mhurhangee/patent-ind-claim-en huggingface dataset:
A tire comprising a tire body , wherein the tire body has a plurality of cavities along a circumferential direction, each of the plurality of cavities has an opening located on an inner circumferential surface of the tire body , a connecting portion is formed between adjacent openings , the connecting portion comprises a middle connecting portion and an end connecting portion distributed along a width direction of the tire body , and a width of the middle connecting portion is constant, wherein a convex rib is arranged on a cavity wall of each of the plurality of cavities opposite to the corresponding opening , and each of said convex ribs protrudes toward its opening and extends along the circumferential direction of the tire body , characterized in that in a cross section of the tire body through one of the plurality of cavities , the convex rib has the following parameters: a ratio L1 /H of a distance L1 from a top of the convex rib to the outer circumferential surface of the tire body to the maximum height H of the tire body is in the range: 1/4 ≤ L1/H ≤ 1/2, a ratio H1/H of a height H1 of the convex rib to the maximum height H of the tire body is in the range: 1/16 ≤H1/H ≤1/4, and a ratio of the maximum width L2 of the convex rib to the maximum width L of the tire body is in the range: 1/4 ≤ L2/L ≤3/4. wherein the tire body has a plurality of cavities along a circumferential direction, each of the plurality of cavities has an opening located on an inner circumferential surface of the tire body , a connecting portion is formed between adjacent openings , the connecting portion comprises a middle connecting portion and an end connecting portion distributed along a width direction of the tire body , and a width of the middle connecting portion is constant, wherein a convex rib is arranged on a cavity wall of each of the plurality of cavities opposite to the corresponding opening , and each of said convex ribs protrudes toward its opening and extends along the circumferential direction of the tire body , characterized in that in a cross section of the tire body through one of the plurality of cavities , the convex rib has the following parameters: a ratio L1 /H of a distance L1 from a top of the convex rib to the outer circumferential surface of the tire body to the maximum height H of the tire body is in the range: 1/4 ≤ L1/H ≤ 1/2, a ratio H1/H of a height H1 of the convex rib to the maximum height H of the tire body is in the range: 1/16 ≤H1/H ≤1/4, and a ratio of the maximum width L2 of the convex rib to the maximum width L of the tire body is in the range: 1/4 ≤ L2/L ≤3/4. a ratio L1 /H of a distance L1 from a top of the convex rib to the outer circumferential surface of the tire body to the maximum height H of the tire body is in the range: 1/4 ≤ L1/H ≤ 1/2, a ratio H1/H of a height H1 of the convex rib to the maximum height H of the tire body is in the range: 1/16 ≤H1/H ≤1/4, and a ratio of the maximum width L2 of the convex rib to the maximum width L of the tire body is in the range: 1/4 ≤ L2/L ≤3/4.
Cutting system for a combine harvester , having a support frame for a cutting table , which has, on the cutting side, a cutting bar which is fastened in an articulated manner to the support frame , is flexible transversely to the cutting direction and can be adjusted in height with respect to the support frame by means of a plurality of axle levers which are arranged distributed over the width of the cutting system and engage at one end on the cutting bar and at the other end on the support frame , for which purpose actuators are associated with the axle levers for the purpose of setting a ground clearance, wherein the actuators and thus the axle levers with the cutting bar are controllable by a controller for maintaining a predetermined ground clearance of the cutting bar over the cutting bar width, characterized in that the cutting bar is assigned a plurality of sensors which are arranged in a distributed manner over the width of the cutting system, record the ground clearance of the cutting bar and are provided in the cutting direction in front of each axle lever on the cutting bar , wherein the sensors are skids arranged on the bottom side of the cutting bar for measuring the ground contact pressure of the respective skid or for measuring the distance between the skid and the cutting bar .
A method of controlling flatness of a strip of rolled material in a production line comprising a hot rolling mill and at least one cold rolling mill , downstream of the hot rolling mill , the method comprising: - determining flatness data associated with the strip in one or more of the at least one cold rolling mill and/or following passing of the strip through one or more of the at least one cold rolling mill ; - determining a thickness profile target of the strip for the hot rolling mill based on the flatness data, the thickness profile target indicating a change in thickness over a width of the strip through the hot rolling mill ; and - passing the strip through the hot rolling mill and adjusting the thickness of the strip based on the thickness profile target . - determining flatness data associated with the strip in one or more of the at least one cold rolling mill and/or following passing of the strip through one or more of the at least one cold rolling mill ; - determining a thickness profile target of the strip for the hot rolling mill based on the flatness data, the thickness profile target indicating a change in thickness over a width of the strip through the hot rolling mill ; and - passing the strip through the hot rolling mill and adjusting the thickness of the strip based on the thickness profile target .
A method for soldering a surface-mount component wherein a surface-mount component is formed by soldering a circuit element having an electrode surface on which a Ni plating layer is formed on a die pad electrode surface of a lead frame on which another Ni plating layer is formed, using (Sn-Sb)-based solder material which contains 10% through 11% by mass of Sb and a remainder of Sn with impurities including less than 0.005% by mass of Cu, the surface-mount component further comprising a lead portion being soldered on a board terminal portion of a circuit board using (Sn-Ag-Cu-Bi)-based solder material which contains 3 through 3.5% by mass of Ag, 0.5 through 1.0% by mass of Cu, 3 through 7% by mass of Bi and the remainder of Sn, as the mounting solder material with the (Sn-Ag-Cu-Bi)-based solder material being applied on the terminal portion.
An arrangement comprising a glove or other covering element of a user's hand, a pole for sportive practice, in particular, a ski pole, a device coupling the glove or other covering element with the pole for sportive practice, the pole comprising a handle , the device comprising: - at least one first magnetic coupling element (A) associated or associable with said pole close to the upper end of said pole , - at least one second magnetic coupling element (B) associated or associable with said glove or with said other covering element , - wherein at least one of said first and second magnetic coupling elements (A, B) is a permanent magnet, - wherein said first magnetic coupling element (A) is arranged at the handle of said pole , - said second magnetic coupling element (B) is associated with said glove or other covering element in such a way as to be positioned at the palm of the user's hand corresponding to an area between the thumb and the index finger, - wherein the coupling between said glove or said other covering element of the user's hand and said pole is provided only because of a magnetic force between said first magnetic coupling element (A) and said second magnetic coupling element (B), without the aid of additional elements, - characterised in that said first and second magnetic coupling elements (A, B) have flat front surfaces arranged for mutual contact. - at least one first magnetic coupling element (A) associated or associable with said pole close to the upper end of said pole , - at least one second magnetic coupling element (B) associated or associable with said glove or with said other covering element , - wherein at least one of said first and second magnetic coupling elements (A, B) is a permanent magnet, - wherein said first magnetic coupling element (A) is arranged at the handle of said pole , - said second magnetic coupling element (B) is associated with said glove or other covering element in such a way as to be positioned at the palm of the user's hand corresponding to an area between the thumb and the index finger, - wherein the coupling between said glove or said other covering element of the user's hand and said pole is provided only because of a magnetic force between said first magnetic coupling element (A) and said second magnetic coupling element (B), without the aid of additional elements, - characterised in that said first and second magnetic coupling elements (A, B) have flat front surfaces arranged for mutual contact.
A method for transmitting a sounding reference signal, SRS, by a user equipment , the method comprising: receiving, through a radio resource control, RRC, signaling, (i) first information regarding a number of symbols L that are consecutive in time and that are configured for transmission of the SRS, and (ii) second information regarding a symbol-level repetition number R for the transmission of the SRS, wherein L is equal to 4 and R is equal to 2; and transmitting the SRS within a slot based on the first information and the second information, using a first frequency resource and a second frequency resource with frequency hopping, wherein first R consecutive symbols, among L consecutive symbols within the slot, are used to transmit the SRS in the first frequency resource, wherein second R consecutive symbols, among the L consecutive symbols within the slot, are used to transmit the SRS in the second frequency resource, wherein the first R consecutive symbols and the second R consecutive symbols do not overlap in a time domain, and wherein the first frequency resource and the second frequency resource are consecutive frequency resources. receiving, through a radio resource control, RRC, signaling, (i) first information regarding a number of symbols L that are consecutive in time and that are configured for transmission of the SRS, and (ii) second information regarding a symbol-level repetition number R for the transmission of the SRS, wherein L is equal to 4 and R is equal to 2; and transmitting the SRS within a slot based on the first information and the second information, using a first frequency resource and a second frequency resource with frequency hopping, wherein first R consecutive symbols, among L consecutive symbols within the slot, are used to transmit the SRS in the first frequency resource, wherein second R consecutive symbols, among the L consecutive symbols within the slot, are used to transmit the SRS in the second frequency resource, wherein the first R consecutive symbols and the second R consecutive symbols do not overlap in a time domain, and wherein the first frequency resource and the second frequency resource are consecutive frequency resources.
Method for exhaust gas aftertreatment, comprising at least the steps of: a) providing a nitrogen oxide-containing raw exhaust gas, b) introducing the nitrogen oxide-containing raw exhaust gas into a catalytic evaporator , c) simultaneously introducing a urea solution and a fuel into the catalytic evaporator , as a result of which a reducing agent is obtained, and d) supplying the reducing agent to an exhaust gas aftertreatment system , characterized in that an individual reducing agent is provided by changing the reactant streams raw exhaust gas, fuel and urea solution depending on the operating point in the engine map. a) providing a nitrogen oxide-containing raw exhaust gas, b) introducing the nitrogen oxide-containing raw exhaust gas into a catalytic evaporator , c) simultaneously introducing a urea solution and a fuel into the catalytic evaporator , as a result of which a reducing agent is obtained, and d) supplying the reducing agent to an exhaust gas aftertreatment system ,
A solid state light emitter package comprising - a solid state light emitter die , - a first lead frame and a second lead frame being electrically isolated from the first lead frame , said lead frames are for receiving power from an external power source and are arranged to provide received power to the solid state light emitter die , the solid state light emitter die being at least partially provided on the first lead frame , - an electrical insulating material , - a thermal element being arranged in between the first lead frame and the second lead frame and being electrically isolated by the electrical insulating material from the first lead frame and from the second lead frame and the thermal element being at least one of a heat absorber or a heat spreader, and - a bridging element bridging the electrical insulating material and the thermal element in between the first lead frame and the second lead frame and the bridging element is for obtaining an electrical connection between the solid state light emitter die and the second lead frame - characterized in the thermal element not being in direct thermal contact with a solid state light emitter die, and, seen in a virtual plane that follows top surfaces of the first lead frame and the second lead frame , the thermal element at least partially encloses the first lead frame or the second lead frame to delay heat transfer between the first lead frame and the second lead frame . - a solid state light emitter die , - a first lead frame and a second lead frame being electrically isolated from the first lead frame , said lead frames are for receiving power from an external power source and are arranged to provide received power to the solid state light emitter die , the solid state light emitter die being at least partially provided on the first lead frame , - an electrical insulating material , - a thermal element being arranged in between the first lead frame and the second lead frame and being electrically isolated by the electrical insulating material from the first lead frame and from the second lead frame and the thermal element being at least one of a heat absorber or a heat spreader, and - a bridging element bridging the electrical insulating material and the thermal element in between the first lead frame and the second lead frame and the bridging element is for obtaining an electrical connection between the solid state light emitter die and the second lead frame - characterized in the thermal element not being in direct thermal contact with a solid state light emitter die, and, seen in a virtual plane that follows top surfaces of the first lead frame and the second lead frame , the thermal element at least partially encloses the first lead frame or the second lead frame to delay heat transfer between the first lead frame and the second lead frame .
Conjugate for labelling a target moiety on a cell according to general formula (I) (I) X o -P- Y m with Y : MHC-complex which is targeting TCR (T-cell receptor) and/or KIR (killer cell immunoglobulin-like receptor) molecules P : enzymatically degradable spacer, X : fluorescent dye, o : integer between 5 and 25, m: integer between 2 and 1000 wherein X and P; P and Y are covalently bound to each other characterized in that Y is bound to P via the C-terminus of Y. with Y : MHC-complex which is targeting TCR (T-cell receptor) and/or KIR (killer cell immunoglobulin-like receptor) molecules P : enzymatically degradable spacer, X : fluorescent dye, o : integer between 5 and 25, m: integer between 2 and 1000 P : enzymatically degradable spacer, X : fluorescent dye, o : integer between 5 and 25, m: integer between 2 and 1000 wherein X and P; P and Y are covalently bound to each other characterized in that Y is bound to P via the C-terminus of Y.
Power electrical device , said device comprising a housing inside which is mounted at least one power electronic component and a control electronic unit , said control electronic unit comprising an electronic circuit board allowing said power electronic component to be controlled, said housing comprising a hatch and a plurality of walls of which at least one (20A1) of said walls delimits an aperture blocked by the hatch , said hatch comprising an electrical connector passing through said hatch , said electrical connector comprising a plurality of electrical connection pins , said device being characterized in that one of the connection pins , called "contact pin" , constitutes a conductive portion of the electronic circuit board , the disconnection of which, through the removal of the hatch , provokes the stopping of the device or the discharging of capacitors of the device .
A liquid or semi-liquid, aqueous dietary or pharmaceutical composition, comprising at least one salt of L-arginine in an amount of at least one gram of said salt per unit dose, said composition comprising: - maltitol preferably in an amount of 1 to 1.5 times the weight of said arginine salt in the composition, and - water, in an amount of 1.5 to 3 times the weight of said arginine salt in the composition, and - at least one alcohol or alcoholate. - maltitol preferably in an amount of 1 to 1.5 times the weight of said arginine salt in the composition, and - water, in an amount of 1.5 to 3 times the weight of said arginine salt in the composition, and - at least one alcohol or alcoholate.
A method of manufacturing a tissue thickness compensator , the method comprising: extruding a tube comprising an aperture including a first open end and a second open end; and producing a strand of fibrous material comprising medicament properties; characterized in that the method comprises: positioning the strand relative to the first open end of the aperture; inserting a grasper into the aperture through the second open end; grasping the strand with the grasper; pulling the strand through the aperture; releasing the strand; and removing the grasper from the aperture through the second open end. extruding a tube comprising an aperture including a first open end and a second open end; and producing a strand of fibrous material comprising medicament properties; characterized in that the method comprises: positioning the strand relative to the first open end of the aperture; inserting a grasper into the aperture through the second open end; grasping the strand with the grasper; pulling the strand through the aperture; releasing the strand; and removing the grasper from the aperture through the second open end. positioning the strand relative to the first open end of the aperture; inserting a grasper into the aperture through the second open end; grasping the strand with the grasper; pulling the strand through the aperture; releasing the strand; and removing the grasper from the aperture through the second open end.
A tire, comprising a two or more layered belt layer , the belt layer comprising belt plies each comprising a steel monofilament and a coating rubber , characterised by the belt layer having a ratio of E2/E1 of less than 0.90, wherein, when viewed in a radial cross-section of the tire, E1 denotes the number (ends/10 mm) of steel monofilaments aligned per 10 mm in a tire width direction in a region of the belt ply having the largest width in a tire axial direction which extends from a tire equator to a point Q that is located at 80% of a distance L in the tire axial direction from the tire equator to a point P that is located at an outer edge, with respect to the tire width direction, of the belt ply having the largest width in the tire axial direction; and E2 denotes the number (ends/10 mm) of steel monofilaments aligned per 10 mm in the tire width direction in a region of the belt ply having the largest width in the tire axial direction which extends from the point Q to the point P, the belt layer having a distance S of 0.80 mm or more, wherein the distance S represents a distance in a tire radial direction between the outermost steel monofilament, with respect to the tire width direction, of the belt ply adjacent to the belt ply having the largest width in the tire axial direction and the steel monofilament of the belt ply having the largest width in the tire axial direction. the belt layer comprising belt plies each comprising a steel monofilament and a coating rubber , characterised by the belt layer having a ratio of E2/E1 of less than 0.90, wherein, when viewed in a radial cross-section of the tire, E1 denotes the number (ends/10 mm) of steel monofilaments aligned per 10 mm in a tire width direction in a region of the belt ply having the largest width in a tire axial direction which extends from a tire equator to a point Q that is located at 80% of a distance L in the tire axial direction from the tire equator to a point P that is located at an outer edge, with respect to the tire width direction, of the belt ply having the largest width in the tire axial direction; and E2 denotes the number (ends/10 mm) of steel monofilaments aligned per 10 mm in the tire width direction in a region of the belt ply having the largest width in the tire axial direction which extends from the point Q to the point P, the belt layer having a distance S of 0.80 mm or more, wherein the distance S represents a distance in a tire radial direction between the outermost steel monofilament, with respect to the tire width direction, of the belt ply adjacent to the belt ply having the largest width in the tire axial direction and the steel monofilament of the belt ply having the largest width in the tire axial direction.
Device for distributing liquid, having a spray nozzle which is rotatable or pivotable about a vertical axis (A), a vertical feed pipe which leads to the spray nozzle and encloses a liquid duct for supplying the spray nozzle with liquid, a connector which is connectable to the feed pipe and is configured to be coupled in a fluid-tight manner to a fire hose , and a frame of struts which are supported in relation to the feed pipe , characterized in that a first strut of the frame is supported in relation to the feed pipe in a first direction, in that a second strut of the frame is supported in relation to the feed pipe in a second direction which is counter to the first direction, and in that the flow axis (B) of the connector runs horizontally in an axial direction that is transverse to the first and the second direction, and in that other struts supporting in other directions are not present.