mhurhangee/ep-ind-claims huggingface dataset:
A cosmetic wiper comprising a hollow cylinder having an outer wall and comprising: an upper section terminating in an upper orifice; a tapered section located below the upper section and terminating in an a lower orifice; a retention bead located on the upper section; a wiper groove recessed into the outer wall of the cylinder such that a first portion of the wiper groove 10) is located on the tapered section and a second portion is located on the upper section; and a seal that forms an effective barrier affixed across the upper orifice, the seal comprising a membrane that spans the upper orifice of the wiper, covering the orifice completely.
A supporting structure for supporting equipment in a suspended ceiling with ceiling tiles supported by profiles having an upstanding web and a horizontal flange, said supporting structure comprising, an elongated member having a support flange extending between a first end and a second end, at least one of said first and second end (4, 5) having a connecting member attached thereto, the connecting member having a first engagement portion and a second engagement portion, wherein said first engagement portion is arranged at a first distance from said support flange on a first side thereof and the second engagement portion is arranged at a second distance from said support flange on a second side thereof, wherein said first engagement portion being arranged for engagement with said web of said profiles and wherein said second engagement portion being arranged for engagement with said horizontal flange of said profiles such that vertical displacement of said supporting structure is restricted, wherein the support flange of said elongated member is provided with a capping forming a slot between said capping and said support flange, and characterized in that each connecting member is provided with a protrusion being insertable in said slot for attaching said connecting member to said elongated member.
A method for providing a personalizable access to a group of devices to at least one subscriber of a communication system, comprising the following method steps: a) a subscriber authenticates himself once to the communication system, thereby gaining access authorisation to the group of devices; b) a partial identity out of a plurality of predefined partial identities is assigned to the authenticated subscriber; c) an identification code is assigned to the predefined partial identity; d) the subscriber selects a device from the group; e) the subscriber is authenticated to the selected device using the identification code; and f) based on the partial identity assigned to the identification code, the authenticated subscriber is provided with access to the selected device. a) a subscriber authenticates himself once to the communication system, thereby gaining access authorisation to the group of devices; b) a partial identity out of a plurality of predefined partial identities is assigned to the authenticated subscriber; c) an identification code is assigned to the predefined partial identity; d) the subscriber selects a device from the group; e) the subscriber is authenticated to the selected device using the identification code; and f) based on the partial identity assigned to the identification code, the authenticated subscriber is provided with access to the selected device.
A pharmaceutical composition for use in treating bronchitis, characterized in that, said pharmaceutical composition is made from the medicinal materials in the following parts by weight: CITRI RETICULATAE PERICARPIUM 94 - 156 PINELLIAE RHIZOMA 94 - 156 ASTERIS RADIX ET RHIZOMA 94 - 156 FARFARAE FLOS 94 - 156 PORIA 94-156 ATRACTYLODIS MACROCEPHALAE RHIZOMA 94-156 ARMENIACAE SEMEN AMARUM 78-130 PERILLAE FRUCTUS 78 - 130 SINAPIS SEMEN 78-130 RAPHANI SEMEN 78-130 CINNAMOMI RAMULUS 46 - 78 SCUTELLARIAE RADIX 94-156 FORSYTHIAE FRUCTUS 94 - 156 HOUTTUYNIAE HERBA 225 - 391 and GLYCYRRHIZAE RADIX ET RHIZOMA 31 - 53.
Current-compensated inductor comprising a plurality of current paths (1, 2), wherein each current path comprises a plurality of windings (1a, 1b, 2a, 2b) which are connected in parallel and are wound onto a common core, wherein each winding (1a, 1b, 2a, 2b) forms an individual layer around the core, which layer covers the core in the longitudinal direction, and the individual layers lie one on top of the other.
An ejection device for fluid, comprising a solid body (30, 80, 100) including: a chamber for containing said fluid; an ejection nozzle in fluidic connection with said chamber; an actuator operatively coupled to said chamber to generate, in use, one or more pressure waves in said fluid such as to cause an ejection of the fluid from the ejection nozzle; and a fluidic path (41, 48a), forming a fluidic connection towards the chamber for feeding the fluid to the chamber, wherein the solid body further integrates a damping cavity and a damping membrane suspended over the damping cavity, wherein the solid body further includes: a first structural element (80, 100) housing the chamber, the ejection nozzle and the actuator; and a second structural element, coupled to the first structural element (80, 100), housing the fluidic path (41, 48a), characterized in that the damping membrane is arranged, at least in part, upstream the fluidic path for receiving the fluid before it accesses the fluidic path, the damping cavity and the damping membrane are integrated in the second structural element, the second structural element is a monolithic body, said damping cavity is buried in said monolithic body and said membrane is integrated in said monolithic body. a chamber for containing said fluid; an ejection nozzle in fluidic connection with said chamber; an actuator operatively coupled to said chamber to generate, in use, one or more pressure waves in said fluid such as to cause an ejection of the fluid from the ejection nozzle; and a fluidic path (41, 48a), forming a fluidic connection towards the chamber for feeding the fluid to the chamber, wherein the solid body further integrates a damping cavity and a damping membrane suspended over the damping cavity, wherein the solid body further includes: a first structural element (80, 100) housing the chamber, the ejection nozzle and the actuator; and a second structural element, coupled to the first structural element (80, 100), housing the fluidic path (41, 48a), characterized in that the damping membrane is arranged, at least in part, upstream the fluidic path for receiving the fluid before it accesses the fluidic path, the damping cavity and the damping membrane are integrated in the second structural element, the second structural element is a monolithic body, said damping cavity is buried in said monolithic body and said membrane is integrated in said monolithic body. a first structural element (80, 100) housing the chamber, the ejection nozzle and the actuator; and a second structural element, coupled to the first structural element (80, 100), housing the fluidic path (41, 48a), characterized in that the damping membrane is arranged, at least in part, upstream the fluidic path for receiving the fluid before it accesses the fluidic path, the damping cavity and the damping membrane are integrated in the second structural element, the second structural element is a monolithic body, said damping cavity is buried in said monolithic body and said membrane is integrated in said monolithic body.
A method of exporting measurements of a nanopore sensor on a nanopore based sequencing chip, comprising an array of cells, wherein a cell comprises a nanopore sensor the method comprising: measuring an electrical signal comprising an electrical characteristic associated with a nanopore sensor; processing the electrical signal associated with the nanopore sensor; determining that the electrical characteristic and at least a portion of one or more previous measured electrical characteristics correspond to a base call event at the nanopore sensor; determining the summary that represents the electrical characteristic and the at least a portion of the one or more previous electrical characteristics, wherein determining the summary that represents the electrical characteristic and the at least a portion of the one or more previous electrical characteristics comprises: representing the electrical characteristic and the at least a portion of the one or more previous electrical characteristics such that consecutive electrical characteristics that are mapped to a threshold level are represented by a single magnitude value and count of the consecutive electrical characteristics; and exporting the summary for the electrical characteristic and the one or more previous electrical characteristics. measuring an electrical signal comprising an electrical characteristic associated with a nanopore sensor; processing the electrical signal associated with the nanopore sensor; determining that the electrical characteristic and at least a portion of one or more previous measured electrical characteristics correspond to a base call event at the nanopore sensor; determining the summary that represents the electrical characteristic and the at least a portion of the one or more previous electrical characteristics, wherein determining the summary that represents the electrical characteristic and the at least a portion of the one or more previous electrical characteristics comprises: determining that the electrical characteristic and at least a portion of one or more previous measured electrical characteristics correspond to a base call event at the nanopore sensor; determining the summary that represents the electrical characteristic and the at least a portion of the one or more previous electrical characteristics, wherein determining the summary that represents the electrical characteristic and the at least a portion of the one or more previous electrical characteristics comprises: representing the electrical characteristic and the at least a portion of the one or more previous electrical characteristics such that consecutive electrical characteristics that are mapped to a threshold level are represented by a single magnitude value and count of the consecutive electrical characteristics; and exporting the summary for the electrical characteristic and the one or more previous electrical characteristics.
Process for the separation of vanadium in the form of vanadium oxide, iron-vanadium-oxide, or iron-vanadium from solutions containing both dissolved iron and dissolved vanadium, characterised in that an aqueous solution containing dissolved iron and vanadium in a molar iron-to-vanadium ratio of above 1:1, and optionally also other elements is oxidized in an oxidation step with a gaseous oxidation media, wherein the oxidation step is carried out at a reaction temperature of between 100 and 300°C and acid is present in the aqueous solution during the oxidation step and its amount is kept below the stoichiometric amount of acid required during bivalent iron oxidation, and the precipitate thus formed is removed from the solution.
A process for continuously producing expanded foam particles, comprising the steps of a) charging thermoplastic polymer granulates from a storage tank R1 into a pressurized impregnation zone R2, b) continuously feeding liquidized carbon dioxide, nitrogen or mixture thereof as blowing agent into the impregnation zone R2, the impregnation zone R2 being maintained under supercritical conditions at a temperature in the range from 31 to 250°C and a pressure from 1 to 30 MPa, c) impregnating the thermoplastic polymer granulates during a residence time between 5 and 600 minutes in the impregnation zone R2 with the blowing agent, d) discharging the impregnated thermoplastic polymer granulates from the impregnation zone R2 into a low-pressure expansion zone R3 with expansion of the thermoplastic polymer granulates to form expanded foam particles, e) separating the expanded foam particles from the gaseous blowing agent in a separation zone R4. a) charging thermoplastic polymer granulates from a storage tank R1 into a pressurized impregnation zone R2, b) continuously feeding liquidized carbon dioxide, nitrogen or mixture thereof as blowing agent into the impregnation zone R2, the impregnation zone R2 being maintained under supercritical conditions at a temperature in the range from 31 to 250°C and a pressure from 1 to 30 MPa, c) impregnating the thermoplastic polymer granulates during a residence time between 5 and 600 minutes in the impregnation zone R2 with the blowing agent, d) discharging the impregnated thermoplastic polymer granulates from the impregnation zone R2 into a low-pressure expansion zone R3 with expansion of the thermoplastic polymer granulates to form expanded foam particles, e) separating the expanded foam particles from the gaseous blowing agent in a separation zone R4.
A component having a component thickness and at least one feedthrough opening (3.1, 3.2), preferably a housing component, in particular a battery housing or capacitor housing, wherein a conductor (7.1, 7.2), in particular a substantially pin-shaped conductor in a glass or glass-ceramic material having a glass material external dimension and a glazing length is fed through the feedthrough opening (3.1, 3.2), wherein the component has a reinforcement (10.1, 10.2) having a component passage opening thickness in the region of the feedthrough opening (3.1, 3.2), wherein the component passage opening thickness is greater than the component thickness, and the reinforcement (10.1, 10.2) has a reinforcement material external dimension, characterized in that the reinforcement material external dimension is at least 1.2 times the class material external dimensions, wherein the reinforcement material has a width and the glass or glass-ceramic material is a circular or round plug having a diameter and the width of the reinforcement material is at least 1.2 times the diameter of the glass or glass-ceramic material.
Tool grip cover for an operating tool with a grip, whereby the tool grip cover comprises of a plastic cover comprising of at least two plastic components (14, 16) of different hardness that enclose the grip of the operating tool, whereby a damping element is used to dampen impacts or vibrations transmitted through the grip, characterized in that the soft plastic component in the area where the hand makes contact extends from the inner surface to the outer surface of the tool grip cover and in that the harder plastic component extends in some areas to the outer surface of the tool grip cover to transfer force to the grip of the tool.
Method for temperature compensation of a time basis, driven by a quartz crystal oscillator having a parabolic frequency characteristic with temperature, wherein a second oscillator is used having a linear frequency dependency on temperature, with the steps of: - counting pulses of the quartz crystal oscillator for at least three, and preferably only three, different temperatures (51, 52, 53) during time intervals given by a predetermined number of pulses of the second oscillator, wherein the pulses counted for each temperature are representative for said temperature, - calculating the function of variation of the second oscillator period in combination with the quartz frequency both with temperature based on said three or more, preferably three, pulse count values per oscillator (101, 103), and - using said calculated function to correct the frequency change of the quartz crystal oscillator due to temperature changes at any operating temperature. - counting pulses of the quartz crystal oscillator for at least three, and preferably only three, different temperatures (51, 52, 53) during time intervals given by a predetermined number of pulses of the second oscillator, wherein the pulses counted for each temperature are representative for said temperature, - calculating the function of variation of the second oscillator period in combination with the quartz frequency both with temperature based on said three or more, preferably three, pulse count values per oscillator (101, 103), and - using said calculated function to correct the frequency change of the quartz crystal oscillator due to temperature changes at any operating temperature.
A method for preparing a nanosuspension of a poorly soluble drug with improved bioavailability, said method comprises: a) stirring the drug, which has been micronized, in an aqueous polymeric excipient solution in the absence of surfactants; and b) passing the concentrate obtained in step a) through a high-shear microfluidizer processor to obtain the nanosuspension c) diluting the concentrate obtained in step b) immediately before administration with a diluent comprising one or more surfactants, wherin the poorly soluble drug is cyclopropyl-N-{2-[ -1-(3-ethoxy-4-methoxyphenyl)-2-(methylsulfonyl)ethyl]-3-oxoisoindoline-4-yl} carboxamide or (+)-12-[1-(3-ethoxy-4-methoxyphenyl)-2-methylsulfonylethyl]-4-acetylaminoisoindoline-1,3-dione}, and wherein the aqueous polymeric excipient solution comprises HPMC E5. a) stirring the drug, which has been micronized, in an aqueous polymeric excipient solution in the absence of surfactants; and b) passing the concentrate obtained in step a) through a high-shear microfluidizer processor to obtain the nanosuspension c) diluting the concentrate obtained in step b) immediately before administration with a diluent comprising one or more surfactants,
A process for the preparation of halogenated rubbers comprising at least the steps of: a) providing a reaction medium comprising • a common aliphatic medium comprising at least 50 wt.-% of one or more aliphatic hydrocarbons having a boiling point in the range of 45°C to 80°C at a pressure of 1013 hPa, whereby the common aliphatic medium further comprises a content of cyclic aliphatic hydrocarbons of less than 25 wt.-% and • a monomer mixture comprising at least one isoolefin monomer, at least one multiolefin monomer and either no or at least one other co-polymerizable monomer in a mass ratio of monomer mixture to common aliphatic medium of from 40:60 to 99:1, b) polymerizing the monomer mixture within the reaction medium to form a rubber solution comprising a rubber polymer which is at least substantially dissolved in the medium comprising the common aliphatic medium and residual monomers of the monomer mixture; c) separating residual monomers of the monomer mixture from the rubber solution to form a separated rubber solution comprising the rubber and the common aliphatic medium, d) halogenating the rubber in the separated rubber solution using a halogenating agent. a) providing a reaction medium comprising • a common aliphatic medium comprising at least 50 wt.-% of one or more aliphatic hydrocarbons having a boiling point in the range of 45°C to 80°C at a pressure of 1013 hPa, whereby the common aliphatic medium further comprises a content of cyclic aliphatic hydrocarbons of less than 25 wt.-% and • a monomer mixture comprising at least one isoolefin monomer, at least one multiolefin monomer and either no or at least one other co-polymerizable monomer in a mass ratio of monomer mixture to common aliphatic medium of from 40:60 to 99:1, • a common aliphatic medium comprising at least 50 wt.-% of one or more aliphatic hydrocarbons having a boiling point in the range of 45°C to 80°C at a pressure of 1013 hPa, whereby the common aliphatic medium further comprises a content of cyclic aliphatic hydrocarbons of less than 25 wt.-% and • a monomer mixture comprising at least one isoolefin monomer, at least one multiolefin monomer and either no or at least one other co-polymerizable monomer b) polymerizing the monomer mixture within the reaction medium to form a rubber solution comprising a rubber polymer which is at least substantially dissolved in the medium comprising the common aliphatic medium and residual monomers of the monomer mixture; c) separating residual monomers of the monomer mixture from the rubber solution to form a separated rubber solution comprising the rubber and the common aliphatic medium, d) halogenating the rubber in the separated rubber solution using a halogenating agent.
A seating structure comprising: a pair of laterally spaced support members defining a pair of upwardly extending uprights and a pair of forwardly extending seat supports, each of said support members comprising first and second beam members (406a, 406b), for each support member said first and second beam members (406a, 406b) are spaced apart to form a gap therebetween, wherein said second beam members are coupled with a first cross member; at least one gap-linking member bridging said gap between the first and second beam member (406a, 406b) of each of said support members, said at least one gap-linking member having first and second end portions (216, 218) coupled to said first and second beam member (406a, 406b); and a first beam-linking member extending between the forwardly extending seat support portion of each of said first beam members, said first beam-linking member having opposite end portions connected to said first beam members and a middle portion, characterised in that the opposite end portions of the first beam-linking member are pivotally connected to said first beam members and the middle portion is pivotally connected to said first cross member. a pair of laterally spaced support members defining a pair of upwardly extending uprights and a pair of forwardly extending seat supports, each of said support members comprising first and second beam members (406a, 406b), for each support member said first and second beam members (406a, 406b) are spaced apart to form a gap therebetween, wherein said second beam members are coupled with a first cross member; at least one gap-linking member bridging said gap between the first and second beam member (406a, 406b) of each of said support members, said at least one gap-linking member having first and second end portions (216, 218) coupled to said first and second beam member (406a, 406b); and a first beam-linking member extending between the forwardly extending seat support portion of each of said first beam members, said first beam-linking member having opposite end portions connected to said first beam members and a middle portion, characterised in that the opposite end portions of the first beam-linking member are pivotally connected to said first beam members and the middle portion is pivotally connected to said first cross member.
An electrochemical cell assembly (300, 400, 500, 600, 1400) comprising: a base plate and a top plate between which a stack of planar cell units (306, 406) and at least one electrical end plate (302, 507, 602, 606, 607, 1402, 1407) are disposed in compression, wherein: the electrical end plate comprises a two-layer construction in which a first layer (1416, 1419) and a second layer (1417, 1420) formed of different respective materials are permanently connected together to form a single conductive body, the first layer of the electrical end plate is electrically connected to an external electrical terminal of the cell assembly, and the second layer of the electrical end plate has an outwardly facing side having a first electrically conductive ceramic layer bonded thereto that is in face-to-face abutment with, and in electrical contact with, an adjacent cell unit. the electrical end plate comprises a two-layer construction in which a first layer (1416, 1419) and a second layer (1417, 1420) formed of different respective materials are permanently connected together to form a single conductive body, the first layer of the electrical end plate is electrically connected to an external electrical terminal of the cell assembly, and the second layer of the electrical end plate has an outwardly facing side having a first electrically conductive ceramic layer bonded thereto that is in face-to-face abutment with, and in electrical contact with, an adjacent cell unit.