mhurhangee/ep-ind-claims huggingface dataset:
A polymer composition, comprising: at least three ethylene-based polymers forming an at least trimodal composition distribution, each having a distinct crystallization peak in a CEF curve, wherein each ethylene-based polymer comprises an ethylene-1-hexene copolymer. at least three ethylene-based polymers forming an at least trimodal composition distribution, each having a distinct crystallization peak in a CEF curve, wherein each ethylene-based polymer comprises an ethylene-1-hexene copolymer.
A layered double hydroxide capable of delamination in water comprising: a plurality of basal layers of a double hydroxide of Formula: M 1-x M x 2 wherein M is Mg, M is Al, and x is 0.2 to 0.33, and a plurality of intercalation layers between each adjacent basal layers of Mg acetate and water of intercalation, said layered double hydroxide being produced by a process comprising the steps of: calcining a carbonate-type layered double hydroxide of Formula: [M 2+ 1-x M 3+ x 2][(CO 3) x/2 · yH 2 O] wherein y is a real number greater than zero; reacting the calcined product with an aqueous solution of Mg acetate; separating the resulting solid product from the solution; and drying and pulverizing the separated solid product. a plurality of basal layers of a double hydroxide of Formula: M 1-x M x 2 wherein M is Mg, M is Al, and x is 0.2 to 0.33, and a plurality of intercalation layers between each adjacent basal layers of Mg acetate and water of intercalation, said layered double hydroxide being produced by a process comprising the steps of: calcining a carbonate-type layered double hydroxide of Formula: [M 2+ 1-x M 3+ x 2][(CO 3) x/2 · yH 2 O] wherein y is a real number greater than zero; reacting the calcined product with an aqueous solution of Mg acetate; separating the resulting solid product from the solution; and drying and pulverizing the separated solid product.
Measurement nozzle for determining the extensional viscosity of polymer melts during the processing thereof, having a flow channel which has a rectangular cross section and which has, between an inlet section and an outlet section of in each case constant cross section, a crossover section which tapers in the flow direction, wherein the crossover section comprises an inlet-side zone, in which the mutual spacing between two mutually opposite first channel walls between two mutually opposite hyperbolic second channel walls decreases steadily in the flow direction, and an adjoining outlet-side zone, in which the two pairwise mutually opposite second channel walls extend parallel to one another while the two first channel walls arranged therebetween converge hyperbolically in the flow direction.
A multilayer film with weight between and including 15 and 22 g/m 2 for use in malodorous item packaging, where the film comprises at least a layer comprising polypropylene and a further layer comprising an oxygen barrier material having a weight of less than 1.5 g/m 2.
A data collection apparatus, comprising a processor configured to: receive a collection request for vehicle acquisition data obtained by each of a plurality of vehicles; generate collection condition data indicating a plurality of collection conditions of the vehicle acquisition data based on the received collection request; transmit the generated collection condition data to each of the plurality of vehicles; set the collection condition data to each of the plurality of vehicles; and receive and collect vehicle acquisition data satisfying the plurality of collection conditions transmitted from each of the plurality of vehicles, wherein the processor is further configured to generate and transmit to each of the plurality of vehicles tag data generation data for generating tag data, collect, from each of the plurality of vehicles, tag data of vehicle acquisition data satisfying the collection condition data, the tag data generated based on the tag data generation data, generate transmission instruction data for vehicle acquisition data based on the tag data, transmit the transmission instruction data to each of the plurality of vehicles, and receive and collect vehicle acquisition data transmitted from each of the plurality of vehicles based on the transmission instruction data. receive a collection request for vehicle acquisition data obtained by each of a plurality of vehicles; generate collection condition data indicating a plurality of collection conditions of the vehicle acquisition data based on the received collection request; transmit the generated collection condition data to each of the plurality of vehicles; set the collection condition data to each of the plurality of vehicles; and receive and collect vehicle acquisition data satisfying the plurality of collection conditions transmitted from each of the plurality of vehicles, wherein the processor is further configured to generate and transmit to each of the plurality of vehicles tag data generation data for generating tag data, collect, from each of the plurality of vehicles, tag data of vehicle acquisition data satisfying the collection condition data, the tag data generated based on the tag data generation data, generate transmission instruction data for vehicle acquisition data based on the tag data, transmit the transmission instruction data to each of the plurality of vehicles, and receive and collect vehicle acquisition data transmitted from each of the plurality of vehicles based on the transmission instruction data. generate and transmit to each of the plurality of vehicles tag data generation data for generating tag data, collect, from each of the plurality of vehicles, tag data of vehicle acquisition data satisfying the collection condition data, the tag data generated based on the tag data generation data, generate transmission instruction data for vehicle acquisition data based on the tag data, transmit the transmission instruction data to each of the plurality of vehicles, and receive and collect vehicle acquisition data transmitted from each of the plurality of vehicles based on the transmission instruction data.
Method for detecting Gα15 as a marker for pancreatic cancer comprising the steps of: a. determining the presence of mRNA encoding for Gα15 in a biological sample, wherein the presence of said mRNA encoding Gα15 is an indication of pancreatic cancer, wherein said biological sample is chosen from the group consisting of a blood sample, serum, saliva, urine, cystic fluid, postoperative drainage, pancreatic juice and faeces. a. determining the presence of mRNA encoding for Gα15 in a biological sample, wherein the presence of said mRNA encoding Gα15 is an indication of pancreatic cancer, wherein said biological sample is chosen from the group consisting of a blood sample, serum, saliva, urine, cystic fluid, postoperative drainage, pancreatic juice and faeces.
A mold for producing three-dimensional items, consisting of at least two mutually attachable pieces (1,2), and within which pieces (1,2) the volume of the item to be produced is delimited, - said pieces (1,2) having, owing to the mutually supporting surfaces, formations delimiting airtight chambers (5,6) between consecutively attached pieces; - at least one of the pieces (1,2) used to form part of each airtight chamber (5,6) having a pneumatic valve through which said chambers (5,6) are connected to a vacuum source, by means of which a sufficient negative pressure is created in the chambers (5,6) to fix to one another the pieces (1,2) delimiting such chambers (5,6); - the walls of the pieces (1,2) being non-deformable as a result of the negative pressure created within the chambers (5,6); the mold for producing three-dimensional items characterized in that said pieces (1,2) consist of a hollow structure, each piece (1,2) delimiting an airtight chamber (5,6), and they have opposing openings in the mutually attachable walls, through which openings the different airtight chambers (5,6) are communicated with one another, said openings being provided with sealing means between the mutually attachable walls of consecutive pieces. - said pieces (1,2) having, owing to the mutually supporting surfaces, formations delimiting airtight chambers (5,6) between consecutively attached pieces; - at least one of the pieces (1,2) used to form part of each airtight chamber (5,6) having a pneumatic valve through which said chambers (5,6) are connected to a vacuum source, by means of which a sufficient negative pressure is created in the chambers (5,6) to fix to one another the pieces (1,2) delimiting such chambers (5,6); - the walls of the pieces (1,2) being non-deformable as a result of the negative pressure created within the chambers (5,6);
Ventilation module, in particular for a stretching system for stretching a plastics film, having the following features: - a ventilation outlet channel having a gas flow inlet side and an opposite gas flow outlet side is provided, - the ventilation outlet channel is separated in the longitudinal direction between its gas flow inlet side and its opposite gas flow outlet side to form at least two ventilation outlet channel portions (61a, 61b), such that the at least two ventilation outlet channel portions (61a, 61b) are adjustable away from and towards one another transversely to the longitudinal extent of the ventilation outlet channel, whereby the width of the ventilation outlet channel and thus the flow cross section can be increased or decreased. - a ventilation outlet channel having a gas flow inlet side and an opposite gas flow outlet side is provided, - the ventilation outlet channel is separated in the longitudinal direction between its gas flow inlet side and its opposite gas flow outlet side to form at least two ventilation outlet channel portions (61a, 61b), such that the at least two ventilation outlet channel portions (61a, 61b) are adjustable away from and towards one another transversely to the longitudinal extent of the ventilation outlet channel, whereby the width of the ventilation outlet channel and thus the flow cross section can be increased or decreased.
A sealing assembly for an ultrahigh-pressure fluid system, comprising: a seal having a first end and a bore through which a plunger reciprocates; a cylinder; a bearing having a bore through which the plunger reciprocates and positioned adjacent the first end of the seal, and a seal carrier positioned adjacent the seal wherein the first end of the seal is supported across its width by both the seal carrier and the bearing and wherein the first end of the seal is positioned downstream of a center point of a tangential sealing area of the seal carrier wherein downstream is the direction of the pressure stroke of the plunger on which pressure stroke the plunger pressurizes fluid, and wherein the cylinder is positioned adjacent the seal carrier and seated against the seal carrier to form a static seal along the tangential sealing area characterized in that a flat tapered mouth of the cylinder is in compressed contact with the tangential sealing area that is convexly curved or a conical linear cross-sectional profile of the seal carrier mates against a convex, curved cross-sectional profile of the cylinder to form a circular seal. a seal having a first end and a bore through which a plunger reciprocates; a cylinder; a bearing having a bore through which the plunger reciprocates and positioned adjacent the first end of the seal, and a seal carrier positioned adjacent the seal wherein the first end of the seal is supported across its width by both the seal carrier and the bearing and wherein the first end of the seal is positioned downstream of a center point of a tangential sealing area of the seal carrier wherein downstream is the direction of the pressure stroke of the plunger on which pressure stroke the plunger pressurizes fluid, and wherein the cylinder is positioned adjacent the seal carrier and seated against the seal carrier to form a static seal along the tangential sealing area characterized in that a flat tapered mouth of the cylinder is in compressed contact with the tangential sealing area that is convexly curved or a conical linear cross-sectional profile of the seal carrier mates against a convex, curved cross-sectional profile of the cylinder to form a circular seal.
A refrigerant condenser with a device for attaching the refrigerant condenser to a coolant cooler, comprising a first attachment component for attaching the device to the coolant cooler and a second attachment component for attaching the device to the refrigerant condenser, wherein the connection between the second attachment component and the refrigerant condenser can be effected in a corner area of the refrigerant condenser by means of form fit in both directions of a horizontal x- and y-axis and in a first direction of a vertical z-axis of a rectangular coordinate system, wherein the device comprises a first side wall, a second side wall, a front wall and a cover wall, wherein the walls form a shell for receiving the corner area of the refrigerant condenser in a form-fit manner, characterised in that the connection between the second attachment component and the refrigerant condenser can additionally be effected in a second direction of the vertical z-axis of the rectangular coordinate system, wherein the connection in the second direction of the z-axis can be effected by means of form fit and/or force fit and a protrusion, e.g. a separation wall, is formed on the refrigerant condenser and a recession, e.g. an elongated hole, is formed on the device or the other way round for effecting the form-fit connection in the second direction of the z-axis.
A system for electrically coupling a first structure (22, R1) with a second structure (22, R2) in a vehicle, the system comprising: a control module receiving at least one of electrical power and data; a cable having a variable length and electrically coupled to the control module, wherein the cable transmits the at least one of electrical power and data from the first structure (22, R1) to the second structure (22, R2); a reel located at the first structure (22, R1) and defining an axis of rotation, wherein the cable is windable around the reel and the reel is rotatable about the axis of rotation to adjust the variable length of the cable, and wherein the variable length of the cable 26 is a portion of the cable that extends between the first structure (22, R1) and the second structure (22, R2) and is the portion of the cable that is not wound around the reel; and a connector located at the axis of rotation of the reel, wherein the connector electrically couples an output of the control module to the cable, characterized in that: the reel has a slip ring and spokes extending between the slip ring and a rim, the spokes have channels for routing sections of the cable. a control module receiving at least one of electrical power and data; a cable having a variable length and electrically coupled to the control module, wherein the cable transmits the at least one of electrical power and data from the first structure (22, R1) to the second structure (22, R2); a reel located at the first structure (22, R1) and defining an axis of rotation, wherein the cable is windable around the reel and the reel is rotatable about the axis of rotation to adjust the variable length of the cable, and wherein the variable length of the cable 26 is a portion of the cable that extends between the first structure (22, R1) and the second structure (22, R2) and is the portion of the cable that is not wound around the reel; and a connector located at the axis of rotation of the reel, wherein the connector electrically couples an output of the control module to the cable,
A nanostructured electrolyte material comprising: a first domain comprising an ionically-conductive polymer gel phase, wherein said ionically-conductive polymer gel phase comprises a liquid electrolyte, and wherein the liquid electrolyte comprises an electrolyte salt, the first domain forming a conductive portion of the electrolyte material; and a second domain adjacent the first domain, the second domain comprising a structural polymer phase, the structural polymer phase having a bulk modulus greater than 1x10 6 Pa at 25°C, the second domain forming a structural portion of the electrolyte material; wherein the nanostructured gel polymer electrolyte comprises a plurality of linear block copolymers, the first domain comprises a plurality of first polymer blocks, and the second domain comprises a plurality of second polymer blocks, wherein the electrolyte material has an ionic conductivity of at least 1x10 -4 S cm -1 at 25°C, characterized in that the plurality of first polymer blocks of the first domain is selected from the group consisting of linear polyethers, linear polyacrylonitriles, and linear polyvinylalcohols. a first domain comprising an ionically-conductive polymer gel phase, wherein said ionically-conductive polymer gel phase comprises a liquid electrolyte, and wherein the liquid electrolyte comprises an electrolyte salt, the first domain forming a conductive portion of the electrolyte material; and a second domain adjacent the first domain, the second domain comprising a structural polymer phase, the structural polymer phase having a bulk modulus greater than 1x10 6 Pa at 25°C, the second domain forming a structural portion of the electrolyte material;
A hair styling appliance comprising at least one heater having a plurality of heating zones (Z1, Z2), wherein the heater has a hair engaging surface defined by a single - heatable plate, for heating hair that contacts the hair engaging surface, wherein the plurality of heating zones (Z1, Z3) each comprise a corresponding portion of the heatable plate and a respective heating means arranged in thermal contact with the corresponding portion of the heatable plate, for heating the corresponding portion of the heatable plate, wherein each of the plurality of heating zones is independently controllable, wherein the heating zones are arranged sequentially adjacent one another along the heater in a direction parallel to a longitudinal axis of the heater, wherein each heating zone comprises temperature sensing means arranged in thermal contact with the corresponding portion of the heatable plate, each temperature sensing means being arranged to sense the temperature of the corresponding portion of the heatable plate and wherein the hair styling appliance further comprises a control system configured to receive outputs from the plurality of temperature sensing means and configured to independently control the heating means of each heating zone (Z1, Z2) in dependence upon the sensed temperature of the corresponding portion of the heatable plate of the heating zone.
An extra-oral imaging system comprising: an x-ray source; a support base adjustable in at least one dimension; a cephalometric imaging unit, comprising a cephalometric collimator, a cephalometric imaging sensor and a cephalometric patient positioning unit, wherein the cephalometric imaging unit is coupled to the support base and configured to position the cephalometric imaging sensor about a first imaging area formed with the x-ray source, wherein x-rays from the x-ray source impinge the cephalometric imaging sensor after radiating the first imaging area, wherein the cephalometric patient positioning unit is positioned operatively near the first imaging area and comprises a head support coupled to the cephalometric patient positioning unit and a positioning unit (15a, 15b, 16a, 16b) coupled to the cephalometric patient positioning unit; and a retractable cephalometric Frankfort plane positioning indicator (130; 230; 330; 430) coupled to the cephalometric collimator and rotatably mounted or formed with a distal end longitudinally spaced from a mounted end. an x-ray source; a support base adjustable in at least one dimension; a cephalometric imaging unit, comprising a cephalometric collimator, a cephalometric imaging sensor and a cephalometric patient positioning unit, wherein the cephalometric imaging unit is coupled to the support base and configured to position the cephalometric imaging sensor about a first imaging area formed with the x-ray source, wherein x-rays from the x-ray source impinge the cephalometric imaging sensor after radiating the first imaging area, wherein the cephalometric patient positioning unit is positioned operatively near the first imaging area and comprises a head support coupled to the cephalometric patient positioning unit and a positioning unit (15a, 15b, 16a, 16b) coupled to the cephalometric patient positioning unit; and a retractable cephalometric Frankfort plane positioning indicator (130; 230; 330; 430) coupled to the cephalometric collimator and rotatably mounted or formed with a distal end longitudinally spaced from a mounted end.
A quick charging method, the method being applied in a power adapter, the power adapter being coupled to a mobile terminal via a USB interface, a power line of the USB interface being used for the power adapter to charge the mobile terminal, the power adapter supporting a normal charging mode and a quick charging mode, a charging current corresponding to the quick charging mode being greater than a charging current corresponding to the normal charging mode, the method comprising: transmitting, by the power adapter, clock signal to the mobile terminal via a first data line of the USB interface in a process of that the power adapter is coupled to the mobile terminal, wherein the clock signal is used for indicating a communication sequence between the power adapter and the mobile terminal; conducting, by the power adapter, a bidirectional communication with the mobile terminal via a second data line of the USB interface under control of the communication sequence, so as to determine to charge the mobile terminal in the quick charging mode and determine the charging current corresponding to the quick charging mode via the bidirectional communication; and adjusting, by the power adapter, a charging current of the power adapter to the determined charging current corresponding to the quick charging mode to charge the mobile terminal. transmitting, by the power adapter, clock signal to the mobile terminal via a first data line of the USB interface in a process of that the power adapter is coupled to the mobile terminal, wherein the clock signal is used for indicating a communication sequence between the power adapter and the mobile terminal; conducting, by the power adapter, a bidirectional communication with the mobile terminal via a second data line of the USB interface under control of the communication sequence, so as to determine to charge the mobile terminal in the quick charging mode and determine the charging current corresponding to the quick charging mode via the bidirectional communication; and adjusting, by the power adapter, a charging current of the power adapter to the determined charging current corresponding to the quick charging mode to charge the mobile terminal.