mhurhangee/patent-ind-claim-en huggingface dataset:
A mechatronic cylinder lock comprising a housing , in which is rotatably mounted a mechanical coding part of the lock with a key channel for a profiled shank of the key , whereby the mechanical coding part of the lock is coupled to at least one rotatable element for transmitting rotary motion of the key to a lock detent and the housing accommodates at least one element for blocking the rotation of the mechanic coding part of the lock, which is coupled to an electronically controlled unblocking means, which is provided with means for communication with electronic control means in the key , whereby in the at least one rotatable element is formed a radial recess , into which extends the working part of a contact element of an electronically controlled blocking system of the rotation of the mechanical coding part of the lock, whereby the contact element extends by the upper part of its working part into the key channel and at the same time extends to a radial recess in the end part of the mechanical coding part of the lock and abuts by its lower part the upper surface of a spring-loaded blocking tow bar , which is mounted slidably reciprocatingly in the lower part of the housing of the lock and whose upper end in the blocking position extends to the radial recess in the rotatable element , whereas in the release position it is pushed out of the radial recess by the rotation of the rotatable element , whereby the blocking tow bar is provided with a distance spacer pin , against which in the blocking position is arranged with its wider dimension a flat spacer cam , which is displaceable between the blocking position and the release position and is mounted on a movable element of an electrical drive , whereby the blocking tow bar is further provided with a lateral arm , which extends to the plane of the axis of the rotation of the flat spacer cam and is at this point bent towards the axis of rotation of the flat spacer cam and extends as far as to the lateral surface of the flat spacer cam in the narrower transverse dimension of the flat spacer cam .
A steerable medical device, comprising: an outer flexible polymeric tubular member; an inner flexible polymeric tubular member disposed within the outer tubular member; a steerable portion comprising the outer and inner flexible polymeric tubular members, the outer and inner flexible polymeric tubular members are each configured to preferentially bend in the steerable portion, and wherein the outer and inner flexible polymeric tubular members are permanently axially fixed relative to one another at a fixation location distal to the steerable portion, wherein the inner flexible polymeric tubular member, in the steerable portion, includes first and second polymeric sections interfacing at a seam, the seam including a transition section that is not parallel with and not perpendicular to a longitudinal axis of the inner flexible polymeric tubular member, the first and second polymeric sections having first and second stiffnesses, respectively, that are different than one another, and wherein the different stiffnesses contribute to the direction of the preferential bending of the inner flexible polymeric tubular member; and an external controller that is configured to, upon actuation, axially move at least one of the outer and inner flexible polymeric tubular members relative to the other at a location proximal to the steerable portion to cause relative axial movement between the outer and inner flexible polymeric tubular members in the steerable portion and thereby steer the steerable portion. an outer flexible polymeric tubular member; an inner flexible polymeric tubular member disposed within the outer tubular member; a steerable portion comprising the outer and inner flexible polymeric tubular members, the outer and inner flexible polymeric tubular members are each configured to preferentially bend in the steerable portion, and wherein the outer and inner flexible polymeric tubular members are permanently axially fixed relative to one another at a fixation location distal to the steerable portion, wherein the inner flexible polymeric tubular member, in the steerable portion, includes first and second polymeric sections interfacing at a seam, the seam including a transition section that is not parallel with and not perpendicular to a longitudinal axis of the inner flexible polymeric tubular member, the first and second polymeric sections having first and second stiffnesses, respectively, that are different than one another, and wherein the different stiffnesses contribute to the direction of the preferential bending of the inner flexible polymeric tubular member; and an external controller that is configured to, upon actuation, axially move at least one of the outer and inner flexible polymeric tubular members relative to the other at a location proximal to the steerable portion to cause relative axial movement between the outer and inner flexible polymeric tubular members in the steerable portion and thereby steer the steerable portion.
The use of additives for reducing flocculation and/or precipitation in polyisocyanate mixtures which comprise at least one solvent, where the additives are selected from the group of salts (A) consisting of (A1) at least one phosphorus-containing acidic compound selected from the group consisting of (A1a) mono- and/or di-C 1 to C 18 alkyl phosphates, (A1b) mono- and/or di-C 1 to C 18 alkyl phosphonates, (A1c) mono-C 1 to C 12 alkyl phosphinates, and (A1d) alkyl derivatives of other phosphorus-containing diacids, and (A2) at least one open-chain trisubstituted amine. (A1a) mono- and/or di-C 1 to C 18 alkyl phosphates, (A1b) mono- and/or di-C 1 to C 18 alkyl phosphonates, (A1c) mono-C 1 to C 12 alkyl phosphinates, and (A1d) alkyl derivatives of other phosphorus-containing diacids,
A powder dosing system for an apparatus for manufacturing a three-dimensional object from powder, the powder dosing system comprising: a powder chamber comprising an agitator chamber and a dosing chamber , wherein the agitator chamber comprises a rotating agitator arranged to agitate a supply of delivered powder by rotating through an agitation volume determined by the extent of the rotating agitator from an axis of rotation of the agitator ; and a dosing blade arranged to dose a dosed volume of powder to a work surface comprising a build bed surface , by sweeping through a swept volume determined by the extent of the dosing blade from an axis of rotation of the dosing blade ; wherein the swept volume is located, in a vertical sense, above the agitation volume and overlaps, in a vertical sense, the agitation volume , such that the dosed volume of powder is agitated powder; wherein the powder chamber further comprises a recirculation edge adjacent the agitator , and arranged to allow excess agitated powder to freely flow over the recirculation edge and out of the powder dosing system ; and wherein the recirculation edge has an adjustable recirculation edge height so as to vary the volume of the agitated powder that is dosed to the work surface . a powder chamber comprising an agitator chamber and a dosing chamber , wherein the agitator chamber comprises a rotating agitator arranged to agitate a supply of delivered powder by rotating through an agitation volume determined by the extent of the rotating agitator from an axis of rotation of the agitator ; and a dosing blade arranged to dose a dosed volume of powder to a work surface comprising a build bed surface , by sweeping through a swept volume determined by the extent of the dosing blade from an axis of rotation of the dosing blade ; wherein the swept volume is located, in a vertical sense, above the agitation volume and overlaps, in a vertical sense, the agitation volume , such that the dosed volume of powder is agitated powder; wherein the powder chamber further comprises a recirculation edge adjacent the agitator , and arranged to allow excess agitated powder to freely flow over the recirculation edge and out of the powder dosing system ; and wherein the recirculation edge has an adjustable recirculation edge height so as to vary the volume of the agitated powder that is dosed to the work surface .
A process for preparing 1-(2,6,6-trimethylcyclohex-2-en-1-yl)but-2-en-1-one, which comprises a) providing 6,10-dimethylundeca-1,5,9-trien-4-ol, b) oxidizing 6,10-dimethylundeca-1,5,9-trien-4-ol provided in step a) with an oxidizing agent, which is selected from hypochlorites, hydrogen peroxide and molecular oxygen, in the presence of at least one organic nitroxyl radical, at least one nitrate compound and an inorganic solid, which is selected from alkali metal halides and alkali earth metal halides, to yield 6,10-dimethylundeca-1,5,9-trien-4-one, c) reacting the 6,10-dimethylundeca-1,5,9-trien-4-one obtained in step b) with an acid selected from mineral acids to yield 1-(2,6,6-trimethylcyclohex-2-en-1-yl)but-2-en-1-one. a) providing 6,10-dimethylundeca-1,5,9-trien-4-ol, b) oxidizing 6,10-dimethylundeca-1,5,9-trien-4-ol provided in step a) with an oxidizing agent, which is selected from hypochlorites, hydrogen peroxide and molecular oxygen, in the presence of at least one organic nitroxyl radical, at least one nitrate compound and an inorganic solid, which is selected from alkali metal halides and alkali earth metal halides, to yield 6,10-dimethylundeca-1,5,9-trien-4-one, c) reacting the 6,10-dimethylundeca-1,5,9-trien-4-one obtained in step b) with an acid selected from mineral acids to yield 1-(2,6,6-trimethylcyclohex-2-en-1-yl)but-2-en-1-one.
An Internet of Things control method of a washing machine, wherein the control method comprises: step S1: when a power module of the washing machine detects a startup signal, starting up the washing machine, and enabling a communication module to start to connect with the Internet; step S2: judging whether the communication module is successfully connected with the Internet or not; if yes in step S2, activating a remote control function and subsequently entering the next step S3; and if no in step S2, directly entering the next step S3; step S3: judging whether the washing machine receives an operating command of running a clothes washing program or not; if yes, executing the operating command and subsequently entering the next step S4; and if no, directly entering the next step S4; characterized by step S4: judging whether to shut down the washing machine or not, if yes, entering the next step S5; and if no, returning to step S3; and step S5: sending a shutdown signal to the power module, shutting down the washing machine, and powering off the communication module. step S1: when a power module of the washing machine detects a startup signal, starting up the washing machine, and enabling a communication module to start to connect with the Internet; step S2: judging whether the communication module is successfully connected with the Internet or not; if yes in step S2, activating a remote control function and subsequently entering the next step S3; and if no in step S2, directly entering the next step S3; step S3: judging whether the washing machine receives an operating command of running a clothes washing program or not; if yes, executing the operating command and subsequently entering the next step S4; and if no, directly entering the next step S4; characterized by step S4: judging whether to shut down the washing machine or not, if yes, entering the next step S5; and if no, returning to step S3; and step S5: sending a shutdown signal to the power module, shutting down the washing machine, and powering off the communication module.
Use, as underlayer of a rubble mound breakwater , of an element comprising a plurality of concrete blocks , said blocks being assembled together by flexible connection means so as to constitute a mat and being of different heights.
A turbine rotor blade comprising: a tip portion having a pressure tip wall and a suction tip wall , a tip leading edge and a tip trailing edge ; a squealer cavity at least partially defined by the pressure tip wall and the suction tip wall ; a plurality of holes defined by the suction tip wall , the plurality of holes configured to bleed a cooling flow out of the squealer cavity into a hot gas path to reduce pressure within the squealer cavity ; and a main body having a suction side wall and a pressure side wall each extending from a root portion of the turbine rotor blade to the tip portion , characterised in that the plurality of holes is located proximate the tip leading edge of the suction tip wall , closer to the tip leading edge than to the tip trailing edge , wherein the remainder of the suction tip wall does not comprise any holes therein. a tip portion having a pressure tip wall and a suction tip wall , a tip leading edge and a tip trailing edge ; a squealer cavity at least partially defined by the pressure tip wall and the suction tip wall ; a plurality of holes defined by the suction tip wall , the plurality of holes configured to bleed a cooling flow out of the squealer cavity into a hot gas path to reduce pressure within the squealer cavity ; and a main body having a suction side wall and a pressure side wall each extending from a root portion of the turbine rotor blade to the tip portion , characterised in that the plurality of holes is located proximate the tip leading edge of the suction tip wall , closer to the tip leading edge than to the tip trailing edge , wherein the remainder of the suction tip wall does not comprise any holes therein.
A compound of the formula (I): where X and Y are identical or different and represent O, NH or S, X and Y cannot both be N, X and Y cannot both be O; R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , and R 10 are identical or different and represent H, halogen, CN, NO 2 , (C 1-4 )alkyl, (C 1-4 )haloalkyl, (C 2-4 )alkenyl, OH, O(C 1-4 )alkyl, O(C 1-4 )haloalkyl, N(R A )R B , C(O)N(R A )R B , C(O)R A , CO 2 R A , CHO, C 2-4 alkenyl substituted with CN, C 2-4 alkenyl substituted with COOH, C 2-4 alkenyl substituted with CHO, or C 2-4 alkenyl substituted with OH; R A and R B are identical or different and represent H, (C 1-4 )alkyl, (C 1-4 )haloalkyl, or (C 2-4 )alkenyl; A 1 and A 2 are different and represent CH and N or N and CH respectively; and A 3 and A 4 are identical or different and represent CR 5 , CR 10 or N; or a pharmaceutically acceptable salt thereof, stereoisomer thereof, or mixture comprising stereoisomers thereof. X and Y are identical or different and represent O, NH or S, X and Y cannot both be N, X and Y cannot both be O; R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , and R 10 are identical or different and represent H, halogen, CN, NO 2 , (C 1-4 )alkyl, (C 1-4 )haloalkyl, (C 2-4 )alkenyl, OH, O(C 1-4 )alkyl, O(C 1-4 )haloalkyl, N(R A )R B , C(O)N(R A )R B , C(O)R A , CO 2 R A , CHO, C 2-4 alkenyl substituted with CN, C 2-4 alkenyl substituted with COOH, C 2-4 alkenyl substituted with CHO, or C 2-4 alkenyl substituted with OH; R A and R B are identical or different and represent H, (C 1-4 )alkyl, (C 1-4 )haloalkyl, or (C 2-4 )alkenyl; A 1 and A 2 are different and represent CH and N or N and CH respectively; and A 3 and A 4 are identical or different and represent CR 5 , CR 10 or N; or a pharmaceutically acceptable salt thereof, stereoisomer thereof, or mixture comprising stereoisomers thereof.
A multicast communication method, wherein the method comprises: receiving (S1001), by a user plane function network element, a multicast packet, wherein the multicast packet comprises a multicast address; matching (S1002), by the user plane function network element, the multicast packet with a packet detection rule, PDR, on the user plane function network element; and when the multicast packet successfully matches a first PDR, and the first PDR indicates to carry on matching another PDR, carrying on (S1003), by the user plane function network element, matching the multicast packet with another PDR. receiving (S1001), by a user plane function network element, a multicast packet, wherein the multicast packet comprises a multicast address; matching (S1002), by the user plane function network element, the multicast packet with a packet detection rule, PDR, on the user plane function network element; and when the multicast packet successfully matches a first PDR, and the first PDR indicates to carry on matching another PDR, carrying on (S1003), by the user plane function network element, matching the multicast packet with another PDR.
A method for evaluating an operating state of a wind turbine facility including at least one wind turbine , comprising: a step of acquiring at least one of an output power of the wind turbine, an ambient temperature, a temperature in a specific location, and operating information as an operating condition of the wind turbine facility or the at least one wind turbine ; a step of calculating an estimated value of a temperature of a bearing rotatably supporting a rotor of the at least one wind turbine as a physical quantity measurable on the at least one wind turbine and corresponding to the operating condition; a step of acquiring an actual value corresponding to the physical quantity; and a step of determining whether an abnormality is present in the at least one wind turbine by comparing the estimated value and the actual value, and in the step of calculating the estimated value, the operating condition as an input parameter is input to a physical model simulating the wind turbine facility or the at least one wind turbine as an estimation target based on its physical characteristics or a machine learning model calculating the estimated value corresponding to the operating condition by repeatedly learning a relationship between the operating condition and the estimated value using a predetermined algorithm to obtain the estimated value as an output parameter of the physical model or the machine learning model. a step of acquiring at least one of an output power of the wind turbine, an ambient temperature, a temperature in a specific location, and operating information as an operating condition of the wind turbine facility or the at least one wind turbine ; a step of calculating an estimated value of a temperature of a bearing rotatably supporting a rotor of the at least one wind turbine as a physical quantity measurable on the at least one wind turbine and corresponding to the operating condition; a step of acquiring an actual value corresponding to the physical quantity; and a step of determining whether an abnormality is present in the at least one wind turbine by comparing the estimated value and the actual value, and in the step of calculating the estimated value, the operating condition as an input parameter is input to a physical model simulating the wind turbine facility or the at least one wind turbine as an estimation target based on its physical characteristics or a machine learning model calculating the estimated value corresponding to the operating condition by repeatedly learning a relationship between the operating condition and the estimated value using a predetermined algorithm to obtain the estimated value as an output parameter of the physical model or the machine learning model.
Motor vehicle having an illumination module for generating symbolic imagery (SY) on the ground in the vicinity of the motor vehicle and having a control device for controlling the operation of the illumination module , wherein the control device is configured in such a way that it automatically adapts the relative position of the symbolic imagery (SY) with respect to the motor vehicle in a manner such that at least some of the symbolic imagery (SY) is fixed at a specified location on the ground in front of the motor vehicle when the distance of the motor vehicle from the specified location (PO) falls below a specified distance (d) during a journey toward the specified location (PO), wherein the control device is configured to control the operation of the illumination module in such a way that the symbolic imagery (SY) is already generated before the distance of the motor vehicle falls below the specified distance (d) during its journey toward the specified location (PO), wherein, for the period of time in which the distance of the motor vehicle has not yet fallen below the specified distance (d), the symbolic imagery (SY) is moved together with the motor vehicle on account of its journey toward the specified location (PO) and in the process does not reach as far as the specified location (PO), characterized in that the specified location (PO) is a stopping location at which the motor vehicle will come to a standstill. wherein the control device is configured to control the operation of the illumination module in such a way that the symbolic imagery (SY) is already generated before the distance of the motor vehicle falls below the specified distance (d) during its journey toward the specified location (PO), wherein, for the period of time in which the distance of the motor vehicle has not yet fallen below the specified distance (d), the symbolic imagery (SY) is moved together with the motor vehicle on account of its journey toward the specified location (PO) and in the process does not reach as far as the specified location (PO), characterized in that the specified location (PO) is a stopping location at which the motor vehicle will come to a standstill.
Moving walkway comprising: at least one endless belt , in particular a toothed belt , moving in a conveyance direction along a closed loop, the closed loop comprising a conveyance portion and a return portion extending between opposite turnaround portions ; a plurality of pallets drivingly coupled to the at least one belt , wherein each of the pallets comprises: at least one first roller ; and at least one second roller , the first and second rollers being spaced apart from each other in the conveyance direction; the moving walkway further comprising at least one guide rail including: at least one first guide rail portion configured for guiding and supporting the first rollers in the conveyance portion and in the turnaround portions ; and at least one second guide rail portion configured for guiding and supporting the second rollers in the conveyance portion and allowing free movement of the second rollers in the turnaround portions ; wherein the at least one guide rail has at least one curved portion in at least one of the turnaround portions , and at least one straight portion in the conveyance portion and/or in the return portion . at least one endless belt , in particular a toothed belt , moving in a conveyance direction along a closed loop, the closed loop comprising a conveyance portion and a return portion extending between opposite turnaround portions ; a plurality of pallets drivingly coupled to the at least one belt , wherein each of the pallets comprises: at least one first roller ; and at least one second roller , the first and second rollers being spaced apart from each other in the conveyance direction; at least one first roller ; and at least one second roller , the first and second rollers being spaced apart from each other in the conveyance direction; the moving walkway further comprising at least one guide rail including: at least one first guide rail portion configured for guiding and supporting the first rollers in the conveyance portion and in the turnaround portions ; and at least one second guide rail portion configured for guiding and supporting the second rollers in the conveyance portion and allowing free movement of the second rollers in the turnaround portions ; at least one first guide rail portion configured for guiding and supporting the first rollers in the conveyance portion and in the turnaround portions ; and at least one second guide rail portion configured for guiding and supporting the second rollers in the conveyance portion and allowing free movement of the second rollers in the turnaround portions ; wherein the at least one guide rail has at least one curved portion in at least one of the turnaround portions , and at least one straight portion in the conveyance portion and/or in the return portion .