mhurhangee/patent-ind-claim-en huggingface dataset:
Density meter for slurry which is transported through a pipe, the density meter comprising: - a frame ; - a pipe part ; - flexible pipe couplings arranged between the frame and either end of the pipe part for coupling the pipe part to the frame and to a feed pipe and a discharge pipe, which pipe couplings impart to the pipe part at least one degree of freedom relative to the feed pipe and the discharge pipe and relative to the frame ; - a first accelerometer arranged on the pipe part for measuring the accelerations of the pipe part in the direction of the at least one degree of freedom; characterized by - an actuator arranged between the pipe part and the frame for imparting a force on the pipe part in order to move the pipe part in the direction of the at least one degree of freedom; - a controller for controlling the actuator with a multi-frequency signal; - computing means having a mathematical model , which computing means fit, in an operational mode, while the controller controls the actuator , the accelerations measured by the first accelerometer on the mathematical model to determine at least one parameter of the mathematical model and which computing means calculate the density of the slurry in the pipe part with the determined at least one parameter. - a frame ; - a pipe part ; - flexible pipe couplings arranged between the frame and either end of the pipe part for coupling the pipe part to the frame and to a feed pipe and a discharge pipe, which pipe couplings impart to the pipe part at least one degree of freedom relative to the feed pipe and the discharge pipe and relative to the frame ; - a first accelerometer arranged on the pipe part for measuring the accelerations of the pipe part in the direction of the at least one degree of freedom; characterized by - an actuator arranged between the pipe part and the frame for imparting a force on the pipe part in order to move the pipe part in the direction of the at least one degree of freedom; - a controller for controlling the actuator with a multi-frequency signal; - computing means having a mathematical model , which computing means fit, in an operational mode, while the controller controls the actuator , the accelerations measured by the first accelerometer on the mathematical model to determine at least one parameter of the mathematical model and which computing means calculate the density of the slurry in the pipe part with the determined at least one parameter.
Device for casting a metallic component comprising an outer undercut, in particular for producing a wheel of light metal, comprising: a base body with a first end portion and a circumferential side wall , wherein the side wall has an inner surface , which is tapered in direction towards the first end portion ; a first die part , which is insertable into the base body and which forms a first moulding surface for the component to be cast; a plurality of side die parts , which are insertable into the base body , wherein the side die parts are radially supported against the circumferential side wall of the base body in the inserted state and form a die ring with an inner moulding surface for the component to be cast; a second die part which is movable into the die ring formed by the side die parts up to a casting position for casting, and which forms a second moulding surface for the component to be cast, characterised in that , in the inserted state of the side die parts into the base body , the second die part is axially movable relative to the side die parts , and is arranged in a completely contact-free manner with respect to the first die part in the casting position. a base body with a first end portion and a circumferential side wall , wherein the side wall has an inner surface , which is tapered in direction towards the first end portion ; a first die part , which is insertable into the base body and which forms a first moulding surface for the component to be cast; a plurality of side die parts , which are insertable into the base body , wherein the side die parts are radially supported against the circumferential side wall of the base body in the inserted state and form a die ring with an inner moulding surface for the component to be cast; a second die part which is movable into the die ring formed by the side die parts up to a casting position for casting, and which forms a second moulding surface for the component to be cast, characterised in that , in the inserted state of the side die parts into the base body , the second die part is axially movable relative to the side die parts , and is arranged in a completely contact-free manner with respect to the first die part in the casting position.
A nail driving device, comprising a driving ram having a drive unit and a feed mechanism for a nail strip that is transportable in a transporting direction (T), wherein the nail strip comprises a receiving ribbon of a first type, which holds nails and has a first width measured in the driving direction (E) of the nails , and wherein a guide member and/or a transporting member of the feed mechanism acts in operation on the receiving ribbon , wherein the guide member and/or transporting member is additionally formed to act during operation on a nail strip having a receiving ribbon of a second type, wherein a width of the receiving ribbon of the second type has a second defined width which is different from the first width, wherein, in operation, the top edges of the receiving ribbons of the first type and the second type are in different positions in the feed mechanism with respect to the driving direction (E), characterized in that the bottom edges of the receiving ribbons of the first type and the second type are in identical positions with respect to the driving direction (E).
Cemented carbide consisting of: a first hard phase; a binder phase; and optionally a second hard phase, wherein the first hard phase consists of tungsten carbide particles, the binder phase consists of cobalt, nickel, iron, and copper as constituent elements, an average content of each of the constituent elements in the binder phase is not lower than 10 atomic % and not higher than 30 atomic %, a content of the binder phase is not lower than 4 mass % and not higher than 15 mass % of a total amount of the cemented carbide, the cemented carbide contains no second hard phase, or a content of the second hard phase in the cemented carbide is equal to or lower than 2 mass % of a total amount of the cemented carbide, and the second hard phase is composed of a compound containing at least one type of a metal element selected from the group consisting of a group-IV element in a periodic table, a group-V element in the periodic table, and a group-VI element in the periodic table except for tungsten and at least one type of an element selected from the group consisting of carbon, nitrogen, and oxygen, wherein the group-IV element of the periodic table includes titanium, zirconium, and hafnium, wherein the group-V element of the periodic table includes vanadium, niobium, and tantalum, and wherein the group-VI element of the periodic table includes chromium and molybdenum. a first hard phase; a binder phase; and optionally a second hard phase, wherein the first hard phase consists of tungsten carbide particles, the binder phase consists of cobalt, nickel, iron, and copper as constituent elements, an average content of each of the constituent elements in the binder phase is not lower than 10 atomic % and not higher than 30 atomic %, a content of the binder phase is not lower than 4 mass % and not higher than 15 mass % of a total amount of the cemented carbide, the cemented carbide contains no second hard phase, or a content of the second hard phase in the cemented carbide is equal to or lower than 2 mass % of a total amount of the cemented carbide, and the second hard phase is composed of a compound containing at least one type of a metal element selected from the group consisting of a group-IV element in a periodic table, a group-V element in the periodic table, and a group-VI element in the periodic table except for tungsten and at least one type of an element selected from the group consisting of carbon, nitrogen, and oxygen, wherein the group-IV element of the periodic table includes titanium, zirconium, and hafnium, wherein the group-V element of the periodic table includes vanadium, niobium, and tantalum, and wherein the group-VI element of the periodic table includes chromium and molybdenum.
A well regenerating apparatus comprising: a treatment device , arranged to regenerate a well screen (WS) in a treatment zone of the well screen (WS), at least an upper packer and a lower packer arranged to isolate the treatment zone between the upper packer and the lower packer , characterized in that the well regenerating apparatus comprises a sliding sleeve , moveable between: - a lifting position in which the sliding sleeve is connected to both the upper packer and the lower packer , - a treatment position, in which the sliding sleeve is disconnected at least from one of the upper packer and the lower packer , so as to allow the treatment device to face directly the well screen (WS). a treatment device , arranged to regenerate a well screen (WS) in a treatment zone of the well screen (WS), at least an upper packer and a lower packer arranged to isolate the treatment zone between the upper packer and the lower packer , characterized in that the well regenerating apparatus comprises a sliding sleeve , moveable between: - a lifting position in which the sliding sleeve is connected to both the upper packer and the lower packer , - a treatment position, in which the sliding sleeve is disconnected at least from one of the upper packer and the lower packer , so as to allow the treatment device to face directly the well screen (WS). - a lifting position in which the sliding sleeve is connected to both the upper packer and the lower packer , - a treatment position, in which the sliding sleeve is disconnected at least from one of the upper packer and the lower packer , so as to allow the treatment device to face directly the well screen (WS).
A bus bar system having at least one bus bar which is accommodated in a contact protection housing protected against contact and accessible via contacting passages for electrical devices and/or device adapters, the contact-protection housing having a lower part and an upper part which is detachably fixed on the lower part and between which the at least one bus bar is held, characterized in that the upper part has, on its side facing the lower part , a plurality of plug-in receptacles extending from the latter into the lower part , and the lower part has at least one slider with at least one latching pawl which can be adjusted between a locking position, in which the at least one latching pawl engages in the plug-in receptacle , and a release position, in which the at least one latching pawl is positioned in front of the plug-in receptacle , wherein the lower part comprises, for each bus bar , a hook element which pre-fixes the respective bus bar to the lower part .
Agent to detect stress or fatigue in a composition comprising: a. Cucurbituril ; b. a fluorescent compound having an emission in a wave length of above 400 nm; c. a quencher compound; wherein the fluorescent compound and the quencher compound have both at least one reactive groups each of which group can be the same or different and is selected from -OH, a primary or a secondary amine and carboxylic anhydride. a. Cucurbituril ; b. a fluorescent compound having an emission in a wave length of above 400 nm; c. a quencher compound;
A method of detecting an endotoxin in a sample at a sensitivity of less than 0.001 EU/mL using a chromogenic assay, the method comprising: a. contacting the sample with a reagent comprising limulus amebocyte lysate (LAL) and a chromogenic peptide substrate; b. measuring a chromogenic effect resulting from an enzymatic cleavage of a chromophore from the chromogenic peptide substrate in the presence of endotoxin in the sample; wherein the LAL has less than 0.5% (wt/wt) of coagulogen relative to total protein in the LAL as measured by SDS-PAGE with protein stain. a. contacting the sample with a reagent comprising limulus amebocyte lysate (LAL) and a chromogenic peptide substrate; b. measuring a chromogenic effect resulting from an enzymatic cleavage of a chromophore from the chromogenic peptide substrate in the presence of endotoxin in the sample;
Method for producing Li-ion battery modules (B), which method comprises the following steps: arranging an elastically plastic device (F; F'; E) between at least two cells (Z) of a battery module (B); wherein the shape of the cells (Z) is prismatic, compressing the at least two cells (Z) of the battery module (B) and the elastic plastic device (F; F'; E), which is arranged between the at least two cells (Z), in a displacement-controlled manner, wherein the displacement-controlled compression takes place along a prespecified path (P) up to a defined end point, and a longitudinal direction (L) of the battery module (B) and the prespecified path (P) are arranged parallel in relation to one another. arranging an elastically plastic device (F; F'; E) between at least two cells (Z) of a battery module (B); wherein the shape of the cells (Z) is prismatic, compressing the at least two cells (Z) of the battery module (B) and the elastic plastic device (F; F'; E), which is arranged between the at least two cells (Z), in a displacement-controlled manner, wherein the displacement-controlled compression takes place along a prespecified path (P) up to a defined end point, and a longitudinal direction (L) of the battery module (B) and the prespecified path (P) are arranged parallel in relation to one another.
Aircraft tyre, the tread of which comprises a composition based on at least one reinforcing filler, a crosslinking system and an elastomeric matrix, comprising: - from 15 to 75 parts, per hundred parts of elastomer, phr, of isoprene elastomer, and - from 25 to 85 phr of a tin-functionalized butadiene and styrene copolymer, the total content of isoprene elastomer and of tin-functionalized butadiene and styrene copolymer being within a range extending from 45 to 100 phr, wherein the elastomeric matrix comprises from more than 0 to 55 phr of another dienic elastomer, wherein the tin-functionalized butadiene and styrene copolymer is a tin-functionalized butadiene and styrene copolymer comprising a low styrene content, the styrene content being within a range extending from 10 to 19%. - from 15 to 75 parts, per hundred parts of elastomer, phr, of isoprene elastomer, and - from 25 to 85 phr of a tin-functionalized butadiene and styrene copolymer, the total content of isoprene elastomer and of tin-functionalized butadiene and styrene copolymer being within a range extending from 45 to 100 phr, wherein the elastomeric matrix comprises from more than 0 to 55 phr of another dienic elastomer, wherein the tin-functionalized butadiene and styrene copolymer is a tin-functionalized butadiene and styrene copolymer comprising a low styrene content, the styrene content being within a range extending from 10 to 19%.
A hand dryer comprising: a nozzle configured to blow out a high-speed airflow toward a drying space from a start of an airflow blowing operation to an end of the airflow blowing operation; and a wind direction changing part configured to change a direction of the airflow blown out from the nozzle , wherein, from the start of the airflow blowing operation to the end of the airflow blowing operation, the nozzle does not directly face the wind direction changing part and any other component of the hand dryer, wherein, when the hand dryer is mounted to a wall of a room having a floor, the opening of the nozzle directly faces the floor of the room, so that the blow direction of the nozzle is oriented vertically toward that floor, that is, when projected along a vertical direction that is the blow direction of the high-speed airflow, the position of the opening of the nozzle does not overlap the position of the wind direction changing part , and the wind direction changing part is so positioned as to be offset or shifted rearward from the opening of the nozzle , wherein the wind direction changing part is not located on an extension of a center axis (A) of an air jet hole of the nozzle , the air jet hole being a narrow passage through which the airflow to be blown out from the nozzle passes, wherein the air jet hole becomes narrower as it goes from an upstream side to a downstream side (exit) of the airflow passing therethrough. a nozzle configured to blow out a high-speed airflow toward a drying space from a start of an airflow blowing operation to an end of the airflow blowing operation; and a wind direction changing part configured to change a direction of the airflow blown out from the nozzle , wherein, from the start of the airflow blowing operation to the end of the airflow blowing operation, the nozzle does not directly face the wind direction changing part and any other component of the hand dryer, wherein, when the hand dryer is mounted to a wall of a room having a floor, the opening of the nozzle directly faces the floor of the room, so that the blow direction of the nozzle is oriented vertically toward that floor, that is, when projected along a vertical direction that is the blow direction of the high-speed airflow, the position of the opening of the nozzle does not overlap the position of the wind direction changing part , and the wind direction changing part is so positioned as to be offset or shifted rearward from the opening of the nozzle , wherein the wind direction changing part is not located on an extension of a center axis (A) of an air jet hole of the nozzle , the air jet hole being a narrow passage through which the airflow to be blown out from the nozzle passes, wherein the air jet hole becomes narrower as it goes from an upstream side to a downstream side (exit) of the airflow passing therethrough.
A composite electrolyte film comprising: an ionically conductive substrate; a composite electrolyte layer disposed on a first surface of the ionically conductive substrate, opposite to a second surface; and an electrolyte layer disposed on the second surface of the ionically conductive substrate, wherein the composite electrolyte layer comprises: a first domain comprising a plurality of two-dimensional nanostructures; and a second domain which is disposed in an interstitial space between neighboring two-dimensional nanostructures of the plurality of two-dimensional nanostructures; wherein the second domain comprises a first electrolyte. an ionically conductive substrate; a composite electrolyte layer disposed on a first surface of the ionically conductive substrate, opposite to a second surface; and an electrolyte layer disposed on the second surface of the ionically conductive substrate, wherein the composite electrolyte layer comprises: a first domain comprising a plurality of two-dimensional nanostructures; and a second domain which is disposed in an interstitial space between neighboring two-dimensional nanostructures of the plurality of two-dimensional nanostructures; a first domain comprising a plurality of two-dimensional nanostructures; and a second domain which is disposed in an interstitial space between neighboring two-dimensional nanostructures of the plurality of two-dimensional nanostructures; wherein the second domain comprises a first electrolyte.
A sole structure for an article of footwear , comprising: a first material having a first hardness, wherein the first material forms at least a majority of a ground-facing surface of the sole structure ; and a second material having a second hardness, wherein the second material extends from the first material and forms at least a first portion of an exterior surface of a sidewall of the sole structure , wherein the first portion of the exterior surface of the sidewall formed by the second material comprises a forefoot sidewall surface that includes at least a portion of a surface area of the exterior surface extending from: (i) a first forward toe location of the sole structure to (ii) a forefoot medial side location of the sole structure , wherein a transition region extends between the ground-facing surface of the sole structure and the sidewall of the sole structure , wherein the transition region is formed by the second material at least at the forefoot medial side location of the sole structure , wherein the transition region includes a medial transition region extending from the ground-facing surface to a forefoot medial sidewall , the medial transition region having a first curvature, the first curvature extending continuously in an anterior-to-posterior direction of the sole structure for a distance of at least 20 mm, wherein the first curvature is greater than a 5 mm radius, and wherein the second hardness is at least 15 Shore A hardness points higher than the first hardness. a first material having a first hardness, wherein the first material forms at least a majority of a ground-facing surface of the sole structure ; and a second material having a second hardness, wherein the second material extends from the first material and forms at least a first portion of an exterior surface of a sidewall of the sole structure , wherein the first portion of the exterior surface of the sidewall formed by the second material comprises a forefoot sidewall surface that includes at least a portion of a surface area of the exterior surface extending from: (i) a first forward toe location of the sole structure to (ii) a forefoot medial side location of the sole structure , wherein a transition region extends between the ground-facing surface of the sole structure and the sidewall of the sole structure , wherein the transition region is formed by the second material at least at the forefoot medial side location of the sole structure , wherein the transition region includes a medial transition region extending from the ground-facing surface to a forefoot medial sidewall , the medial transition region having a first curvature, the first curvature extending continuously in an anterior-to-posterior direction of the sole structure for a distance of at least 20 mm, wherein the first curvature is greater than a 5 mm radius, and wherein the second hardness is at least 15 Shore A hardness points higher than the first hardness.