mhurhangee/ep-ind-claims huggingface dataset:
Washing machine having at least one washing system (51, 52) designed as a recirculation circuit, in particular industrial dish- or utensil-washing machine, which is designed as a programmable machine or as a transport washing machine, the at least one washing system (51, 52) having a nozzle system with at least one washing nozzle (13, 13-1, 13-2) for spraying washing liquid onto the batch to be cleaned, a washing tank (14; 14-1, 14-2) for capturing at least part of the sprayed washing liquid, and a washing pump (11; 11-1, 11-2) for feeding washing liquid collected in the washing tank (14; 14-1, 14-2) to the at least one washing nozzle (13, 13-1, 13-2), and, furthermore, a dirt capture system assigned to the at least one washing system (51, 52) being provided in order to separate dirt particles from the sprayed washing liquid flowing back into the washing tank (14; 14-1, 14-2) as a result of gravity, and a dirty-water pump (74; 74-1, 74-2) connected to the dirt capture system and intended for discharging the dirt particles from the dirt capture system, wherein a control device is designed for the mutually coordinated activation of the washing pump (11; 11-1, 11-2) and of the dirty-water pump (74; 74-1, 74-2), so that the recirculation circuit of the washing system (51, 52) can be interrupted for a first time span, characterized in that the control device is designed for starting the activation of the dirty-water pump (74; 74-1, 74-2) within this first time span however not from the beginning of the first time span and for continuing for a second time span, the control device being designed for deactivating the washing pump (11; 11-1, 11-2) in the first time span, the first time span being 0,5 to 10 seconds, and for activating the dirty-water pump (74; 74-1, 74-2) in the second time span, the second time span being 1 to 20 seconds.
Method for operating an interactive operator control device, in particular in a motor vehicle, having a display device and information that can be displayed and/or is displayed on the display surface and contains at least one operating element, comprising the following steps: a. detecting an approach of an actuating element of a user as a user input, b. determining an operating intention for the at least one operating element of the operating element shown on the display surface, c. adapting the information displayed on the display surface as a function of the determined operating intention so that the at least one operating element is represented in an optimized manner for the activation of the at least one operating element, wherein, when an operating intention is determined, the local position of the at least one operating element is changed in that, when the actuating element approaches, the at least one operating element is displaced into the one reach area of the user, characterized in that the at least one operating element is reduced in size. a. detecting an approach of an actuating element of a user as a user input, b. determining an operating intention for the at least one operating element of the operating element shown on the display surface, c. adapting the information displayed on the display surface as a function of the determined operating intention so that the at least one operating element is represented in an optimized manner for the activation of the at least one operating element,
Method for regulating the speed of a vehicle with at least partially automated driving and knowing the radius of curvature of a future portion that it is about to take on a traffic lane on which it is travelling, said method comprising a step in which the speed of said vehicle is regulated as a function of a speed set point and, in the event of detection of a radius of curvature of said future portion representative of a bend a deceleration phase is imposed on said vehicle up to a chosen deceleration speed, in said step a maximum transverse acceleration that said vehicle can undergo in said bend is determined as a function of said speed set point, then a maximum speed that said vehicle would have in said bend if it underwent said maximum transverse acceleration in the presence of said detected radius of curvature, and then a deceleration speed is chosen as a function of this determined maximum speed.
A bracket for correcting the position of a tooth, comprising a bracket base of a bracket body, which bracket base can be fastened to a tooth, and which bracket body has a slot, extending in the mesiodistal direction, and also a fourth slot portion that narrows by a predetermined amount (α) in a predetermined region (18a, 18b), so as to form a snug fit for an inserted archwire, wherein the fourth slot portion is designed running in the longitudinal direction substantially parallel to the bracket base, wherein the slot extending in the mesiodistal direction has a first slot portion for insertion of the archwire, wherein the first slot portion is adjoined by a second slot portion which extends substantially perpendicular thereto and which, in the direction of the bracket base, adjoins a third slot portion, wherein the third slot portion lies substantially parallel to the first slot portion, and the third slot portion is adjoined by the fourth slot portion, which is oriented substantially parallel to the second slot portion and thus perpendicular to the third slot portion.
A method for structural bonding of structures comprising: providing a first structure made of a composite material and a second structure made of a composite material, a metal, or a combination thereof; preparing with one or more surface preparation treatments a surface to be bonded on each of the first and second structures to form a first prepared surface and a second prepared surface; providing a chemical derivatization compound containing active functional groups that promote adhesion; depositing the chemical derivatization compound on each of the first and second prepared surfaces to form a first functional group-adhesive promoter derivatized layer and a second functional group-adhesive promoter derivatized layer; applying an adhesive layer to at least one of the derivatized layers of the first and second functional group-adhesive promoter derivatized layers; joining the first and second structures together with the adhesive layer and the first and second functional group-adhesive promoter derivatized layers there between; heat curing the adhesive layer to the joined first and second structures to form a structural bond between the first and second structures; wherein the chemical derivatization compound is selected from the group consisting of tetrafluoroaceticanhydride, pentafluorophenol, allyl pentafluorobenzene, tridecafluorononyl maleimide, and glycidyloctafluoropentyl ether. providing a first structure made of a composite material and a second structure made of a composite material, a metal, or a combination thereof; preparing with one or more surface preparation treatments a surface to be bonded on each of the first and second structures to form a first prepared surface and a second prepared surface; providing a chemical derivatization compound containing active functional groups that promote adhesion; depositing the chemical derivatization compound on each of the first and second prepared surfaces to form a first functional group-adhesive promoter derivatized layer and a second functional group-adhesive promoter derivatized layer; applying an adhesive layer to at least one of the derivatized layers of the first and second functional group-adhesive promoter derivatized layers; joining the first and second structures together with the adhesive layer and the first and second functional group-adhesive promoter derivatized layers there between; heat curing the adhesive layer to the joined first and second structures to form a structural bond between the first and second structures; wherein the chemical derivatization compound is selected from the group consisting of tetrafluoroaceticanhydride, pentafluorophenol, allyl pentafluorobenzene, tridecafluorononyl maleimide, and glycidyloctafluoropentyl ether.
A method for treating a nanofibrillar cellulose hydrogel, wherein the method comprises the steps of: providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a temperature of 130 - 150 °C for at least 0.5 seconds and for at most 30 seconds, for reducing the number of viable micro-organisms in the nanofibrillar cellulose hydrogel. providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a temperature of 130 - 150 °C for at least 0.5 seconds and for at most 30 seconds, for reducing the number of viable micro-organisms in the nanofibrillar cellulose hydrogel.
Cleaning device, in particular cleaning attachment, for a hard-surface vacuum cleaner, having at least one first wiper lip, one second wiper lip and one third lip, which is arranged between the first and second wiper lips (28, 30) so as to space apart the first and second wiper lips (28, 30), characterized in that, proceeding from its free end, the third lip has recesses, and/or in that a free end of the third lip is arranged set back in relation to the free ends (34, 38) of the first and second wiper lips (28, 30), and/or in that the second wiper lip and/or the third lip taper(s) at an acute angle (σ, β 2) in the region of the free ends (34, 78), and/or in that the first wiper lip includes an acute angle (α, β, β 1) with the third lip.
An evaporator for a vapor-compression circuit and comprising a distributor, the distributor comprising: an elongate body (50A,50B) positionable within the evaporator adjacent a sidewall thereof; an inlet portion positionable near an inlet port of the evaporator to receive a flow of refrigerant; first and second distal ends (58A,58B) extending along a length of the evaporator; discharge ports (60A,60B) positioned along a length of the elongate body (50A,50B); and a channel having a cross-sectional area extending from the first distal end to the second distal end, wherein the channel is defined by the elongate body (50A,50B) and the sidewall of the evaporator, characterised in that the elongate body (50A,50B) comprises: first and second side surfaces for including the discharge ports (60A,60B); a bottom edge (52A,52B) disposed along each side surface for contacting the sidewall of the evaporator; and a top edge along which the first and second side surfaces are joined, and in that the discharge ports (60A,60B) comprise elongate, tapered openings having increasing area extending from near the inlet portion to near the first and second distal ends (58A,58B), respectively, wherein the discharge ports (60A,60B) are configured to be bounded by the bottom edge (52A,52B) of the elongate body and the sidewall of the evaporator. an elongate body (50A,50B) positionable within the evaporator adjacent a sidewall thereof; an inlet portion positionable near an inlet port of the evaporator to receive a flow of refrigerant; first and second distal ends (58A,58B) extending along a length of the evaporator; discharge ports (60A,60B) positioned along a length of the elongate body (50A,50B); and a channel having a cross-sectional area extending from the first distal end to the second distal end, wherein the channel is defined by the elongate body (50A,50B) and the sidewall of the evaporator, characterised in that the elongate body (50A,50B) comprises: first and second side surfaces for including the discharge ports (60A,60B); a bottom edge (52A,52B) disposed along each side surface for contacting the sidewall of the evaporator; and a top edge along which the first and second side surfaces are joined, and in that the discharge ports (60A,60B) comprise elongate, tapered openings having increasing area extending from near the inlet portion to near the first and second distal ends (58A,58B), respectively, wherein the discharge ports (60A,60B) are configured to be bounded by the bottom edge (52A,52B) of the elongate body and the sidewall of the evaporator. first and second side surfaces for including the discharge ports (60A,60B); a bottom edge (52A,52B) disposed along each side surface for contacting the sidewall of the evaporator; and a top edge along which the first and second side surfaces are joined, and in that the discharge ports (60A,60B) comprise elongate, tapered openings having increasing area extending from near the inlet portion to near the first and second distal ends (58A,58B), respectively, wherein the discharge ports (60A,60B) are configured to be bounded by the bottom edge (52A,52B) of the elongate body and the sidewall of the evaporator.
A means for downregulating, inhibiting or mislocalizing Coxsackievirus Adenovirus Receptor in the heart in a cardiac cell for use in treating or curing a patient who has suffered or is predisposed to suffering a myocardial infarction or for preventing myocardial infarction, wherein the means is - A CAR ligand or a CAR ligand fragment, a truncated or mutated form of CAR or a fragment thereof, a CAR fragment, a CAR fusion protein, or a fusion protein of any of the beforementioned proteins; - An antibody or a fragment thereof specifically binding CAR; - A nucleic acid, such as a RNA or DNA, encoding a truncated or mutated form of CAR, a CAR ligand, CAR-Fc, or a fragment of any of the beforementioned nucleic acids; and/or - An antisense RNA or siRNA directed against an RNA encoding CAR. - A CAR ligand or a CAR ligand fragment, a truncated or mutated form of CAR or a fragment thereof, a CAR fragment, a CAR fusion protein, or a fusion protein of any of the beforementioned proteins; - An antibody or a fragment thereof specifically binding CAR; - A nucleic acid, such as a RNA or DNA, encoding a truncated or mutated form of CAR, a CAR ligand, CAR-Fc, or a fragment of any of the beforementioned nucleic acids; and/or - An antisense RNA or siRNA directed against an RNA encoding CAR.
An elevator toe guard assembly (233, 300, 400, 500), comprising: an elevator car frame (306, 406, 506); a buffer (129, 237, 304, 404, 504) located within an elevator shaft (117, 217); and a toe guard (302, 402, 502) mounted to the elevator car frame (306, 406, 506), wherein the toe guard (302, 402, 502) has a first state being a fully extended state, a second state wherein the toe guard (302, 402, 502) is partially extended or partially retracted to prevent contact with a pit floor during normal operation of an elevator car, the elevator car being located at a lowest landing, and a third state wherein at least a portion of the toe guard (302, 402, 502) is moved relative to the elevator car frame (306, 406, 506) during an impact between the buffer (129, 237, 304, 404, 504) and the pit floor, characterized in that the toe guard (302, 402, 502) is partially extended over or beyond a length of the buffer (129, 237, 304, 404, 504) in the second state. an elevator car frame (306, 406, 506); a buffer (129, 237, 304, 404, 504) located within an elevator shaft (117, 217); and a toe guard (302, 402, 502) mounted to the elevator car frame (306, 406, 506), wherein the toe guard (302, 402, 502) has a first state being a fully extended state, a second state wherein the toe guard (302, 402, 502) is partially extended or partially retracted to prevent contact with a pit floor during normal operation of an elevator car, the elevator car being located at a lowest landing, and a third state wherein at least a portion of the toe guard (302, 402, 502) is moved relative to the elevator car frame (306, 406, 506) during an impact between the buffer (129, 237, 304, 404, 504) and the pit floor, characterized in that the toe guard (302, 402, 502) is partially extended over or beyond a length of the buffer (129, 237, 304, 404, 504) in the second state.
A method implemented in a computing device having a display and an operating system, wherein the operating system is configured to capture screenshot images of screens shown on the display in response to entries of a pre-defined user input, and wherein the method comprises: executing an application in a current state or mode, in which an application screen is shown on the display, detecting, by the application, an entry of the pre-defined user input by a user of the computing device; identifying, by the application, one or more features that: (i) are supported by the application; (ii) are at least partially determined by the current state or mode of the application; and (iii) can use at least one type of information displayed by the application screen to perform a respective set of one or more functions; generating, by the application, a selectable link for each of the identified features; and presenting, by the application and on the display, the generated selectable links, such that a selection by the user of any one of the generated selectable links causes the respective set of functions to be performed. executing an application in a current state or mode, in which an application screen is shown on the display, detecting, by the application, an entry of the pre-defined user input by a user of the computing device; identifying, by the application, one or more features that: (i) are supported by the application; (ii) are at least partially determined by the current state or mode of the application; and (iii) can use at least one type of information displayed by the application screen to perform a respective set of one or more functions; (i) are supported by the application; (ii) are at least partially determined by the current state or mode of the application; and (iii) can use at least one type of information displayed by the application screen to perform a respective set of one or more functions; generating, by the application, a selectable link for each of the identified features; and presenting, by the application and on the display, the generated selectable links, such that a selection by the user of any one of the generated selectable links causes the respective set of functions to be performed.
A motorcycle comprising: an engine, an exhaust pipe connected to an exhaust port of the engine, a catalyst provided in the exhaust pipe, and an exhaust gas sensor which can detect exhaust gas components in the exhaust pipe provided in the exhaust pipe, the exhaust pipe including a connecting part connected to the exhaust port, a first curved part curved downwardly from the connecting part, a hanging part linearly extending downwardly from the first curved part, a second curved part curved at the lower end toward the rear of the vehicle of the hanging part, and a lower part extending to the rear of the vehicle through below of the engine from the second curved part, the catalyst being supported by an upper part of the hanging part, the longitudinal direction of the catalyst being along the hanging part, and an angle (Θ) between a central axis in a longitudinal direction of the lower part and a central axis in a longitudinal direction of the hanging part being set to 0<Θ<90°, characterised in that the exhaust gas sensor is disposed on a lower part of the hanging part and below the catalyst, and in that the exhaust gas sensor is disposed to the rear of the hanging part, as viewed in a side view of the vehicle, in a manner of being nipped at a position where the lower part of the hanging part and a crankcase are opposed to each other. an engine, an exhaust pipe connected to an exhaust port of the engine, a catalyst provided in the exhaust pipe, and an exhaust gas sensor which can detect exhaust gas components in the exhaust pipe provided in the exhaust pipe, the exhaust pipe including a connecting part connected to the exhaust port, a first curved part curved downwardly from the connecting part, a hanging part linearly extending downwardly from the first curved part, a second curved part curved at the lower end toward the rear of the vehicle of the hanging part, and a lower part extending to the rear of the vehicle through below of the engine from the second curved part, the catalyst being supported by an upper part of the hanging part, the longitudinal direction of the catalyst being along the hanging part, and an angle (Θ) between a central axis in a longitudinal direction of the lower part and a central axis in a longitudinal direction of the hanging part being set to 0<Θ<90°, characterised in that the exhaust gas sensor is disposed on a lower part of the hanging part and below the catalyst, and in that the exhaust gas sensor is disposed to the rear of the hanging part, as viewed in a side view of the vehicle, in a manner of being nipped at a position where the lower part of the hanging part and a crankcase are opposed to each other.
A hydrophilic Phaeodactylum tricornutum extract, obtained by or obtainable by: (i) adding 505.86 g of Phaeodactylum tricornutum frozen biomass to 979 g of water; (ii) stirring the solution with a magnetic stirrer and heating it to 50 °C; (iii) adjusting the pH to 4.5 with sulfuric acid and adding 1.1 g of enzyme to the mix; (iv) after 2 hours of hydrolysis, inactivating the enzyme by heating the solution to 90 °C for 10 minutes; (v) after cooling, bringing the pH to 5 with sodium hydroxide; (vi) centrifuging the solution for 20 minutes at 4500 rpm and filtering the supernatant on cellulose plates ranging from 1.5 μm to 0.3 μm; (vii) filtering the solution on activated charcoal plates and final sterilizing filtration; and (viii) stabilizing the extract by adding 3% of Minasolve Green B (preservative from Minasolve; mixture of pentylene glycol, sodium benzoate, benzoic acid and water). (i) adding 505.86 g of Phaeodactylum tricornutum frozen biomass to 979 g of water; (ii) stirring the solution with a magnetic stirrer and heating it to 50 °C; (iii) adjusting the pH to 4.5 with sulfuric acid and adding 1.1 g of enzyme to the mix; (iv) after 2 hours of hydrolysis, inactivating the enzyme by heating the solution to 90 °C for 10 minutes; (v) after cooling, bringing the pH to 5 with sodium hydroxide; (vi) centrifuging the solution for 20 minutes at 4500 rpm and filtering the supernatant on cellulose plates ranging from 1.5 μm to 0.3 μm; (vii) filtering the solution on activated charcoal plates and final sterilizing filtration; and (viii) stabilizing the extract by adding 3% of Minasolve Green B (preservative from Minasolve; mixture of pentylene glycol, sodium benzoate, benzoic acid and water).
A catalyst for hydrogenation of oxalic ester to ethanol, characterized in that the catalyst comprises: a) a support comprising a mixture of SiO 2 and ZrO 2; b) an active ingredient comprising copper; c) a first additive comprising a metal, an oxide thereof, or a combination thereof, the metal being selected from the group consisting of Mg, Ca, Ba, Mn, Fe, Co, Zn, Mo, La, and Ce; and d) a second additive comprising Li, Na, K, or a combination thereof; wherein based on a total weight of the catalyst, the following components are provided in the following weigh percentages: SiO 2 = 50-90 wt.%; ZrO 2 = 0.1-10 wt.%; copper = 10-50 wt.%; the first additive = 0.1-10 wt.%; and the second additive = 0.1-5 wt.%. a) a support comprising a mixture of SiO 2 and ZrO 2; b) an active ingredient comprising copper; c) a first additive comprising a metal, an oxide thereof, or a combination thereof, the metal being selected from the group consisting of Mg, Ca, Ba, Mn, Fe, Co, Zn, Mo, La, and Ce; and d) a second additive comprising Li, Na, K, or a combination thereof; SiO 2 = 50-90 wt.%; ZrO 2 = 0.1-10 wt.%; copper = 10-50 wt.%; the first additive = 0.1-10 wt.%; and the second additive = 0.1-5 wt.%.