 × 10 4 in a ratio such that, when a total quantity of aromatic polycarbonate resins (a1) and (a2) is denoted as 100 mass percent, (a1):(a2) = 90 mass percent to 60 mass percent : 10 mass percent to 40 mass percent, the viscosity average molecular weight being determined by measuring a 0.2 g/dL dichloromethane solution of the polycarbonate resin at a temperature of 20°C with an Ubbelohde capillary viscometer, calculating the limit viscosity [η] dL/g at a Huggins constant of 0.45, and calculating with the following formula: η = 1.23 × 10 − 4 × Mv 0.83 ; 0.01 to 10 mass parts of microparticles (B) selected from the group consisting of polyorganosilsesquioxane microparticles and (meth)acrylic resin microparticles; and 0.005 mass part to 0.1 mass part of a flame retardant (C) in the form of organic sulfonic acid metal salt; wherein a molten resin quantity Q value flowing out of an orifice 1 mm in diameter x 10 mm in length at a temperature of 280°C at a load of 1.57 × 10 7 Pa using a constant-load orifice-type flow tester is equal to or greater than 0.01 cm 3 /second and equal to or lower than 0.1 cm 3 /second. per 100 mass parts of an aromatic polycarbonate resin (A) comprising an aromatic polycarbonate resin (a1) with a viscosity average molecular weight of 3 × 10 3 to 2.5 × 10 4 and an aromatic polycarbonate resin (a2) with a viscosity average molecular weight of 5 × 10 4 to 9 × 10 4 in a ratio such that, when a total quantity of aromatic polycarbonate resins (a1) and (a2) is denoted as 100 mass percent, (a1):(a2) = 90 mass percent to 60 mass percent : 10 mass percent to 40 mass percent, the viscosity average molecular weight being determined by measuring a 0.2 g/dL dichloromethane solution of the polycarbonate resin at a temperature of 20°C with an Ubbelohde capillary viscometer, calculating the limit viscosity [η] dL/g at a Huggins constant of 0.45, and calculating with the following formula: η = 1.23 × 10 − 4 × Mv 0.83 ; 0.01 to 10 mass parts of microparticles (B) selected from the group consisting of polyorganosilsesquioxane microparticles and (meth)acrylic resin microparticles; and 0.005 mass part to 0.1 mass part of a flame retardant (C) in the form of organic sulfonic acid metal salt; wherein a molten resin quantity Q value flowing out of an orifice 1 mm in diameter x 10 mm in length at a temperature of 280°C at a load of 1.57 × 10 7 Pa using a constant-load orifice-type flow tester is equal to or greater than 0.01 cm 3 /second and equal to or lower than 0.1 cm 3 /second.
A semiconductor sintered body comprising a polycrystalline body, wherein the polycrystalline body includes silicon or a silicon alloy, an average particle size of crystal grains forming the polycrystalline body is 1 μm or less but not less than 1 nm, and the semiconductor sintered body has an electrical conductivity of 50,000 S/m or higher and a thermal conductivity of 10 W/m-K or less. wherein the polycrystalline body includes silicon or a silicon alloy, an average particle size of crystal grains forming the polycrystalline body is 1 μm or less but not less than 1 nm, and the semiconductor sintered body has an electrical conductivity of 50,000 S/m or higher and a thermal conductivity of 10 W/m-K or less.
A method of manufacturing curved laminated glass, the method comprising: preparing curved soda lime glass; providing a functional layer on one surface of plate-like alkali-free glass; disposing a laminated film or a bonding agent between the curved soda lime glass and the functional layer; and manufacturing curved laminated glass by elastically deforming the alkali-free glass to laminate the alkali-free glass so as to be matched with the curved soda lime glass; wherein the functional layer is a transparent heat generating layer, a transparent display unit, or a color changing layer. preparing curved soda lime glass; providing a functional layer on one surface of plate-like alkali-free glass; disposing a laminated film or a bonding agent between the curved soda lime glass and the functional layer; and manufacturing curved laminated glass by elastically deforming the alkali-free glass to laminate the alkali-free glass so as to be matched with the curved soda lime glass; wherein the functional layer is a transparent heat generating layer, a transparent display unit, or a color changing layer.
An isolated antibody that binds to programmed cell death protein 1 (PD-1), comprising a HCVR having the sequence set forth in SEQ ID NO: 90 and a LCVR having the sequence set forth in SEQ ID NO: 96.
A method of quantifying the amount of fibre in a water, particulate and fibre mixture, comprising: providing a sample of the water, particulate and fibre mixture; filtering the sample of the water, particulate and fibre mixture to produce a particulate and fibre mixture; burning the particulate and fibre mixture to produce a fibre sample; dissolving the fibre sample to produce a fibre solution; analyzing the fibre solution to determine an elemental content of the fibre solution; and comparing the elemental content to a known elemental content to estimate the amount of fibre in the water, particulate and fibre mixture. providing a sample of the water, particulate and fibre mixture; filtering the sample of the water, particulate and fibre mixture to produce a particulate and fibre mixture; burning the particulate and fibre mixture to produce a fibre sample; dissolving the fibre sample to produce a fibre solution; analyzing the fibre solution to determine an elemental content of the fibre solution; and comparing the elemental content to a known elemental content to estimate the amount of fibre in the water, particulate and fibre mixture.
An apparatus for obtaining a plurality of portions of tissue from a biological tissue, comprising: a plurality of tubes each comprising at least two points provided at a distal end thereof; a plurality of pins each provided at least partially within a central lumen of each of the plurality of tubes ; and wherein the plurality of portions of tissue is depositable directly from the plurality of tubes into a biocompatible matrix configured to be placed on a donor site associated with the biological tissue, wherein an inner diameter of the tubes is less than about 1 mm, wherein at least one section of the tubes is structured to be inserted into the biological tissue at the donor site to simultaneously remove the portions of tissue therefrom when the at least one section of the tubes is withdrawn from the donor site , wherein the tubes are controllably translatable in a direction along a longitudinal axis of the pins, wherein the pins are configured to facilitate a removal of the portions of tissue from the tubes and deposit the portions of tissue directly in the biocompatible matrix , and at least one sensor arrangement configured to detect a presence of the portion of tissue within at least one of the plurality of tubes . a plurality of tubes each comprising at least two points provided at a distal end thereof; a plurality of pins each provided at least partially within a central lumen of each of the plurality of tubes ; and wherein the plurality of portions of tissue is depositable directly from the plurality of tubes into a biocompatible matrix configured to be placed on a donor site associated with the biological tissue, wherein an inner diameter of the tubes is less than about 1 mm, wherein at least one section of the tubes is structured to be inserted into the biological tissue at the donor site to simultaneously remove the portions of tissue therefrom when the at least one section of the tubes is withdrawn from the donor site , wherein the tubes are controllably translatable in a direction along a longitudinal axis of the pins, wherein the pins are configured to facilitate a removal of the portions of tissue from the tubes and deposit the portions of tissue directly in the biocompatible matrix , and at least one sensor arrangement configured to detect a presence of the portion of tissue within at least one of the plurality of tubes .
A method for wireless communications by a user equipment, UE, comprising: deciding that a starting subframe for a random access response, RAR, transmission or a single cell point to multipoint, SC-PTM, transmission will occur or has occurred; determining occurrence of a narrowband reference signal, NRS, in a non-anchor resource block, RB, based on one or more narrowband transmission parameters, wherein the narrowband transmission parameters comprise a length of a longest narrowband physical downlink control channel, NPDCCH, candidate and a minimum number of subframes, N, for transmission of NRSs after the end of the longest NPDCCH candidate; and processing the NRS in at least the length plus N subframes after the RAR transmission, or the SC-PTM transmission. deciding that a starting subframe for a random access response, RAR, transmission or a single cell point to multipoint, SC-PTM, transmission will occur or has occurred; determining occurrence of a narrowband reference signal, NRS, in a non-anchor resource block, RB, based on one or more narrowband transmission parameters, wherein the narrowband transmission parameters comprise a length of a longest narrowband physical downlink control channel, NPDCCH, candidate and a minimum number of subframes, N, for transmission of NRSs after the end of the longest NPDCCH candidate; and processing the NRS in at least the length plus N subframes after the RAR transmission, or the SC-PTM transmission.