mhurhangee/patent-ind-claim-en huggingface dataset:
Sliding cover for a roof opening of a commercial vehicle cargo area, having longitudinal guides on both sides of the roof opening, having cross bows , which extend between the longitudinal guides and at their ends are each provided with a slide that is mounted on the respective longitudinal guide in a longitudinally displaceable manner, and having lifting frames arranged in pairs between consecutive slides , wherein the two lifting frames of each pair can be raised against one another and for this purpose at their one end are pivotably connected to the respective slide , and at their other end on the lift side are connected to one another in a hinge joint , wherein a spring element with a first spring end , exerting a downward force, supports itself on the lift-side end of the first lifting frame of the pair and with a second spring end , exerting a downward force, supports itself on the lift-side end of the second lifting frame of the pair, characterized in that parts of each of the two lifting frames are two leg portions and a crosspiece , wherein the crosspiece connects the leg portions in the region of the hinge joint , and in that the crosspieces of both lifting frames sit jointly in a connecting element , which extends on the joint axis (A) .
A ductile iron composition, comprising, by weight: 3.4% to 4.0% Si; 3.0% to 3.5% C; 0.5% to 1.0% Cr; 0.02% to 0.05% Mo; up to 0.01% S; up to 0.5% Mn; and balance iron and incidental impurities; wherein the composition includes a ferritic body center cubic microstructure and has a graphite nodule density of greater than 100 per mm 2 , wherein the ductile iron composition includes microstructure containing less than 15 areal% pearlite and carbide volumetric percentage between 5% and 20%. 3.4% to 4.0% Si; 3.0% to 3.5% C; 0.5% to 1.0% Cr; 0.02% to 0.05% Mo; up to 0.01% S; up to 0.5% Mn; and balance iron and incidental impurities; wherein the composition includes a ferritic body center cubic microstructure and has a graphite nodule density of greater than 100 per mm 2 , wherein the ductile iron composition includes microstructure containing less than 15 areal% pearlite and carbide volumetric percentage between 5% and 20%.
A method for preparing a single-stranded DNA library for sequencing, the method comprising the following steps: a. providing a plurality of partitions, wherein individual partitions of the plurality comprise: i. a portion of a test sample comprising double stranded DNA isolated from an individual; ii. a plurality of oligonucleotides, wherein the plurality of oligonucleotides comprise a partition-specific barcode; b. incubating the partitions under conditions suitable to denature the double-stranded DNA into single-stranded DNA; and c. ligating the single-stranded DNA to the oligonucleotides, wherein the ligating covalently links the partition-specific barcode to the single-stranded DNA and produces partition-specific barcoded single-stranded DNA. a. providing a plurality of partitions, wherein individual partitions of the plurality comprise: i. a portion of a test sample comprising double stranded DNA isolated from an individual; ii. a plurality of oligonucleotides, wherein the plurality of oligonucleotides comprise a partition-specific barcode; i. a portion of a test sample comprising double stranded DNA isolated from an individual; ii. a plurality of oligonucleotides, wherein the plurality of oligonucleotides comprise a partition-specific barcode; b. incubating the partitions under conditions suitable to denature the double-stranded DNA into single-stranded DNA; and c. ligating the single-stranded DNA to the oligonucleotides, wherein the ligating covalently links the partition-specific barcode to the single-stranded DNA and produces partition-specific barcoded single-stranded DNA.
Trench cutter comprising - a box-shaped housing , on the upper face of which a lifting apparatus can be mounted, - at least one cutting wheel , which is arranged on a lower face of the housing and can be driven in rotation to remove soil material, wherein cutting teeth are arranged along the outer circumference of the cutting wheel in at least one circumferential row, which at least one axial circumferential clearance adjoins, and - at least one clearing plate , which is fixedly arranged relative to the housing and engages in the at least one circumferential clearance on the cutting wheel to clear away soil material, wherein the at least one cutting wheel is mounted on a planar bearing plate on the lower face of the housing , characterised in that the at least one clearing plate with the plate holder is mounted on the bearing plate , and - in that the at least one clearing plate is mounted on the plate holder so as to be spaced apart from the housing , which plate holder is arranged so as to be spaced apart from the housing , wherein a passage is formed between the at least one clearing plate mounted on the plate holder and the housing , through which passage soil material that has been cut out during operation can be guided upwards. - a box-shaped housing , on the upper face of which a lifting apparatus can be mounted, - at least one cutting wheel , which is arranged on a lower face of the housing and can be driven in rotation to remove soil material, wherein cutting teeth are arranged along the outer circumference of the cutting wheel in at least one circumferential row, which at least one axial circumferential clearance adjoins, and - at least one clearing plate , which is fixedly arranged relative to the housing and engages in the at least one circumferential clearance on the cutting wheel to clear away soil material, wherein the at least one cutting wheel is mounted on a planar bearing plate on the lower face of the housing , - in that the at least one clearing plate is mounted on the plate holder so as to be spaced apart from the housing , which plate holder is arranged so as to be spaced apart from the housing , wherein a passage is formed between the at least one clearing plate mounted on the plate holder and the housing , through which passage soil material that has been cut out during operation can be guided upwards.
A studless winter tire, comprising a tread formed from a rubber composition comprising, per 100 parts by mass of a rubber component, 1 to 60 parts by mass of an inorganic reinforcing agent having an average particle size of 0.69 μm or less and a nitrogen adsorption specific surface area (N 2 SA) of 10 to 50 m 2 /g said inorganic reinforcing agent is at least one of aluminum hydroxide or zirconium oxide, and 40 parts by mass or more of silica, wherein, based on 100% by mass of the rubber component, an amount of polybutadiene rubber is 30 to 90% by mass and an amount of isoprene-based rubber is 10 to 70% by mass, wherein the average particle size is a number average particle size which is measured with a transmission electron microscope, and the N 2 SA is determined by the BET method in accordance with ASTM D3037-81.
A polyvinyl alcohol film comprising a vinyl alcohol-based polymer, wherein, when the polyvinyl alcohol film is measured by a solid echo method using pulse NMR at 60°C for waveform separation of a free induction decay curve of 1H spin-spin relaxation into three curves derived from three components a component A, a component B, and a component C in order of short relaxation time, the component A has a resulting relaxation time of 0.0070 milliseconds or more and 0.0092 milliseconds or less, and a resulting component ratio of 20% or more and 50% or less.
A printing apparatus , comprising: a housing ; a conveying unit configured to unwind a portion of a rolled sheet and convey the unwound sheet ; a printing unit configured to print an image on the unwound sheet ; a cutter configured to cut off a portion of the unwound sheet ; characterized by further comprising: a control unit configured to determine a length of the image to be printed by the printing unit and to control the cutter to cut off the portion of the unwound sheet when the length is smaller than a predetermined value, and a sheet sensor that, when the length is not smaller than a predetermined value, is configured to detect the portion of the unwound sheet conveyed out of the housing , wherein the sheet sensor detects the portion of the unwound sheet when said portion is lifted up and outputs a detection signal that causes the cutter to cut off the unwound sheet , and wherein the sheet sensor does not detect the portion of the unwound sheet when said portion is hanging down. a housing ; a conveying unit configured to unwind a portion of a rolled sheet and convey the unwound sheet ; a printing unit configured to print an image on the unwound sheet ; a cutter configured to cut off a portion of the unwound sheet ; characterized by further comprising: a control unit configured to determine a length of the image to be printed by the printing unit and to control the cutter to cut off the portion of the unwound sheet when the length is smaller than a predetermined value, and a sheet sensor that, when the length is not smaller than a predetermined value, is configured to detect the portion of the unwound sheet conveyed out of the housing , a control unit configured to determine a length of the image to be printed by the printing unit and to control the cutter to cut off the portion of the unwound sheet when the length is smaller than a predetermined value, and a sheet sensor that, when the length is not smaller than a predetermined value, is configured to detect the portion of the unwound sheet conveyed out of the housing , wherein the sheet sensor detects the portion of the unwound sheet when said portion is lifted up and outputs a detection signal that causes the cutter to cut off the unwound sheet , and wherein the sheet sensor does not detect the portion of the unwound sheet when said portion is hanging down.
An adhesive system comprising: a. a resin composition comprising at least 30% by weight of a phenol-formaldehyde resin and at least 30% by weight of a derivative of native lignin, wherein the derivative of native lignin has an aliphatic hydroxyl content of from 0.6 mmol/g to 6.5 mmol/g and wherein the resin compositions comprises at least one ingredient selected from the group consisting of adhesion promoters, biocides, anti-fogging agents, anti-static agents, bonding, blowing and foaming agents, dispersants, fillers and extenders, fire and flame retardants and smoke suppressants, impact modifiers, initiators, lubricants, micas, pigments, colorants and dyes, plasticizers, processing aids, release agents, silanes, titanates and zirconates, slip and anti-blocking agents, stabilizers, stearates, ultraviolet light absorbers, foaming agents, defoamers, hardeners, odorants, deodorants, antifouling agents, viscosity regulators, waxes, and combinations thereof; and b. an isocyanate-based binder. a. a resin composition comprising at least 30% by weight of a phenol-formaldehyde resin and at least 30% by weight of a derivative of native lignin, wherein the derivative of native lignin has an aliphatic hydroxyl content of from 0.6 mmol/g to 6.5 mmol/g and wherein the resin compositions comprises at least one ingredient selected from the group consisting of adhesion promoters, biocides, anti-fogging agents, anti-static agents, bonding, blowing and foaming agents, dispersants, fillers and extenders, fire and flame retardants and smoke suppressants, impact modifiers, initiators, lubricants, micas, pigments, colorants and dyes, plasticizers, processing aids, release agents, silanes, titanates and zirconates, slip and anti-blocking agents, stabilizers, stearates, ultraviolet light absorbers, foaming agents, defoamers, hardeners, odorants, deodorants, antifouling agents, viscosity regulators, waxes, and combinations thereof; and b. an isocyanate-based binder.
A method of forming a preceramic material, the method comprising: modifying a moiety Si-O-R of a polycarbosilane or polycarbosiloxane material with at least one metal (M), where Si is silicon, O is oxygen and R includes an alkyl or aryl moiety, by reaction to substitute R with M to produce a preceramic polycarbosilane or polycarbosiloxane material that includes a moiety Si-O-M, wherein the at least one metal (M) is selected from a group consisting of aluminum, boron, alkaline earth metals, transition metals, refractory metals, rare earth metals and combinations thereof; and wherein the transition metal is selected from a group consisting of hafnium, vanadium, chromium and combinations thereof; and wherein the refractory metal is selected from a group consisting of niobium, tantalum, molybdenum, tungsten, rhenium and combinations thereof; and wherein rare earth metal is selected from a group consisting of scandium, ytterbium, gadolinium, yttrium, lanthanum, neodymium, dysprosium, lutetium and combinations thereof; and wherein alkaline earth metal is selected from a group consisting of barium, strontium, calcium, magnesium, and combinations thereof. modifying a moiety Si-O-R of a polycarbosilane or polycarbosiloxane material with at least one metal (M), where Si is silicon, O is oxygen and R includes an alkyl or aryl moiety, by reaction to substitute R with M to produce a preceramic polycarbosilane or polycarbosiloxane material that includes a moiety Si-O-M, wherein the at least one metal (M) is selected from a group consisting of aluminum, boron, alkaline earth metals, transition metals, refractory metals, rare earth metals and combinations thereof; and wherein the transition metal is selected from a group consisting of hafnium, vanadium, chromium and combinations thereof; and wherein the refractory metal is selected from a group consisting of niobium, tantalum, molybdenum, tungsten, rhenium and combinations thereof; and wherein rare earth metal is selected from a group consisting of scandium, ytterbium, gadolinium, yttrium, lanthanum, neodymium, dysprosium, lutetium and combinations thereof; and wherein alkaline earth metal is selected from a group consisting of barium, strontium, calcium, magnesium, and combinations thereof.
Method for producing ceramic multilayer components , comprising the following steps: - providing green layers for the ceramic multilayer components , - stacking the green layers to form a stack and subsequently pressing the stack to yield a block , - singulating the block into sub-blocks in each case with a longitudinal direction (X), - heat-treating the sub-blocks and subsequently machining surfaces of the sub-blocks , wherein during the machining depressions are made in the surfaces of the sub-blocks , - singulating the sub-blocks . - providing green layers for the ceramic multilayer components , - stacking the green layers to form a stack and subsequently pressing the stack to yield a block , - singulating the block into sub-blocks in each case with a longitudinal direction (X), - heat-treating the sub-blocks and subsequently machining surfaces of the sub-blocks , wherein during the machining depressions are made in the surfaces of the sub-blocks , - singulating the sub-blocks .
Nutraceutical or pharmaceutical composition comprising: a) a lipid fraction comprising at least one of docosahexaenoic acid (DHA), docosapentaenoic acid (DPA) and eicosapentaenoic acid (EPA); b) a protein fraction comprising proteinaceous material from non-human origin which provide at least cysteine and/or taurine; c) a mineral fraction comprising at least one of manganese and molybdenum; d) a uracil source providing more than 25 mol% of the total nucleobase sources and wherein the molar ratio [CMP+UMP] to [AMP+GMP+TMP+IMP] is more than 1.45. a) a lipid fraction comprising at least one of docosahexaenoic acid (DHA), docosapentaenoic acid (DPA) and eicosapentaenoic acid (EPA); b) a protein fraction comprising proteinaceous material from non-human origin which provide at least cysteine and/or taurine; c) a mineral fraction comprising at least one of manganese and molybdenum; d) a uracil source providing more than 25 mol% of the total nucleobase sources and wherein the molar ratio [CMP+UMP] to [AMP+GMP+TMP+IMP] is more than 1.45.
Method for operating an elevator system having a shaft system and a plurality of elevator cars that are able to be individually displaced between shaft positions , wherein the shaft system has at least two first shafts in which the elevator cars are displaced in a first travel direction , and has at least one second shaft in which the elevator cars are displaced in a second travel direction , wherein the shaft positions in the first shafts and in the at least one second shaft are positioned identically in vertical terms, and wherein at least two vertically adjacent shaft positions of the shafts have a minimum mutual spacing (A m ) that is smaller than the predefined spacing for simultaneously positioning two elevator cars at vertically adjacent shaft positions of a shaft , characterized in that the elevator cars in one first shaft travel to only one of two vertically adjacent shaft positions that have a minimum mutual spacing (A m ), and the elevator cars in another first shaft travel to only the other one of two vertically adjacent shaft positions that have a minimum mutual spacing (A m ).
Automatically controlled door arrangement as a floor door of an elevator installation , comprising: at least one door leaf which can be actively moved between an open and a closed position; a drive for moving the door leaf between the open and the closed position; a controller for controlling the drive ; a sensor system for detecting people or objects in front of the door leaf; characterised in that the door arrangement comprises further: a data connection for data exchange with an external computer ; and wherein the door arrangement is configured to: - receive and process signals from the sensor system in the controller , - send query data to the external computer via the data connection on the basis of the processed signals, - then receive instruction data provided by the external computer , and - control the drive of the door leaf taking into account the instruction data. at least one door leaf which can be actively moved between an open and a closed position; a drive for moving the door leaf between the open and the closed position; a controller for controlling the drive ; a sensor system for detecting people or objects in front of the door leaf; characterised in that the door arrangement comprises further: a data connection for data exchange with an external computer ; and wherein the door arrangement is configured to: - receive and process signals from the sensor system in the controller , - send query data to the external computer via the data connection on the basis of the processed signals, - then receive instruction data provided by the external computer , and - control the drive of the door leaf taking into account the instruction data. - receive and process signals from the sensor system in the controller , - send query data to the external computer via the data connection on the basis of the processed signals, - then receive instruction data provided by the external computer , and - control the drive of the door leaf taking into account the instruction data.
A system for additively manufacturing a part , the system comprising: a base adapted to support material ; a solidification device adapted to sinter or melt the supported material and thereby fuse together so as to solidify at least a portion of the supported material to form at least a portion of the part , wherein the solidification device is adapted to solidify the respective material with an energy beam that moves over the respective material; characterised in that the system further comprises: a detection device adapted to follow the energy beam and detect one or more byproducts produced by the solidification of at least a portion of the material as the detection device is following the energy beam , wherein the detection device is a mass spectrometer; and a processing system adapted to: receive data from the detection device indicative of the detected byproducts; and control operation of the solidification device based on the data. a base adapted to support material ; a solidification device adapted to sinter or melt the supported material and thereby fuse together so as to solidify at least a portion of the supported material to form at least a portion of the part , wherein the solidification device is adapted to solidify the respective material with an energy beam that moves over the respective material; characterised in that the system further comprises: a detection device adapted to follow the energy beam and detect one or more byproducts produced by the solidification of at least a portion of the material as the detection device is following the energy beam , wherein the detection device is a mass spectrometer; and a processing system adapted to: receive data from the detection device indicative of the detected byproducts; and control operation of the solidification device based on the data. a detection device adapted to follow the energy beam and detect one or more byproducts produced by the solidification of at least a portion of the material as the detection device is following the energy beam , wherein the detection device is a mass spectrometer; and a processing system adapted to: receive data from the detection device indicative of the detected byproducts; and control operation of the solidification device based on the data. receive data from the detection device indicative of the detected byproducts; and control operation of the solidification device based on the data.
Apparatus for machining edge faces and/or corners of a panel-formed workpiece which is preferably formed at least partially from wood, wood-based material, plastic or the like, having: two machining devices , each designed to machine an edge face (4; 7) and/or corner (5; 6) of the workpiece ; a conveying device for inducing a relative movement between the workpiece and the machining devices in a conveying direction (F); wherein the apparatus is designed to machine different, preferably opposite, edge faces and/or corners of the workpiece using the two machining devices ; wherein the apparatus also has a single support device on which both machining devices are provided, characterised in that the support device is designed to be moveable along the conveying direction (F) of the workpiece . two machining devices , each designed to machine an edge face (4; 7) and/or corner (5; 6) of the workpiece ; a conveying device for inducing a relative movement between the workpiece and the machining devices in a conveying direction (F); wherein the apparatus is designed to machine different, preferably opposite, edge faces and/or corners of the workpiece using the two machining devices ; wherein the apparatus also has a single support device on which both machining devices are provided, characterised in that the support device is designed to be moveable along the conveying direction (F) of the workpiece .