mhurhangee/patent-ind-claim-en huggingface dataset:
A method for ventilating a motor vehicle interior with a ventilation arrangement , the ventilation arrangement having a first air vent which is arranged in the interior of the motor vehicle and has a first flow duct and a second flow duct , the the first and the second flow channel of the first air vent are fluidically separated from one another and open out at different angles into an outflow opening of the first air vent , the ventilation arrangement having a second air vent which is arranged at a distance from the first air vent , characterized in that the second air vent has a first flow channel and a second flow channel , the first and the second flow channel of the second air vent are fluidically separated from one another and at different angles i n an outflow opening of the second air vent and wherein the first flow channels of the first and second air vent are fluidically coupled to one another by means of a first distributor channel of an air distributor . and wherein the second flow channels of the first and second air vents are fluidically coupled to one another by means of a second distributor channel of the air distributor , the method comprising the following steps: - Applying a first air flow to the first flow channel and/or applying a second air flow to the second flow channel to form a first outflow air flow at the outflow opening , des first air vent and the second air vent , wherein the first vent air flow has a first flow direction , - Changing the air mass flow of the first air flow relative to the air mass flow of the second air flow and forming a second outflow air flow at the outflow opening , the first air outflow and the second air outflow , wherein the second outflow air flow has a second flow direction which differs from the first flow direction , - the air mass flow in the first distributor duct for simultaneously changing the flow direction of the vent air streams of the first air vent and the second air vent . is changed relative to the air mass flow in the second distribution channel . - Applying a first air flow to the first flow channel and/or applying a second air flow to the second flow channel to form a first outflow air flow at the outflow opening , des first air vent and the second air vent , wherein the first vent air flow has a first flow direction , - Changing the air mass flow of the first air flow relative to the air mass flow of the second air flow and forming a second outflow air flow at the outflow opening , the first air outflow and the second air outflow , wherein the second outflow air flow has a second flow direction which differs from the first flow direction , - the air mass flow in the first distributor duct for simultaneously changing the flow direction of the vent air streams of the first air vent and the second air vent . is changed relative to the air mass flow in the second distribution channel .
Method for electrochemically reducing carbon dioxide, comprising a) introducing a water feed to an anode compartment of an electrochemical reactor, said anode compartment comprising an anode; b) introducing a carbon dioxide feed, wherein the carbon dioxide feed has carbon dioxide as main component, to a cathode compartment of an electrochemical reactor, said cathode compartment comprising a cathode; c) applying an electrical potential between the anode and the cathode in the electrochemical reactor sufficient for the cathode to reduce carbon dioxide into a reduced carbon dioxide product or product mixture, wherein said anode compartment is separated from said cathode compartment by a separator comprising a bipolar membrane, a charge-mosaic membrane, or a layered mixture of anion and cation exchange resins, and wherein the pressure in the electrochemical reactor is 2.0 MPa (20 bara) or more. a) introducing a water feed to an anode compartment of an electrochemical reactor, said anode compartment comprising an anode; b) introducing a carbon dioxide feed, wherein the carbon dioxide feed has carbon dioxide as main component, to a cathode compartment of an electrochemical reactor, said cathode compartment comprising a cathode; c) applying an electrical potential between the anode and the cathode in the electrochemical reactor sufficient for the cathode to reduce carbon dioxide into a reduced carbon dioxide product or product mixture,
A connection opening system for opening a heat-bonded connection site seal line at a connection site between two hollow, flexible, thermoplastic segments of a medical fluid path, the heat-bonded connection site seal line having an axis , wherein the connection opening system includes: a connection site opening station comprising a roller having a first substantially cylindrical surface rotatable about a first axis and a plate having a second substantially planar surface facing the first cylindrical surface, at least one of the roller and the plate being moveable in a direction substantially perpendicular to the first axis between a first position in which the facing surfaces are spaced apart sufficiently to receive the two segments and the heat bonded connection site seal line between the facing surfaces and a second position in which the facing surfaces apply a force to the connection site substantially perpendicular to the connection site axis and substantially parallel to the connection site seal line, with the roller being moveable laterally back and forth relative to the plate when in the second position to rotate the connection about the connection site axis.
A method of manufacturing a stationary blade for a blade set of a hair cutting appliance , the method comprising: - providing a metal component , comprising: - providing a sheet-metal blank , - forming at least one pattern of slots in the sheet-metal blank , and - applying a first bending procedure, thereby forming a top wall and two legs at opposite ends of the top wall that are spaced away from one another in a longitudinal direction, wherein, subsequent to the first bending procedure, each of the two legs is arranged at a first angle (α) with respect to the top wall , and wherein two bending edges are formed between the top wall and the two legs , - providing a support insert having a longitudinal extension (l s ) that is at least slightly greater than a receiving space (l b ) between the two bending edges , - joining the metal component and the support insert , wherein the metal component is at least slightly pretensioned in the longitudinal direction, due to the longitudinal extension (l s ) of the support insert , and - applying a second bending procedure to the metal component , comprising further bending the two legs , thereby arranging each of the two legs at a second angle (*) with respect to the top wall that is smaller than the first angle (α), wherein the second bending procedure at least partially compensates an intermediate deformation of the top wall that is caused by the pretensioning of the metal component . - providing a metal component , comprising: - providing a sheet-metal blank , - forming at least one pattern of slots in the sheet-metal blank , and - applying a first bending procedure, thereby forming a top wall and two legs at opposite ends of the top wall that are spaced away from one another in a longitudinal direction, wherein, subsequent to the first bending procedure, each of the two legs is arranged at a first angle (α) with respect to the top wall , and wherein two bending edges are formed between the top wall and the two legs , - providing a sheet-metal blank , - forming at least one pattern of slots in the sheet-metal blank , and - applying a first bending procedure, thereby forming a top wall and two legs at opposite ends of the top wall that are spaced away from one another in a longitudinal direction, - providing a support insert having a longitudinal extension (l s ) that is at least slightly greater than a receiving space (l b ) between the two bending edges , - joining the metal component and the support insert , wherein the metal component is at least slightly pretensioned in the longitudinal direction, due to the longitudinal extension (l s ) of the support insert , and - applying a second bending procedure to the metal component , comprising further bending the two legs , thereby arranging each of the two legs at a second angle (*) with respect to the top wall that is smaller than the first angle (α),
Locking system component for a locking system which is assigned to a closure element of a motor vehicle, wherein an impact arrangement for absorbing momentum of a movement element is provided, characterized in that the impact arrangement has a plastics foam element which consists at least partially, preferably completely, of a microcellular, open-cell plastics foam, in particular of a polyurethane foam.
Coil-coating process for the multilayer coating of an endless metal strip , in which a curable polymeric primer for forming a primer layer (7.1) is applied to a flat side of the metal strip by means of a roller application and a curable polymeric lacquer for forming a topcoat layer (8.1) is applied to this primer layer (7.1) by means of a roller application to form a topcoat layer (8.1) and this primer layer (7.1) and topcoat layer (8.1) are cured, characterized in that at least one electrochromic element is applied between the primer layer (7.1) and topcoat layer (8.1), comprising the process steps of printing an, more particularly electrically conductive, electrochromic polymer to form an electrochromic layer (14.1) and/or ion storage layer (14.2) and providing a solid polymer electrolyte to form an electrolyte layer (15.1), wherein the electrolyte layer (15.1) and the electrochromic layer (14.1) or the ion storage layer (14.2) are applied wet-on-wet. a curable polymeric primer for forming a primer layer (7.1) is applied to a flat side of the metal strip by means of a roller application and a curable polymeric lacquer for forming a topcoat layer (8.1) is applied to this primer layer (7.1) by means of a roller application to form a topcoat layer (8.1) and this primer layer (7.1) and topcoat layer (8.1) are cured, characterized in that at least one electrochromic element is applied between the primer layer (7.1) and topcoat layer (8.1), comprising the process steps of printing an, more particularly electrically conductive, electrochromic polymer to form an electrochromic layer (14.1) and/or ion storage layer (14.2) and providing a solid polymer electrolyte to form an electrolyte layer (15.1), wherein the electrolyte layer (15.1) and the electrochromic layer (14.1) or the ion storage layer (14.2) are applied wet-on-wet.
Method of producing a fermented milk product comprising adding lactic acid bacteria to milk, wherein the bacteria comprise Lactobacillus casei and at least one further strain of lactic acid bacteria of a species other than Lactobacillus casei, wherein the further strain has a deficiency in lactose metabolism but is capable of metabolizing one or several carbohydrates other than lactose present in the milk.
An omni-directional wheel comprising: a center wheel configured to rotate about a first rotation axis extending in a first direction; a plurality of peripheral wheels arranged along a circumference of the center wheel and configured to rotate about a second rotation axis extending in a second direction different from the first direction; and a plurality of variable supports provided on the center wheel and configured to respectively support the plurality of peripheral wheels, wherein at least one of the plurality of variable supports is configured to absorb, when an impact force is applied to at least one of the plurality of peripheral wheels being supported by the at least one of the plurality of variable supports , the impact force by changing a distance between the center wheel and the at least one of the plurality of peripheral wheels, wherein each of the plurality of variable supports comprises a support frame extending in a direction away from the first rotation axis of the center wheel and supporting rotation of a peripheral wheel of the plurality of peripheral wheels, characterised in that the center wheel comprises a plurality of first grooves , each of the plurality of first grooves configured to receive at least a portion of the support frame , and in that the support frame further comprises a stopper configured to prevent separation of the support frame from the first groove of the center wheel . a center wheel configured to rotate about a first rotation axis extending in a first direction; a plurality of peripheral wheels arranged along a circumference of the center wheel and configured to rotate about a second rotation axis extending in a second direction different from the first direction; and a plurality of variable supports provided on the center wheel and configured to respectively support the plurality of peripheral wheels, wherein at least one of the plurality of variable supports is configured to absorb, when an impact force is applied to at least one of the plurality of peripheral wheels being supported by the at least one of the plurality of variable supports , the impact force by changing a distance between the center wheel and the at least one of the plurality of peripheral wheels, wherein each of the plurality of variable supports comprises a support frame extending in a direction away from the first rotation axis of the center wheel and supporting rotation of a peripheral wheel of the plurality of peripheral wheels, characterised in that the center wheel comprises a plurality of first grooves , each of the plurality of first grooves configured to receive at least a portion of the support frame , and in that the support frame further comprises a stopper configured to prevent separation of the support frame from the first groove of the center wheel .
A hand milling machine for working the surface of a floor or a wall comprising: a drive; and a tool carrier for receiving a tool rotatable about a tool axis (AW), extending along the tool axis (AW) comprising, a first end facing the drive, a second end remote from the drive, a circumferential surface and at least one connecting element for positive reception of the tool at least in circumferential direction (U), and to which the drive transmits a torque for generating a rotation of the tool carrier in the circumferential direction (U); characterised by a clamping device for clamping the tool carrier and the tool against the hand milling machine in the direction of the tool axis (AW), which has a clamping screw and a clamping nut for tightening and loosening the clamping screw ; and by a housing for the tool carrier and the tool having a detachable cover facing the second end for changing the tool ; the connecting element being arranged at the first end and having at least one projection for engaging in at least one recess of the tool . a drive; and a tool carrier for receiving a tool rotatable about a tool axis (AW), extending along the tool axis (AW) comprising, a first end facing the drive, a second end remote from the drive, a circumferential surface and at least one connecting element for positive reception of the tool at least in circumferential direction (U), and to which the drive transmits a torque for generating a rotation of the tool carrier in the circumferential direction (U); characterised by a clamping device for clamping the tool carrier and the tool against the hand milling machine in the direction of the tool axis (AW), which has a clamping screw and a clamping nut for tightening and loosening the clamping screw ; and by a housing for the tool carrier and the tool having a detachable cover facing the second end for changing the tool ; the connecting element being arranged at the first end and having at least one projection for engaging in at least one recess of the tool .
A method for separating a sialylated oligosaccharide from a fermentation broth obtained by culturing a genetically modified microorganism capable of producing said sialylated oligosaccharide from an internalized carbohydrate precursor, wherein the separation comprises the steps of: i) ultrafiltration (UF) to separate biomass from the broth, ii) nanofiltration, iii) optionally, activated charcoal treatment, and iv) treatment with strong anion and/or cation exchange resin, wherein the sialylated oligosaccharide is an acidic human milk oligosaccharide, wherein the fermentation broth is subjected to ultrafiltration as a first step, wherein the membrane used in ultrafiltration has a molecular weight cut-off of 5-30 kDa, and wherein the pH of the fermentation broth processed in the ultrafiltration step is adjusted to 4-5.5. i) ultrafiltration (UF) to separate biomass from the broth, ii) nanofiltration, iii) optionally, activated charcoal treatment, and iv) treatment with strong anion and/or cation exchange resin, wherein the sialylated oligosaccharide is an acidic human milk oligosaccharide, wherein the fermentation broth is subjected to ultrafiltration as a first step, wherein the membrane used in ultrafiltration has a molecular weight cut-off of 5-30 kDa, and wherein the pH of the fermentation broth processed in the ultrafiltration step is adjusted to 4-5.5.
A cooking attachment for a heatable vessel of a kitchen appliance , wherein the cooking attachment has a bottom with bottom openings , through which steam, which escapes from the vessel , can enter the cooking attachment and/or condensate, which escapes from the cooking attachment , can enter the vessel , the bottom openings have at least one steam opening and at least one condensate opening , which is embodied separately from the steam opening, wherein the steam opening tapers in a steam flow direction from the vessel into the interior of the cooking attachment , and the condensate opening moves in a condensate flow direction from the interior of the cooking attachment into the vessel , characterized in that the steam opening and/or condensate opening , both on the side facing in the direction of the cooking attachment side, as well as on the side facing in the direction of the vessel , a collar element is assigned, projecting from the bottom .
A calcined ferrite having a hexagonal M-type magnetoplumbite structure, having a composition of metal elements of Ca, R, A, Fe and Co, which is represented by the general formula of Ca 1-x-y R x A y Fe 2n-z Co z , wherein R is at least one of rare earth elements indispensably including La; A is Sr and/or Ba; x, y, z and n represent the atomic ratios of Ca, R, A, Fe and Co; and 2n represents a molar ratio expressed by 2n = (Fe + Co)/(Ca + R + A); characterized in that said x, y, z and n meet the following conditions: 0.40 ≤ 1 − x − y ≤ 0.55 , 0.25 ≤ x ≤ 0.35 , 0.15 ≤ y ≤ 0.40 , 1 − x − y > y , 0 < z ≤ 0.18 , and 9.0 ≤ 2 n − z < 11.0 .
A dental instrument comprising: a guide tube having a channel permitting propagation of a pressurized liquid along at least a portion of a length of the guide tube , the guide tube having a proximal end and a distal end; a nozzle configured to output a high-velocity liquid jet, an impingement member having an impingement surface , wherein the impingement surface includes one or more curved or angled portions . and wherein the pressurized liquid during operation of the instrument can propagate along the channel to the nozzle; and wherein the high-velocity liquid jet can propagate from the nozzle and impinge upon the impingement member to slow, disrupt or deflect at least a portion of the high-velocity liquid jet; and a flow restrictor configured to be applied to a treatment region of a tooth under treatment and to contain liquid which emanates from the distal end of the guide tube . a guide tube having a channel permitting propagation of a pressurized liquid along at least a portion of a length of the guide tube , the guide tube having a proximal end and a distal end; a nozzle configured to output a high-velocity liquid jet, an impingement member having an impingement surface , wherein the impingement surface includes one or more curved or angled portions . and wherein the pressurized liquid during operation of the instrument can propagate along the channel to the nozzle; and wherein the high-velocity liquid jet can propagate from the nozzle and impinge upon the impingement member to slow, disrupt or deflect at least a portion of the high-velocity liquid jet; and a flow restrictor configured to be applied to a treatment region of a tooth under treatment and to contain liquid which emanates from the distal end of the guide tube .
A system comprising an optical beacon and a robotic cleaner , the optical beacon comprising: a housing ; an optical emitter at least partially disposed within the housing; and an optical identifier generator optically coupled to the optical emitter, light incident on the optical identifier generator is shaped into a cleaning optical identifier and a map loading optical identifier , characterized in that each optical identifier has a plurality of repeating unique segments that define a pattern, the cleaning optical identifier is associated with a cleaning action capable of being carried out by a robotic cleaner and the map loading optical identifier is associated with a map loading action capable of being carried out by the robotic cleaner , and detection of the cleaning and map loading optical identifiers by the robotic cleaner causes the robotic cleaner to carry out the cleaning and map loading actions. a housing ; an optical emitter at least partially disposed within the housing; and an optical identifier generator optically coupled to the optical emitter, light incident on the optical identifier generator is shaped into a cleaning optical identifier and a map loading optical identifier ,
An isolated or purified antibody or fragment thereof, comprising a) a light chain comprising a complementarity determining region (CDR) L1 sequence consisting of: RASGNIHNYLA (SEQ ID NO:1); a CDR L2 sequence consisting of: NTITLAD (SEQ ID NO:2); a CDR L3 sequence consisting of: QHFWNIPFT (SEQ ID NO:3); and b) a heavy chain comprising a complementarity determining region (CDR) H1 sequence consisting of: GFTFTSCYIH (SEQ ID NO:4); a CDR H2 sequence consisting of: WIYPGNGNTKYNEIFKG (SEQ ID NO:5); a CDR H3 sequence consisting of: GDTTANTMDY (SEQ ID NO:6); wherein the antibody or fragment thereof specifically binds the extracellular domain of Carbohydrate Anhydrase IX (CA-IX). a) a light chain comprising a complementarity determining region (CDR) L1 sequence consisting of: RASGNIHNYLA (SEQ ID NO:1); a CDR L2 sequence consisting of: NTITLAD (SEQ ID NO:2); a CDR L3 sequence consisting of: QHFWNIPFT (SEQ ID NO:3); and a CDR L2 sequence consisting of: NTITLAD (SEQ ID NO:2); a CDR L3 sequence consisting of: QHFWNIPFT (SEQ ID NO:3); and b) a heavy chain comprising a complementarity determining region (CDR) H1 sequence consisting of: GFTFTSCYIH (SEQ ID NO:4); a CDR H2 sequence consisting of: WIYPGNGNTKYNEIFKG (SEQ ID NO:5); a CDR H3 sequence consisting of: GDTTANTMDY (SEQ ID NO:6); a CDR H2 sequence consisting of: WIYPGNGNTKYNEIFKG (SEQ ID NO:5); a CDR H3 sequence consisting of: GDTTANTMDY (SEQ ID NO:6);