mhurhangee/patent-ind-claim-en huggingface dataset:
A lawn mower, which comprises: a driving assembly ; an impact protection assembly , the impact protection assembly comprising a first bearing seat , a second bearing seat that is mated with the first bearing seat , the first bearing seat being provided with a protrusion ; a transmission assembly ; and a cutting assembly ; characterized in that it comprises an elastic member and a ball that are disposed between the first bearing seat and the second bearing seat and when the driving assembly is starting, the ball is arranged to be pushable by the elastic member to make contact with the protrusion of the first bearing seat to drive the transmission assembly and the cutting assembly to rotate synchronously, and when a resistance received by the cutting assembly is greater than a preset value, the elastic member is arranged to be continuously compressable, such that the ball can pass over the protrusion , and the transmission assembly and the driving assembly are rotatable relative to each other. a driving assembly ; an impact protection assembly , the impact protection assembly comprising a first bearing seat , a second bearing seat that is mated with the first bearing seat , the first bearing seat being provided with a protrusion ; a transmission assembly ; and a cutting assembly ; characterized in that it comprises an elastic member and a ball that are disposed between the first bearing seat and the second bearing seat and when the driving assembly is starting, the ball is arranged to be pushable by the elastic member to make contact with the protrusion of the first bearing seat to drive the transmission assembly and the cutting assembly to rotate synchronously, and when a resistance received by the cutting assembly is greater than a preset value, the elastic member is arranged to be continuously compressable, such that the ball can pass over the protrusion , and the transmission assembly and the driving assembly are rotatable relative to each other.
Filter device for fluids, in particular in the form of a tank-integrated return filter comprising at least one filter element which can be received in a housing , comprising a fluid inlet for supplying unfiltered medium to an inner cavity of the respective filter element , said cavity being surrounded by a filter medium through which unfiltered medium can flow, said filter medium enclosing a cylindrical cavity , a flow guide device directing the flow of unfiltered medium passing into the filter medium being provided between the fluid inlet and the inner cavity of the respective filter element , said flow guide device comprising guide means to generate a swirling flow which rotates around the cylinder axis in the cavity , said flow guide device comprising an inflow chamber upstream of the guide means generating the swirling flow, the unfiltered medium entering said inflow chamber with an inflow direction defined by a connection device and passing from said inflow chamber to the guide means generating the swirling flow with a different flow direction to the inflow direction , characterised in that a magnetic core or sensors are located inside the cavity of the filter element .
A pulse generating system for a patient (P) comprising: a pulse generating means configured to generate a pulse or pulses, and a controlling means configured to control the pulse generating means , wherein the pulse generating system is configured to work in at least a regular mode and a plurality of safety modes for a corresponding posture or orientation of the patient (P), wherein different baseline commands are provided for each of the plurality of safety modes, wherein, when the control unit operates the pulse generating system in one of the safety modes, the pulse generating means is configured to automatically switch to a corresponding baseline stimulation command, and wherein the control unit is configured operate the pulse generating system in the regular mode or in one of the safety modes based on a determined posture or orientation of the patient (P) as a triggering event or condition. a pulse generating means configured to generate a pulse or pulses, and a controlling means configured to control the pulse generating means , wherein the pulse generating system is configured to work in at least a regular mode and a plurality of safety modes for a corresponding posture or orientation of the patient (P), wherein different baseline commands are provided for each of the plurality of safety modes, wherein, when the control unit operates the pulse generating system in one of the safety modes, the pulse generating means is configured to automatically switch to a corresponding baseline stimulation command, and wherein the control unit is configured operate the pulse generating system in the regular mode or in one of the safety modes based on a determined posture or orientation of the patient (P) as a triggering event or condition.
Polyurea compound preparable via reaction of a polyisocyanate based on isophorone diisocyanate and having isocyanurate and allophanate groups with an aminosilane of general formula (I) R 1 a (R 1 O) (3-a) Si (CH 2 ) n NHCHR 2 CH 2 COOR 3 (I) where the radicals R 1 independently of one another are selected from C 1 -C 20 -alkyl or C 6 -C 20 -aryl, a is an integer between 0 and 2, n is an integer between 1 and 4, R 2 is selected from H, C 1 -C 20 -alkyl, C 6 -C 12 -aryl and -COOR 3 , and R 3 in each case is C 1 -C 20 -alkyl. a is an integer between 0 and 2, n is an integer between 1 and 4, R 2 is selected from H, C 1 -C 20 -alkyl, C 6 -C 12 -aryl and -COOR 3 , and R 3 in each case is C 1 -C 20 -alkyl.
A method for manufacturing an optical component composed of a ZnSe polycrystal body, said ZnSe polycrystal body being constituted by crystal grains with an average grain size larger than or equal to 50 μm and smaller than or equal to 1 mm and having a relative density higher than or equal to 99%, the method comprising: a first step of synthesizing a ZnSe polycrystal body through a CVD method; and a second step of press-molding the ZnSe polycrystal body synthesized in said first step, wherein said second step is conducted by setting said ZnSe polycrystal body in a press-molding die, which is made of glassy carbon or a sintered compact of silicon carbide, under a condition that a load is applied for at least 5 minutes in an inert gas atmosphere with a temperature higher than or equal to 920°C and lower than or equal to 1030°C and a pressure higher than or equal to 20 MPa and lower than or equal to 60 MPa. a first step of synthesizing a ZnSe polycrystal body through a CVD method; and a second step of press-molding the ZnSe polycrystal body synthesized in said first step, wherein said second step is conducted by setting said ZnSe polycrystal body in a press-molding die, which is made of glassy carbon or a sintered compact of silicon carbide, under a condition that a load is applied for at least 5 minutes in an inert gas atmosphere with a temperature higher than or equal to 920°C and lower than or equal to 1030°C and a pressure higher than or equal to 20 MPa and lower than or equal to 60 MPa.
Door for a household refrigeration appliance , with a door leaf , which has a first groove recess that is open to the side in the width direction (x) of the door leaf on a first vertical longitudinal side and a second groove recess that is open to the side in the width direction (x) of the door leaf on a second vertical longitudinal side opposite the first vertical longitudinal side , wherein the first groove recess has a first installation region , on which a mounting part for a door joint or a functional part different therefrom optionally can be installed, and the second groove recess has a second installation region , on which a mounting part for a door joint or a functional part different therefrom optionally can be installed, wherein a mounting part for a door joint is installed in the first installation region and a functional part different from the mounting part is installed in the second installation region , characterised in that the functional part is a component part of an electronic display unit.
A control system configured to control a flight of a flying car , comprising: a flight control processing device configured to guide the flying car such that the flying car takes off from a first takeoff and landing section , flies in a three-dimensional road that is an exclusive track set in a specific region of the air, and lands on a second takeoff and landing section , and wherein operations of the flying car from the takeoff from the first takeoff and landing section to the landing on the second takeoff and landing section are automatically carried out under a control by the control system , and wherein the flight control processing device is configured to receive from the flying car position data showing a three-dimensional position of the flying car and destination data showing a destination set to the flying car to select the three-dimensional road in which the flying car flies, based on the position data of the flying car and the destination data , wherein the flight control processing device is configured to select the first takeoff and landing section from which the flying car takes off, from among a plurality of takeoff and landing sections , based on the position data and the destination data , and transmit to the flying car a flight plan that contains the selected first takeoff and landing section and the selected three-dimensional road , and wherein the plurality of takeoff and landing sections includes a takeoff and landing section that is part of a car exclusive road fixed on the ground. a flight control processing device configured to guide the flying car such that the flying car takes off from a first takeoff and landing section , flies in a three-dimensional road that is an exclusive track set in a specific region of the air, and lands on a second takeoff and landing section , and wherein operations of the flying car from the takeoff from the first takeoff and landing section to the landing on the second takeoff and landing section are automatically carried out under a control by the control system , and wherein the flight control processing device is configured to receive from the flying car position data showing a three-dimensional position of the flying car and destination data showing a destination set to the flying car to select the three-dimensional road in which the flying car flies, based on the position data of the flying car and the destination data , wherein the flight control processing device is configured to select the first takeoff and landing section from which the flying car takes off, from among a plurality of takeoff and landing sections , based on the position data and the destination data , and transmit to the flying car a flight plan that contains the selected first takeoff and landing section and the selected three-dimensional road , and wherein the plurality of takeoff and landing sections includes a takeoff and landing section that is part of a car exclusive road fixed on the ground.
Method for providing a closed water channel from a cylinder-like connection piece of a flush-mounted pipe of a water line, which connection piece is arranged on a flush-mounted side of a plasterboard comprising wall cladding, through the wall cladding to a room side of the wall cladding, and for connecting a fitting, wherein for preparing a construction of the wall cladding, the connection piece of the flush-mounted pipe is closed in a watertight manner with a stopper , wherein the construction of the wall cladding includes construction of the plasterboards for covering the water line and the flush-mounted pipes of the water line so that they are not visible from the room side, wherein, for preparing the construction of the wall cladding, a sealing sleeve with an assembly section , which is arranged at a first axial end of the sealing sleeve , is arranged circumferentially around the connection piece of the flush-mounted pipe and the stopper , which closes the connection piece in a watertight manner, is arranged inside the sealing sleeve , wherein the stopper is detachably connected to the connection piece , wherein after the wall cladding has been constructed, a continuous channel is provided through the sealing sleeve from the connection piece of the flush-mounted pipe arranged at the flush-mounted side of the wall cladding to the room side of the wall cladding while the stopper is accessible from a second axial end of the sealing sleeve , which is arranged on the room side of the wall cladding, and, during the construction of the wall cladding, a sealing collar is arranged on the sealing sleeve in a circumferentially closed manner and sealing in a watertight manner, the sealing collar having a flexible sealing lip with which it is pulled over the sealing sleeve for a sealing arrangement on the sealing sleeve , wherein, during subsequent connection of the fitting via a fitting connection part, the stopper is removed from the axial end of the sealing sleeve out of the sealing sleeve and thereafter, the fitting connection part is inserted into the sealing sleeve from the second axial end of the sealing sleeve and is connected to the connection piece arranged at the flush-mounted side of the wall cladding, wherein the sealing sleeve remains unchanged in its position after its arrangement at the connection piece , wherein the fitting is connected to the connection piece using the fitting connection part.
A pharmaceutical composition comprising triggerable liposomes or particles encapsulating at least one site I sodium channel blocker, wherein the site I sodium channel blocker is repeatably released upon exposing to a triggering agent in an amount effective to produce anesthesia, wherein the triggerable liposomes or particles comprise one or more triggerable elements selected from the group consisting of gold nanorods, gold nanoshells, gold nanostars, gold nanocages, photosensitizers, and sonosensitizers. triggerable liposomes or particles encapsulating at least one site I sodium channel blocker, wherein the site I sodium channel blocker is repeatably released upon exposing to a triggering agent in an amount effective to produce anesthesia, wherein the triggerable liposomes or particles comprise one or more triggerable elements selected from the group consisting of gold nanorods, gold nanoshells, gold nanostars, gold nanocages, photosensitizers, and sonosensitizers.
A turbine stator vane assembly comprising: a turbine stator vane including a pressure surface which extends in a radial direction intersecting with a flow direction of steam (ST) inside a steam turbine casing of a steam turbine from one side toward another side in a direction of an axis (O) of a steam turbine rotor when the turbine stator vane assembly is mounted in the steam turbine , and facing an upstream side in the flow direction, and a suction surface facing a downstream side in the flow direction; and an outer peripheral ring provided in an outer end portion of the turbine stator vane in the radial direction, wherein a plurality of grooves (R1,R2) extending outward in the radial direction toward the downstream side are formed on at least the pressure surface , and an end portion on the downstream side of the plurality of grooves (R1,R2) is connected to a slit (S,S1,S2) that captures a liquefied component of the steam (ST), characterized in that a ring groove (R3) connected to grooves (R1) of the plurality of grooves (R1,R2) and extending toward the downstream side along an inner peripheral surface of the outer peripheral ring is formed on the inner peripheral surface of the outer peripheral ring , and the ring groove (R3) extends to the downstream side along a shape of the pressure surface of the turbine stator vane . a turbine stator vane including a pressure surface which extends in a radial direction intersecting with a flow direction of steam (ST) inside a steam turbine casing of a steam turbine from one side toward another side in a direction of an axis (O) of a steam turbine rotor when the turbine stator vane assembly is mounted in the steam turbine , and facing an upstream side in the flow direction, and a suction surface facing a downstream side in the flow direction; and an outer peripheral ring provided in an outer end portion of the turbine stator vane in the radial direction, wherein a plurality of grooves (R1,R2) extending outward in the radial direction toward the downstream side are formed on at least the pressure surface , and an end portion on the downstream side of the plurality of grooves (R1,R2) is connected to a slit (S,S1,S2) that captures a liquefied component of the steam (ST), characterized in that a ring groove (R3) connected to grooves (R1) of the plurality of grooves (R1,R2) and extending toward the downstream side along an inner peripheral surface of the outer peripheral ring is formed on the inner peripheral surface of the outer peripheral ring , and the ring groove (R3) extends to the downstream side along a shape of the pressure surface of the turbine stator vane .
A method for determining the consistency of fresh concrete , having the following steps: • a predefined quantity of the fresh concrete is applied to a test area ; • the test area is shaken in accordance with a predefined time program, wherein the test area is arranged on an upper side of a movable plate which can be moved relative to a base body , and wherein the movable plate with the test area is raised smoothly from the base body by means of at least one electromechanical, pneumatic and/or hydraulic actuator for the shaking up to at least one electromagnetic actuator , and is dropped jerkily onto the base body by means of the at least one electromagnetic actuator ; • the coverage of the test area with the fresh concrete is captured from at least one image of the test area , as well as optionally additionally by at least one sensor coupled to the test area , and wherein optionally during and/or after the shaking , the temporal progress of the coverage of the test area with the fresh concrete is captured from multiple images of the test area and/or from a temporal sequence of measured values of the at least one sensor ; • a characteristic for the consistency of the fresh concrete is evaluated from the coverage , wherein pixels of the image of the test area are classified as to whether they belong to the free test area or to the fresh concrete located thereon, and the proportion of the test area which is covered by fresh concrete is assessed as a characteristic of the fresh concrete . • a predefined quantity of the fresh concrete is applied to a test area ; • the test area is shaken in accordance with a predefined time program, wherein the test area is arranged on an upper side of a movable plate which can be moved relative to a base body , and wherein the movable plate with the test area is raised smoothly from the base body by means of at least one electromechanical, pneumatic and/or hydraulic actuator for the shaking up to at least one electromagnetic actuator , and is dropped jerkily onto the base body by means of the at least one electromagnetic actuator ; • the coverage of the test area with the fresh concrete is captured from at least one image of the test area , as well as optionally additionally by at least one sensor coupled to the test area , and wherein optionally during and/or after the shaking , the temporal progress of the coverage of the test area with the fresh concrete is captured from multiple images of the test area and/or from a temporal sequence of measured values of the at least one sensor ; • a characteristic for the consistency of the fresh concrete is evaluated from the coverage , wherein pixels of the image of the test area are classified as to whether they belong to the free test area or to the fresh concrete located thereon, and the proportion of the test area which is covered by fresh concrete is assessed as a characteristic of the fresh concrete .
A method of manufacturing an automatic dishwashing detergent product, said product being provided as a discrete dosage unit and comprising a continuous, non-aqueous gel phase, comprising manufacturing said gel phase by a method comprising free radical polymerisation of monomer(s) in a non-aqueous reaction mixture to form a polymeric builder without an intermediate step of drying the reaction mixture to form a solid comprising the polymeric builder; wherein the polymeric builder is in a dissolved state in the non-aqueous gel phase, wherein said reaction mixture comprises: - 10 wt.% to 50 wt.% of at least one non-ionic surfactant, - 10 wt.% to 60 wt.% of at least one non-water solvent; and - one or more monomers comprising acrylic acid wherein no more than 0.1 wt. % of the total amount of the monomer(s) are crosslinking monomer(s). wherein the polymeric builder is in a dissolved state in the non-aqueous gel phase, wherein said reaction mixture comprises: - 10 wt.% to 50 wt.% of at least one non-ionic surfactant, - 10 wt.% to 60 wt.% of at least one non-water solvent; and - one or more monomers comprising acrylic acid - 10 wt.% to 50 wt.% of at least one non-ionic surfactant, - 10 wt.% to 60 wt.% of at least one non-water solvent; and - one or more monomers comprising acrylic acid wherein no more than 0.1 wt. % of the total amount of the monomer(s) are crosslinking monomer(s).
A computer-implemented method for controlling a robot using control parameter values from a non-Euclidean control parameter space comprising: Performing a Bayesian optimization of an objective function representing a desired control objective of the robot over the control parameter space, wherein evaluation points of the objective function are determined by searching an optimum of an acquisition function in an iterative search, comprising, in each iteration, updating a candidate evaluation point using a search direction in the tangent space of the parameter space at the candidate evaluation point; mapping the updated candidate evaluation point from the tangent space to the parameter space; and using the mapped updated candidate evaluation point as candidate evaluation point for a next iteration until a stop criterion is fulfilled; and Controlling a mechanical part, in particular a manipulator , of the robot in accordance with a control parameter value found in the Bayesian optimization. Performing a Bayesian optimization of an objective function representing a desired control objective of the robot over the control parameter space, wherein evaluation points of the objective function are determined by searching an optimum of an acquisition function in an iterative search, comprising, in each iteration, updating a candidate evaluation point using a search direction in the tangent space of the parameter space at the candidate evaluation point; mapping the updated candidate evaluation point from the tangent space to the parameter space; and using the mapped updated candidate evaluation point as candidate evaluation point for a next iteration until a stop criterion is fulfilled; and Controlling a mechanical part, in particular a manipulator , of the robot in accordance with a control parameter value found in the Bayesian optimization.