mhurhangee/patent-ind-claim-en huggingface dataset:
A method in order to apply flat material pieces of desired shape to an embroidery base by means of an embroidery or sewing machine , wherein at least one material layer is arranged above the embroidery base , wherein, controlled by a program of the embroidery machine or sewing machine , a relative movement is produced between a cutting device arranged on the embroidery or sewing machine , containing a cutting member , and the material layer , in order to cut out a material piece of the material layer with the cutting member , - wherein the cutting member is advanced together with a housing , into which the cutting member is inserted, in the direction of the material layer and/or the material layer and the embroidery base to the housing until the front side of the housing touches the material layer , - wherein the material layer lies in contact, smoothed, with the front side of the housing , which forms a reference plane E, - wherein the cutting member penetrates the material layer though an opening configured in the front side of the housing in the housing , and - wherein the material layer is cut by the cutting member , wherein during the cutting operation the material layer is sucked in by a negative pressure present in the internal space of the housing at the opening , characterized in that the material layer , during sucking in at the opening , is raised from the embroidery base and the cutting member does not touch and does not damage the embroidery base during cutting of the material layer . - wherein the cutting member is advanced together with a housing , into which the cutting member is inserted, in the direction of the material layer and/or the material layer and the embroidery base to the housing until the front side of the housing touches the material layer , - wherein the material layer lies in contact, smoothed, with the front side of the housing , which forms a reference plane E, - wherein the cutting member penetrates the material layer though an opening configured in the front side of the housing in the housing , and - wherein the material layer is cut by the cutting member , wherein during the cutting operation the material layer is sucked in by a negative pressure present in the internal space of the housing at the opening , characterized in that the material layer , during sucking in at the opening , is raised from the embroidery base and the cutting member does not touch and does not damage the embroidery base during cutting of the material layer .
A vaccine for use in vaccinating a subject against a disorder, wherein the vaccine comprises: (a) an adjuvant comprising a flagellin-based agent, comprising an amino acid sequence having at least 95% identity to SEQ ID NO:2, having TLR5 agonist activity and an aluminum gel or salt, wherein the ratio (w/w) of flagellin-based agent to aluminum gel or salt is about 1:500; and (b) an antigen associated with the disorder. (a) an adjuvant comprising a flagellin-based agent, comprising an amino acid sequence having at least 95% identity to SEQ ID NO:2, having TLR5 agonist activity and an aluminum gel or salt, wherein the ratio (w/w) of flagellin-based agent to aluminum gel or salt is about 1:500; and (b) an antigen associated with the disorder.
A fluid apparatus including a bellows which is configured to be extendable and contractible in an axial direction in order to suck a fluid from a suction flow passage and eject the fluid to an ejection flow passage , wherein the bellows comprises: peak portions and valley portions which are alternately formed in the axial direction; and annular side surface portions which are located between the peak portions and the valley portions , and which connect the both portions to each other, a ratio B/A of a thickness B of the axial middle part of each of the peak portions in a direction which is perpendicular to the axial direction, to a thickness A of each of the side surface portions in the axial direction is set within a range of 1.3 to 1.8, and characterized in that the width C of a space portion formed between the side surface portions which are adjacent to each other in the direction of the axis of the bellows is set to be equal to the thickness A of the side surface portions when the bellows is maximally contracted in the direction of the axis of the bellows .
An elevator system comprising a shaft having a pit , a car guided by a pair of first guide rails to be vertically movable in the shaft, a counterweight connected to the car by a suspension rope , the counterweight being guided by a pair of second guide rails to be vertically movable in the shaft, and a counterweight screen arranged in a space between the counterweight and the car , the counterweight screen being attached to the second guide rails at the pit , characterized in that the counterweight screen is a sandwich-structured composite panel. a shaft having a pit , a car guided by a pair of first guide rails to be vertically movable in the shaft, a counterweight connected to the car by a suspension rope , the counterweight being guided by a pair of second guide rails to be vertically movable in the shaft, and a counterweight screen arranged in a space between the counterweight and the car , the counterweight screen being attached to the second guide rails at the pit , characterized in that the counterweight screen is a sandwich-structured composite panel.
A fastening device for an interchangeable fastening of a plurality of medical devices in a patient area of an ambulance , comprising: - a static bearing device ; as well as - an equipment support device with at least one support plane for fastening a plurality of medical devices ; - the static bearing device extending along a sidewall of the patient area and being connected to the structure of the side wall and/or the floor of the patient area in a load-bearing manner, - the equipment support device being pivotably supported relative to the bearing device about a first substantially vertical axis , such that the equipment support device can be pivoted out from a first initial position, in which the at least one support plane extends substantially along the sidewall , to at least a second operating position, in which the at least one support plane extends obliquely or orthogonally to the sidewall , characterized in that the at least one equipment support device comprises at least one panel with a panel surface for fastening a plurality of medical devices , the at least one panel is configured to be pivoted out relative to the support plane and/or relative to the equipment support device from a first initial position, in which the panel surface extends substantially parallel to the support plane , to at least one second operating position, in which second operating position the panel surface of the at least one support panel extends obliquely or orthogonally to the support plane and/or the equipment support device . - a static bearing device ; as well as - an equipment support device with at least one support plane for fastening a plurality of medical devices ; - the static bearing device extending along a sidewall of the patient area and being connected to the structure of the side wall and/or the floor of the patient area in a load-bearing manner, - the equipment support device being pivotably supported relative to the bearing device about a first substantially vertical axis , such that the equipment support device can be pivoted out from a first initial position, in which the at least one support plane extends substantially along the sidewall , to at least a second operating position, in which the at least one support plane extends obliquely or orthogonally to the sidewall ,
System for implanting a medical implant in the human or animal body, comprising: a wire-like element for connecting the system with the medical implant , a double-lumen guiding tube for the wire-like element , and a handle for operating the system , wherein the medical implant is located at the proximal end of the guiding tube and the handle at the distal end of the guiding tube , and wherein the wire-like element is fixed with a first end at the handle , guided through a first lumen of the double-lumen guiding tube to the medical implant , engaging connecting means of the medical implant and guided through a second lumen of the double-lumen guiding tube to the handle and is detachable fixed to the handle with a second end , characterized in that the handle comprises clamping means for the second end of the wire-like element , for detachably fixing the second end of the wire-like element at the handle , and comprising a safeguard against unintentionally operating of the clamping means . a wire-like element for connecting the system with the medical implant , a double-lumen guiding tube for the wire-like element , and a handle for operating the system , wherein the medical implant is located at the proximal end of the guiding tube and the handle at the distal end of the guiding tube , and wherein the wire-like element is fixed with a first end at the handle , guided through a first lumen of the double-lumen guiding tube to the medical implant , engaging connecting means of the medical implant and guided through a second lumen of the double-lumen guiding tube to the handle and is detachable fixed to the handle with a second end , characterized in that the handle comprises clamping means for the second end of the wire-like element , for detachably fixing the second end of the wire-like element at the handle , and comprising a safeguard against unintentionally operating of the clamping means .
A line light irradiating device comprising: a plurality of LEDs arranged in a predetermined direction; a resin rod-shaped lens provided along the arrangement direction of the plurality of LEDs and condensing light of the plurality of LEDs ; a casing for accommodating the plurality of LEDs and the rod-shaped lens , the casing having a pair of longitudinal side wall portions provided in a manner of holding the rod-shaped lens therebetween; and a fixing member provided between one of the longitudinal side wall portions and the rod-shaped lens , characterized in that the fixing member is pressed against a longitudinal side surface of the rod-shaped lens by being pressed in the direction of the other of the longitudinal side wall portions by a pushing screw or a wedge member to thereby fix the rod-shaped lens , wherein the fixing member is elongate-shaped, having rigidity higher than that of the rod-shaped lens . a plurality of LEDs arranged in a predetermined direction; a resin rod-shaped lens provided along the arrangement direction of the plurality of LEDs and condensing light of the plurality of LEDs ; a casing for accommodating the plurality of LEDs and the rod-shaped lens , the casing having a pair of longitudinal side wall portions provided in a manner of holding the rod-shaped lens therebetween; and a fixing member provided between one of the longitudinal side wall portions and the rod-shaped lens , characterized in that the fixing member is pressed against a longitudinal side surface of the rod-shaped lens by being pressed in the direction of the other of the longitudinal side wall portions by a pushing screw or a wedge member to thereby fix the rod-shaped lens , wherein the fixing member is elongate-shaped, having rigidity higher than that of the rod-shaped lens .
A makeup kit, comprising (a) an oily makeup cosmetic comprising a polyisobutylene having a viscosity average molecular weight of 30,000 to 100,000 and a volatile hydrocarbon oil, and (b) a top coating agent comprising methylphenylpolysiloxane having a viscosity of 1,000 to 7,000 mm 2 ·s -1 (cs) at 25°C, wherein the content of the methylphenylpolysiloxane is 50.0 to 100 mass% relative to the total weight of the top coating agent. (a) an oily makeup cosmetic comprising a polyisobutylene having a viscosity average molecular weight of 30,000 to 100,000 and a volatile hydrocarbon oil, and (b) a top coating agent comprising methylphenylpolysiloxane having a viscosity of 1,000 to 7,000 mm 2 ·s -1 (cs) at 25°C, wherein the content of the methylphenylpolysiloxane is 50.0 to 100 mass% relative to the total weight of the top coating agent.
A molded product production system comprising: at least two measuring feeders (Z1a, Z1b, Z1c) configured to simultaneously adjust an amount of a discharged powdery material to a target value and feed the powdery material; a mixer (Z3, Z4) configured to mix at least two powdery materials fed from the measuring feeders (Z1a, Z1b, Z1c) to obtain mixed powdery materials; a filler (X) configured to fill, with the mixed powdery materials obtained by the mixer (Z3, Z4), a die bore of a compression molding machine configured to compress a powdery material to mold a molded product; a sensor (S1, S2, S3, S4, S5) configured to measure a mixing degree of the mixed powdery materials obtained by the mixer (Z3, Z4); and a controller (C) configured to adjust an amount of at least one of the powdery materials fed by the measuring feeders (Z1a, Z1b, Z1c), or motion speed of a mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) in accordance with the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5), characterized in that the controller (C) is configured to control to change the motion speed of the mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) when the absolute value of the difference between the target value and the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5) is not more than the predetermined threshold continuously for at least the certain period but is more than the threshold instantaneously or for a period shorter than the certain period. at least two measuring feeders (Z1a, Z1b, Z1c) configured to simultaneously adjust an amount of a discharged powdery material to a target value and feed the powdery material; a mixer (Z3, Z4) configured to mix at least two powdery materials fed from the measuring feeders (Z1a, Z1b, Z1c) to obtain mixed powdery materials; a filler (X) configured to fill, with the mixed powdery materials obtained by the mixer (Z3, Z4), a die bore of a compression molding machine configured to compress a powdery material to mold a molded product; a sensor (S1, S2, S3, S4, S5) configured to measure a mixing degree of the mixed powdery materials obtained by the mixer (Z3, Z4); and a controller (C) configured to adjust an amount of at least one of the powdery materials fed by the measuring feeders (Z1a, Z1b, Z1c), or motion speed of a mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) in accordance with the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5), characterized in that the controller (C) is configured to control to change the motion speed of the mixing member (Z34, Z35, Z44) configured to agitate powdery materials in the mixer (Z3, Z4) when the absolute value of the difference between the target value and the mixing degree of the mixed powdery materials measured by the sensor (S1, S2, S3, S4, S5) is not more than the predetermined threshold continuously for at least the certain period but is more than the threshold instantaneously or for a period shorter than the certain period.
A method for reducing the magnitude of a uniformity characteristic in a cured tire , said method comprising the steps of: a. generating a signal indicative of a magnitude of the uniformity characteristic and an angular location on the tire to be corrected; b. decomposing the signal into two or more harmonics using a Fourier analysis; and c. permanently deforming, as a function of the magnitude of the uniformity characteristic, a portion of at least three carcass reinforcing members of the tire at the locations indicated by the signal, wherein at least two harmonics of radial force variation are reduced simultaneously, wherein the uniformity characteristic is a radial force variation and the locations indicated by the signal correspond to a soft spot location and a hard spot location on the tire , wherein said permanently deforming step comprises inflating the tire to a pressure above the recommended operating pressure of the tire , including the step of restraining a portion of the sidewall of the tire to limit the permanent deformation to carcass reinforcing members in the restrained portion of the sidewall as a function of said location indication, and wherein a composite of the radial force variation is reduced, characterized in that the restraining step comprises providing a supporting ring and at least two plates removably supported upon said supporting ring and arranged circumferentially, to form a ring, and further includes the steps of: d. contacting the sidewall of the tire with said ring prior to applying said inflation pressure; e. providing minimum restraint by minimizing plate height of said ring at a location corresponding to a soft spot on a tire ; and f. providing maximum restraint by maximizing plate height of said ring at a location corresponding to a hard spot on a tire . a. generating a signal indicative of a magnitude of the uniformity characteristic and an angular location on the tire to be corrected; b. decomposing the signal into two or more harmonics using a Fourier analysis; and c. permanently deforming, as a function of the magnitude of the uniformity characteristic, a portion of at least three carcass reinforcing members of the tire at the locations indicated by the signal, d. contacting the sidewall of the tire with said ring prior to applying said inflation pressure; e. providing minimum restraint by minimizing plate height of said ring at a location corresponding to a soft spot on a tire ; and f. providing maximum restraint by maximizing plate height of said ring at a location corresponding to a hard spot on a tire .
A system for a combustion turbine engine, comprising: a fuel gas supply ; a plurality of fuel gas circuits operable to deliver fuel gas from the fuel gas supply to a combustor ; a plurality of gas control valves , each coupled to one of the plurality of fuel gas circuits that control flow of fuel gas thereto from the fuel gas supply ; and a fuel purge system including: a gas purge valve for controlling an amount of fuel gas delivered to one of the plurality of fuel gas circuits , and a controller operatively connected to the gas purge valve and operable to selectively purge residual fuel gas from at least one dormant fuel gas circuit of the plurality of fuel gas circuits with fuel gas from the fuel gas supply, wherein the selective purging includes adjusting the gas purge valve to deliver a predetermined amount of fuel gas into the at least one dormant fuel gas circuit . a fuel gas supply ; a plurality of fuel gas circuits operable to deliver fuel gas from the fuel gas supply to a combustor ; a plurality of gas control valves , each coupled to one of the plurality of fuel gas circuits that control flow of fuel gas thereto from the fuel gas supply ; and a fuel purge system including: a gas purge valve for controlling an amount of fuel gas delivered to one of the plurality of fuel gas circuits , and a controller operatively connected to the gas purge valve and operable to selectively purge residual fuel gas from at least one dormant fuel gas circuit of the plurality of fuel gas circuits with fuel gas from the fuel gas supply, wherein the selective purging includes adjusting the gas purge valve to deliver a predetermined amount of fuel gas into the at least one dormant fuel gas circuit . a gas purge valve for controlling an amount of fuel gas delivered to one of the plurality of fuel gas circuits , and a controller operatively connected to the gas purge valve and operable to selectively purge residual fuel gas from at least one dormant fuel gas circuit of the plurality of fuel gas circuits with fuel gas from the fuel gas supply, wherein the selective purging includes adjusting the gas purge valve to deliver a predetermined amount of fuel gas into the at least one dormant fuel gas circuit .
A method for distributing connections to mobility management node instances , the method comprising: publishing , by a connection load balancer , Internet protocol, IP, addresses for receiving connection requests and ingress messages from radio access network, RAN, nodes , wherein the IP addresses are alias IP addresses associated with loopback interfaces of the mobility management node instances and the mobility management node instances listen for messages addressed to the alias IP addresses; maintaining , by the connection load balancer, connection loading measurements of the mobility management node instances; receiving , at the connection load balancer, a connection request message generated by a RAN node for initiating a connection with one of the mobility management node instances, the connection request message being addressed to one of the alias IP addresses; applying , by the connection load balancer, a connection distribution algorithm to select a mobility management node instance to handle the connection request message; creating, by the connection load balancer, for protocol continuity, and in a cache or database populated at least in part by the connection load balancer, an association between an IP address of the selected mobility management node instance and an IP address and port of the RAN node extracted from a source IP address and source port field of the connection request message; and forwarding , by the connection load balancer, the connection request message to the mobility management node instance selected using the connection distribution algorithm. publishing , by a connection load balancer , Internet protocol, IP, addresses for receiving connection requests and ingress messages from radio access network, RAN, nodes , wherein the IP addresses are alias IP addresses associated with loopback interfaces of the mobility management node instances and the mobility management node instances listen for messages addressed to the alias IP addresses; maintaining , by the connection load balancer, connection loading measurements of the mobility management node instances; receiving , at the connection load balancer, a connection request message generated by a RAN node for initiating a connection with one of the mobility management node instances, the connection request message being addressed to one of the alias IP addresses; applying , by the connection load balancer, a connection distribution algorithm to select a mobility management node instance to handle the connection request message; creating, by the connection load balancer, for protocol continuity, and in a cache or database populated at least in part by the connection load balancer, an association between an IP address of the selected mobility management node instance and an IP address and port of the RAN node extracted from a source IP address and source port field of the connection request message; and forwarding , by the connection load balancer, the connection request message to the mobility management node instance selected using the connection distribution algorithm.