mhurhangee/patent-ind-claim-en huggingface dataset:
Rail vehicle having an output shaft of an electric motor and having an input shaft of a transmission and having a double torsion coupling by means of which the output shaft is connected to the input shaft, wherein the double torsion coupling has two torsion couplings which are of substantially identical construction and which are arranged mirror-symmetrically with respect to the central plane of the double-torsion coupling and which are connected rotationally conjointly to one another by an intermediate piece , wherein the first torsion coupling has a first connecting flange connected to the output shaft and has a multiplicity of lugs , wherein the second torsion coupling has a second connecting flange connected to the input shaft and has a multiplicity of lugs , wherein the first connecting flame is connected to the lugs in an end region of the lugs , wherein the second connecting flange is connected to the lugs in an end region of the lugs , wherein the intermediate piece is connected to the respective other end region of the lugs by virtue of the lugs being fastened by means of bolts to the intermediate piece formed as a flat plate, whereby the lugs of the first torsion coupling are arranged between the first connecting flange and the intermediate piece , and the lugs of the second torsion coupling are arranged between the second connecting flange and the intermediate piece , wherein the lugs of each torsion coupling are in an assembled-together state, wherein the spacing of the two torsion couplings and thus the dimension of the intermediate piece is selected such that the assembled-together lugs of each torsion coupling can, for repair purposes, be removed in a lateral direction without the double-torsion coupling as a whole having to be uninstalled from its location of use on the rail vehicle, wherein the intermediate piece has, in an axial direction, a dimension which corresponds to the dimension of the assembled-together lugs of a torsion coupling in an axial direction such that, after the intermediate piece formed as a flat plate has been removed laterally, the assembled-together lugs of a torsion coupling can be removed through the free space thus formed, and wherein the lugs have an elastomer body into which a force-transmitting thread bundle is embedded.
An inhibitor of an amino acid transporter for use in promoting remyelination of neurons in the central nervous system (CNS) in a condition marked by enhanced inflammation in the CNS and demyelination of neurons of a subject; wherein the inhibitor inhibits an amino acid transporter in microglia; and wherein the amino acid transporter is Slc7a5 or large amino acid transporter small subunit 1 (LAT1). wherein the inhibitor inhibits an amino acid transporter in microglia; and wherein the amino acid transporter is Slc7a5 or large amino acid transporter small subunit 1 (LAT1).
A bioglass fiber dental implant with fiber material and structure, comprising: a fixture for osseointegrating a bone of a jaw or a skull; and a peripheral junction , connected to the fixture , for connecting an abutment supporting a dental prosthesis, wherein the fixture and the peripheral junction are made of fiber-enhanced resin (R), a woven fiber structure is formed by fibers (F) in the fiber-enhanced resin (R), wherein the woven fiber structure includes bioinert material; and wherein the fiber (F) in the fiber-enhanced resin is a multilayer Single fiber and at least one layer of the multilayer Single fiber is made of bioinert material, and at least one layer of the multilayer Single fiber is made of bioactive material, wherein the at least one layer of the multilayer Single fiber made of bioactive material is made of bioglass; characterized in that the woven fiber structure comprises: a center fiber shaft being provided straightly through the woven fiber structure; and a plurality of braided fiber shafts interlaced-knitted around the center fiber shaft , such that the center fiber shaft and the plurality of braided fiber shafts are respectively oriented at angular positions to show a pattern that two braided fiber shafts are arranged in an X-shape that crisscrosses the center fiber shaft . a fixture for osseointegrating a bone of a jaw or a skull; and a peripheral junction , connected to the fixture , for connecting an abutment supporting a dental prosthesis, wherein the fixture and the peripheral junction are made of fiber-enhanced resin (R), a woven fiber structure is formed by fibers (F) in the fiber-enhanced resin (R), wherein the woven fiber structure includes bioinert material; and wherein the fiber (F) in the fiber-enhanced resin is a multilayer Single fiber and at least one layer of the multilayer Single fiber is made of bioinert material, and at least one layer of the multilayer Single fiber is made of bioactive material, wherein the at least one layer of the multilayer Single fiber made of bioactive material is made of bioglass; characterized in that the woven fiber structure comprises: a center fiber shaft being provided straightly through the woven fiber structure; and a plurality of braided fiber shafts interlaced-knitted around the center fiber shaft , such that the center fiber shaft and the plurality of braided fiber shafts are respectively oriented at angular positions to show a pattern that two braided fiber shafts are arranged in an X-shape that crisscrosses the center fiber shaft . a center fiber shaft being provided straightly through the woven fiber structure; and a plurality of braided fiber shafts interlaced-knitted around the center fiber shaft , such that the center fiber shaft and the plurality of braided fiber shafts are respectively oriented at angular positions to show a pattern that two braided fiber shafts are arranged in an X-shape that crisscrosses the center fiber shaft .
A process for applying a crop protection product to a field by means of an autonomous aircraft, comprising the steps of • providing a digital application map for the field in which the amounts of crop protection product to be applied are recorded for individual partial areas of the field • passing over the field by the autonomous aircraft along a route, and applying the crop protection product via at least one nozzle • determining the spatial distribution of the crop protection product during the application • adapting the parameters for applying the crop protection product to the spatial distribution determined, so that the crop protection product is applied to the partial areas of the field according to the digital application map, wherein the digital application map is constantly updated during the application process. • providing a digital application map for the field in which the amounts of crop protection product to be applied are recorded for individual partial areas of the field • passing over the field by the autonomous aircraft along a route, and applying the crop protection product via at least one nozzle • determining the spatial distribution of the crop protection product during the application • adapting the parameters for applying the crop protection product to the spatial distribution determined, so that the crop protection product is applied to the partial areas of the field according to the digital application map,
A method of producing a white liquid electrophotographic ink composition, the method comprising: heating a polymer resin in a carrier fluid to dissolve the polymer resin; suspending in the carrier fluid white pigment particles to be coated; and cooling the carrier fluid at a rate of 2 °C/hr or less to effect precipitation of the polymer resin from the carrier fluid such that a coating of the resin is formed on the pigment particles, thereby producing the white liquid electrophotographic ink composition. heating a polymer resin in a carrier fluid to dissolve the polymer resin; suspending in the carrier fluid white pigment particles to be coated; and cooling the carrier fluid at a rate of 2 °C/hr or less to effect precipitation of the polymer resin from the carrier fluid such that a coating of the resin is formed on the pigment particles, thereby producing the white liquid electrophotographic ink composition.
A sealable molded body for the packaging of oral biologics, particularly oral vaccines, formed from at least one composite film, whereby the composite film comprises at least three layers, namely two outer layers and at least one middle layer, wherein the first outer layer is formed as a sealing layer, the second outer layer comprises at least a nonwoven material or a nonwoven material is applied onto the second outer layer, the nonwoven material being biodegradable, and the at least one middle layer is a barrier layer, and wherein the second outer layer has at least on the surface properties that allow other components, chemicals or substances to stick or to glue or to adhere on that surface.
Striker for a window or door with at least one profile with a fitting groove which breadthways is limited by two parallel flanks and provided with a locking system with a striker and a co-operating locking cam to lock the window or door in the closed condition, which striker is intended to be mounted on the level of an aforementioned fitting groove and when locking to be able to make contact with a contact zone by means of the locking cam , characterised in that the striker is composed of a foot and a head mounted sideways thereon , whereby the foot in a mounted condition of the striker fits in several different positions between the flanks of the fitting groove , whereby every position corresponds with a geometric centre line (U-U',V-V') of the foot which coincides with the middle line between the flanks of the fitting groove and the different positions differ from each other by a rotation of the striker around a geometric axis (Z-Z') through a centre point which is located on an aforementioned centre line or in the intersection of several centre lines (U-U',V-V') of the foot , and whereby the head possesses at least two different said contact zones the distance (A,B,C,D) of which to the geometric axis (Z-Z') through the centre point of the foot is different and/or the thickness (P,Q) is different.
Method for continuous sterilization at high temperature of a dermocosmetic emulsion, characterized in that it comprises the following steps: a. pre-heating said emulsion at a pre-heating speed between 0.1°C.s -1 and 1° C.s -1 up to a pre-heating temperature T1, which temperature is at the stability limit of said emulsion; b. performing ultra-high temperature sterilization by infusion of said emulsion, thus pre-heated, which comprises: i. heating up to a sterilization temperature T2 ii. plateauing at the sterilization temperature; iii. cooling under vacuum at an end-of-sterilization temperature T3; c. cooling at a cooling speed being between 0.1°C.s -1 and 0.5° C.s -1 under agitation to a storage temperature T4. a. pre-heating said emulsion at a pre-heating speed between 0.1°C.s -1 and 1° C.s -1 up to a pre-heating temperature T1, which temperature is at the stability limit of said emulsion; b. performing ultra-high temperature sterilization by infusion of said emulsion, thus pre-heated, which comprises: i. heating up to a sterilization temperature T2 ii. plateauing at the sterilization temperature; iii. cooling under vacuum at an end-of-sterilization temperature T3; i. heating up to a sterilization temperature T2 ii. plateauing at the sterilization temperature; iii. cooling under vacuum at an end-of-sterilization temperature T3; c. cooling at a cooling speed being between 0.1°C.s -1 and 0.5° C.s -1 under agitation to a storage temperature T4.
A print liquid supply unit , comprising: a first housing component that is welded to a second housing component along a supply joint , the first and second housing components forming a volume to contain a print liquid inside the print liquid supply unit; a sensor housed in the print liquid supply unit; and a conductor (108, 208a-c, 428, 546, 670a, 670b) connected to the sensor and situated through the supply joint from an outside of the supply unit to an inside of the supply unit, wherein the conductor (108, 208a-c, 428, 546, 670a, 670b) is sealed in the supply joint with a sealing material (110, 210a-c, 422, 440) to prevent the print liquid from leaking from the inside of the print liquid supply unit to the outside of the print liquid supply unit , while allowing the conductor to pass through the supply joint . a first housing component that is welded to a second housing component along a supply joint , the first and second housing components forming a volume to contain a print liquid inside the print liquid supply unit; a sensor housed in the print liquid supply unit; and a conductor (108, 208a-c, 428, 546, 670a, 670b) connected to the sensor and situated through the supply joint from an outside of the supply unit to an inside of the supply unit, wherein the conductor (108, 208a-c, 428, 546, 670a, 670b) is sealed in the supply joint with a sealing material (110, 210a-c, 422, 440) to prevent the print liquid from leaking from the inside of the print liquid supply unit to the outside of the print liquid supply unit , while allowing the conductor to pass through the supply joint .
Use of a formulation for reducing or eliminating allergenic Fel d 1 from an environment, comprising proteases that interact with the Fel d 1 and degrade allergenic epitopes on the Fel d 1, wherein the proteases include at least the serine protease Subtilisin from B. licheniformis and papain.
A use of an artificial forisome body for enzyme immobilisation or for purification of recombinant proteins, wherein the artificial forisome body comprises a fusion protein of at least one SEO-F-protein or an at least 50-amino acid comprising portion thereof, and at least one further protein or peptide, with the exception of forisome bodies that are composed exclusively or partly of a fluorescent fusion protein, wherein (a) the further protein or peptide has a mass of at most 30 kDa, and the forisome body does not comprise an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, or b) the forisome body moreover comprises an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, wherein the unfused SEO-F-protein is selected from proteins having the property of being capable of forming homomeric forisome bodies in the absence of further SEO-F-proteins, or (c) the further protein or peptide is a portion of a second SEO-F-protein being different from the first SEO-F-protein, with the proviso that one of the two SEO-F-proteins in its unfused form is capable of forming homomeric forisome bodies, and the fusion protein is comprised of an N-terminal SEO-F-protein-portion and a C-terminal SEO-F-protein-portion, wherein the portions represent a SEO-F-protein that is complete or C-terminally deleted by up to 50 amino acids and/or N-terminally deleted by up to 13 amino acids, with the proviso that optionally any number of the four cysteines located in the C-terminal portion between AS 600 and AS 670 of the native SEO-F-proteins, may be replaced by amino acids that are not capable of forming a S-S-bond. (a) the further protein or peptide has a mass of at most 30 kDa, and the forisome body does not comprise an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, or b) the forisome body moreover comprises an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, wherein the unfused SEO-F-protein is selected from proteins having the property of being capable of forming homomeric forisome bodies in the absence of further SEO-F-proteins, or (c) the further protein or peptide is a portion of a second SEO-F-protein being different from the first SEO-F-protein, with the proviso that one of the two SEO-F-proteins in its unfused form is capable of forming homomeric forisome bodies, and the fusion protein is comprised of an N-terminal SEO-F-protein-portion and a C-terminal SEO-F-protein-portion, wherein the portions represent a SEO-F-protein that is complete or C-terminally deleted by up to 50 amino acids and/or N-terminally deleted by up to 13 amino acids,
All-glass door system for indoor use, with a glass wall composed of laminated glass elements, which comprises a frameless door opening, and a frameless door element made of laminated glass arranged in it in such a way that it can be swivelled, wherein the glass wall comprises a first lateral-part element and a second lateral-part element , which are arranged on both laterals next to the door opening, and a fanlight element , which is firmly arranged above the door opening between the two lateral-part elements , characterized in that the lateral-part elements , the fanlight element and the door element are flush with each other both on the internal surface as well as the external surface and, at the door opening and/or on the door element , a sealing element running around three sides is arranged for sound insulation, wherein, for the formation of an installation space for the sealing element , it is provided that the fanlight element is made of a triple-laminated glass and formed with a rebate transition in such a way that its outer glass plate protrudes on both sides (a, b) over the middle and inner glass plate , whereby counter-rebates are formed for the connection with the lateral-part elements , and that its inner glass plate protrudes downwardly (c) over the middle and outer glass plate , whereby a counter-rebate for the door element is formed. wherein the glass wall comprises a first lateral-part element and a second lateral-part element , which are arranged on both laterals next to the door opening, and a fanlight element , which is firmly arranged above the door opening between the two lateral-part elements , characterized in that the lateral-part elements , the fanlight element and the door element are flush with each other both on the internal surface as well as the external surface and, at the door opening and/or on the door element , a sealing element running around three sides is arranged for sound insulation, wherein, for the formation of an installation space for the sealing element , it is provided that the fanlight element is made of a triple-laminated glass and formed with a rebate transition in such a way that its outer glass plate protrudes on both sides (a, b) over the middle and inner glass plate , whereby counter-rebates are formed for the connection with the lateral-part elements , and that its inner glass plate protrudes downwardly (c) over the middle and outer glass plate , whereby a counter-rebate for the door element is formed.
A method, comprising: capturing an image of a moving object to be monitored at a first image capturing frequency by a first image sensor of a machine vision system ; transmitting said captured image data to a data processing device ; analysing said received image data by said data processing device , and characterized in that if said received image data is detected to comprise a deviation, said data processing device is arranged to transmit a trigger signal for triggering the first image sensor that captured the image data comprising the deviation so that the first image sensor is reconfigured to capture an image burst at a second image capturing frequency, wherein the trigger signal defines the duration of the image burst, and wherein the second image capturing frequency of the image burst is higher than the first image capturing frequency, and to transmit the captured image burst data to said data processing device for further analysis. capturing an image of a moving object to be monitored at a first image capturing frequency by a first image sensor of a machine vision system ; transmitting said captured image data to a data processing device ; analysing said received image data by said data processing device , and characterized in that if said received image data is detected to comprise a deviation, said data processing device is arranged to transmit a trigger signal for triggering the first image sensor that captured the image data comprising the deviation so that the first image sensor is reconfigured to capture an image burst at a second image capturing frequency, wherein the trigger signal defines the duration of the image burst, and wherein the second image capturing frequency of the image burst is higher than the first image capturing frequency, and to transmit the captured image burst data to said data processing device for further analysis.
A method for controlling travel of a drive-assisted vehicle comprising a controller that detects left and right lane boundaries and that controls travel of a host vehicle based on corrected left and right lane boundaries, the method comprising: distinguishing a curve and a direction of the curve based on road geometry information; characterized by , when traveling through the curve, determining the corrected left and right lane boundaries by limiting positions of the left and right lane boundaries detected by the controller at the inside of the curve to positions for which a speed of movement toward an outside of the curve is restricted. distinguishing a curve and a direction of the curve based on road geometry information; characterized by , when traveling through the curve, determining the corrected left and right lane boundaries by limiting positions of the left and right lane boundaries detected by the controller at the inside of the curve to positions for which a speed of movement toward an outside of the curve is restricted.
A method performed by a wireless device capable of operating according to Multi-Radio Dual Connectivity, MR-DC, such that the UE is configured with a Master Cell Group (MCG), controlled by the Master Node (MN), and configured with a Secondary Cell Group (SCG) controlled by a Source Secondary Node (S-SN), the method comprising: - receiving one or more Radio Resource Control, RRC, reconfiguration messages comprising at least one conditional configuration generated by the MN for a target candidate cell of a candidate Target Secondary Node, T-SN, for the MR-DC and an embedded RRCReconfiguration message generated by the S-SN, said embedded RRCReconfiguration message comprising at least one conditional configuration for a target candidate cell of said S-SN, for the Multi-Radio Dual Connectivity, MR-DC, wherein the one or more RRC reconfiguration messages are for Conditional PSCell Change, CPC; - monitoring one or more conditions; and - transmitting a message to a Master Node, MN, when the one or more conditions are fulfilled. - receiving one or more Radio Resource Control, RRC, reconfiguration messages comprising at least one conditional configuration generated by the MN for a target candidate cell of a candidate Target Secondary Node, T-SN, for the MR-DC and an embedded RRCReconfiguration message generated by the S-SN, said embedded RRCReconfiguration message comprising at least one conditional configuration for a target candidate cell of said S-SN, for the Multi-Radio Dual Connectivity, MR-DC, wherein the one or more RRC reconfiguration messages are for Conditional PSCell Change, CPC; - monitoring one or more conditions; and - transmitting a message to a Master Node, MN, when the one or more conditions are fulfilled.