mhurhangee/patent-ind-claim-en huggingface dataset:
An isolator decoupler comprising: a pulley ; a shaft ; the pulley journalled to the shaft ; a spring carrier ; a torsion spring coupled between the pulley and the spring carrier ; and characterized in that the pulley is journalled to the spring carrier on a low friction bushing , the spring carrier journalled to the shaft on a low friction bushing ; an one way clutch spring frictionally engaged with the shaft , the one way clutch spring coupled to the spring carrier ; the one way clutch spring is disposed radially inward of the torsion spring ; and the pulley temporarily engagable with an end of the one way clutch spring whereby the frictional engagement of the one way clutch spring with the shaft is temporarily diminished. a pulley ; a shaft ; the pulley journalled to the shaft ; a spring carrier ; a torsion spring coupled between the pulley and the spring carrier ; and characterized in that the pulley is journalled to the spring carrier on a low friction bushing , the spring carrier journalled to the shaft on a low friction bushing ; an one way clutch spring frictionally engaged with the shaft , the one way clutch spring coupled to the spring carrier ; the one way clutch spring is disposed radially inward of the torsion spring ; and the pulley temporarily engagable with an end of the one way clutch spring whereby the frictional engagement of the one way clutch spring with the shaft is temporarily diminished.
Coupling element with tolerance compensation for flexibly connecting two elements for conducting media, in particular a tube or hose to another tube or hose or an assembly, with a first component for connecting to the first element, and a second component for connecting to the second element, wherein the first component and the second component have an apparatus for captive connection, and the first component and the second component have a common longitudinal direction, and the first component and the second component can be displaced in a translational manner with respect to one another in the direction of the common longitudinal direction, and wherein the first component and the second component can be turned rotationally with respect to one another about the common longitudinal direction, and wherein the first component and the second component can be tilted cardanically with respect to one another perpendicularly with respect to the common longitudinal direction, characterized in that the first component has a region which engages around a single bead , running around at least partially radially, of the second component , and is spaced apart from the bead with a play in the radial direction and a play in the axial direction, wherein the captive connection has a slotted securing ring , and the first component has at least one aperture which runs around radially at least partially and corresponds with the securing ring , wherein, in a mounted state of the connection, the securing ring engages through the aperture of the first component and comes to lie behind the bead of the second component in such a way that a translational and rotational and cardanic tilting movement of the first component with respect to the second component is possible, but it is prevented that the two components are pulled apart from one another.
A neuromuscular lead assembly, comprising: a base; a plurality of stimulation electrodes mechanically supported by the base and configured to be connected to a patient; a plurality of sensing electrodes supported by the base and in electrical communication with the patient, the plurality of sensing electrodes being configured to electrically communicate with a processor to detect muscle activity in response to a stimulation from at least one of the plurality of stimulation electrodes; and characterised in that the plurality of sensing electrodes is configured selectable with at least one of the plurality of sensing electrodes not detecting patient movement. a base; a plurality of stimulation electrodes mechanically supported by the base and configured to be connected to a patient; a plurality of sensing electrodes supported by the base and in electrical communication with the patient, the plurality of sensing electrodes being configured to electrically communicate with a processor to detect muscle activity in response to a stimulation from at least one of the plurality of stimulation electrodes; and characterised in that the plurality of sensing electrodes is configured selectable with at least one of the plurality of sensing electrodes not detecting patient movement.
Method for calibrating an optical measurement system , the measurement system comprising a light source , an optical element and a sensor , having the steps of: - illuminating (S1) a calibration object in a light plane by means of the light source ; - capturing (S2) a plurality of images of the illuminated calibration object by means of the sensor in a sensor plane, the calibration object being moved freely within a measurement region by a user while the plurality of images are being captured; - detecting (S3) corner points in the images of the calibration object; - assigning (S4) the detected corner points to corresponding predetermined positions on the calibration object; and - determining (S5) a mapping from the sensor plane to the light plane using the detected corner points and the corresponding positions on the calibration object, wherein the determined mapping comprises a combination of a linear mapping and a non-linear mapping, which is determined in a single joint calculation process, wherein the mapping is determined using a plurality of images of just a single calibration object . - illuminating (S1) a calibration object in a light plane by means of the light source ; - capturing (S2) a plurality of images of the illuminated calibration object by means of the sensor in a sensor plane, the calibration object being moved freely within a measurement region by a user while the plurality of images are being captured; - detecting (S3) corner points in the images of the calibration object; - assigning (S4) the detected corner points to corresponding predetermined positions on the calibration object; and - determining (S5) a mapping from the sensor plane to the light plane using the detected corner points and the corresponding positions on the calibration object,
A method for operating an agricultural machine, the agricultural machine having a boom horizontally extending, a balancing system balancing an orientation of the boom in operation, and a tension system adapted for applying pre-tension to the boom , the method comprising: - moving the agricultural machine over soil; - balancing the orientation of the boom by the balancing system ; - limiting or completely preventing balancing of the orientation of the boom by the balancing system , and keeping the boom in a pre-tensioned orientation by activating the tension system , thereby applying a pre-tensioned moving condition to the boom ; characterized in that the method further comprises: - enabling balancing of the orientation of the boom by the balancing system by deactivating the tension system , thereby applying an untensioned moving condition to the boom . - moving the agricultural machine over soil; - balancing the orientation of the boom by the balancing system ; - limiting or completely preventing balancing of the orientation of the boom by the balancing system , and keeping the boom in a pre-tensioned orientation by activating the tension system , thereby applying a pre-tensioned moving condition to the boom ; characterized in that the method further comprises: - enabling balancing of the orientation of the boom by the balancing system by deactivating the tension system , thereby applying an untensioned moving condition to the boom .
A sliding-mode triboelectric generator, comprising: a friction layer and an electrode layer ,: a first surface of the friction layer is provided to face to a first surface of the electrode layer ; wherein, an electrical signal is output between the electrode layer and an isopotential connected to the electrode layer, when a relative sliding occurs, under the action of an external force, between the first surface of the electrode layer and the first surface of the friction layer while a friction area of an interface between the first surface of the electrode layer and the first surface of the friction layer changes in the course of the sliding; wherein there is a difference in triboelectric series between material for the first surface of the friction layer and material for the first surface of the electrode layer , wherein the friction layer is not electrically connected to the isopotential , and characterized in that the friction layer has a thickness greater than 1 mm. a first surface of the friction layer is provided to face to a first surface of the electrode layer ; wherein, an electrical signal is output between the electrode layer and an isopotential connected to the electrode layer, when a relative sliding occurs, under the action of an external force, between the first surface of the electrode layer and the first surface of the friction layer while a friction area of an interface between the first surface of the electrode layer and the first surface of the friction layer changes in the course of the sliding; wherein there is a difference in triboelectric series between material for the first surface of the friction layer and material for the first surface of the electrode layer , wherein the friction layer is not electrically connected to the isopotential , and characterized in that the friction layer has a thickness greater than 1 mm.
A fuel cell system comprising: a fuel cell ; a circulation channel through which a heat medium circulates to exchange heat with the fuel cell ; a circulation pump that delivers the heat medium to the circulation channel ; and a controller that controls the circulation pump , characterized in that the controller performs a first operation for intermittently operating the circulation pump during filling the circulation channel with water as a heat medium during a start of the fuel cell , and a second operation for intermittently operating the circulation pump during electricity generation by the fuel cell , and when a stop time is defined as a predetermined time from an operation stop to an operation restart of the circulation pump during an intermittent operation, the controller controls the first operation and the second operation such that a second stop time corresponding to the stop time of the second operation is shorter than a first stop time corresponding to the stop time of the first operation. a fuel cell ; a circulation channel through which a heat medium circulates to exchange heat with the fuel cell ; a circulation pump that delivers the heat medium to the circulation channel ; and a controller that controls the circulation pump , characterized in that the controller performs a first operation for intermittently operating the circulation pump during filling the circulation channel with water as a heat medium during a start of the fuel cell , and a second operation for intermittently operating the circulation pump during electricity generation by the fuel cell , and when a stop time is defined as a predetermined time from an operation stop to an operation restart of the circulation pump during an intermittent operation, the controller controls the first operation and the second operation such that a second stop time corresponding to the stop time of the second operation is shorter than a first stop time corresponding to the stop time of the first operation.
A mobile underground drilling rig , comprising a carrier , at least one boom attached at a first end to the carrier, and a drilling unit attached to a second end of the boom, and control means configured for: - receiving target pose information indicative of at least target pose for the drilling unit in accordance with an input plan, - detecting , during tramming of the drilling rig, carrier pose information indicative of orientation of the carrier, - defining , during tramming of the drilling rig, orientation of the drilling unit on the basis of the detected carrier pose information indicative of the orientation of the carrier, and - generating , during tramming of the drilling rig, tramming assistance information on the basis of the target pose information and the defined orientation of the drilling unit. - receiving target pose information indicative of at least target pose for the drilling unit in accordance with an input plan, - detecting , during tramming of the drilling rig, carrier pose information indicative of orientation of the carrier, - defining , during tramming of the drilling rig, orientation of the drilling unit on the basis of the detected carrier pose information indicative of the orientation of the carrier, and - generating , during tramming of the drilling rig, tramming assistance information on the basis of the target pose information and the defined orientation of the drilling unit.
An oil separator comprising: a vertical body ; a first plate positioned within the vertical body , the first plate defining a first chamber within the vertical body; a second plate positioned within the vertical body , the second plate and the first plate defining a second chamber within the vertical body , the second plate further defining a third chamber within the body , the second chamber below the first chamber , the third chamber below the second chamber ; an inlet configured to direct a refrigerant into the vertical body and into the first chamber , the inlet being positioned to cause rotation of the refrigerant in the first chamber in a first direction about a longitudinal axis of the vertical body , the first plate configured to direct the refrigerant in the first chamber into the second chamber such that the refrigerant in the second chamber rotates in the first direction about the longitudinal axis of the vertical body and downwards towards the second plate , the second plate configured to direct the refrigerant in the second chamber into the third chamber such that the refrigerant in the third chamber rotates in a second direction about the longitudinal axis of the vertical body and downwards towards a bottom of the vertical body , the second direction opposite the first direction; an outlet positioned along the longitudinal axis of the vertical body , the outlet configured to direct the refrigerant in the third chamber upwards through the first and second chambers and out of the vertical body . a vertical body ; a first plate positioned within the vertical body , the first plate defining a first chamber within the vertical body; a second plate positioned within the vertical body , the second plate and the first plate defining a second chamber within the vertical body , the second plate further defining a third chamber within the body , the second chamber below the first chamber , the third chamber below the second chamber ; an inlet configured to direct a refrigerant into the vertical body and into the first chamber , the inlet being positioned to cause rotation of the refrigerant in the first chamber in a first direction about a longitudinal axis of the vertical body , the first plate configured to direct the refrigerant in the first chamber into the second chamber such that the refrigerant in the second chamber rotates in the first direction about the longitudinal axis of the vertical body and downwards towards the second plate , the second plate configured to direct the refrigerant in the second chamber into the third chamber such that the refrigerant in the third chamber rotates in a second direction about the longitudinal axis of the vertical body and downwards towards a bottom of the vertical body , the second direction opposite the first direction; an outlet positioned along the longitudinal axis of the vertical body , the outlet configured to direct the refrigerant in the third chamber upwards through the first and second chambers and out of the vertical body .
Process for the hydrosilylation of an unsaturated compound (A) comprising at least one ketone function, aldehyde function, alkene function and/or alkyne function, with a compound (B) comprising at least one hydrosilyl function, said process being characterized in that it is catalysed with an organic compound (C) represented by formula : in which: • the symbols "Ge", "N" and "H" represent, respectively, a germanium atom, a nitrogen atom and a hydrogen atom, • the symbol Y is an alkyl group containing from 1 to 12 carbon atoms or an aryl group containing from 6 to 30 carbon atoms, and, preferably, Y is an aryl group containing from 6 to 30 atoms, • the groups R 1 and R 2 , which may be identical or different, represent a hydrogen atom, an alkyl group containing from 1 to 30 carbon atoms, an alkenyl group containing from 2 to 12 carbon atoms, an aryl group containing from 6 to 18 carbon atoms, R 1 and R 2 possibly being connected via a covalent bond so as to form a ring or a bicycle, which is optionally substituted, containing from 5 to 8 atoms, and preferably R 1 and R 2 are connected via a covalent bond so as to form a ring or a bicycle, which is optionally substituted, containing from 5 to 8 carbon atoms, • the symbol " " represents a covalent coordination bond due to the presence in the ligand D of a free pair of electrons, and • D is a ligand which is a phosphine, sulfide or iminophosphorane group comprising a free pair of electrons. • the symbols "Ge", "N" and "H" represent, respectively, a germanium atom, a nitrogen atom and a hydrogen atom, • the symbol Y is an alkyl group containing from 1 to 12 carbon atoms or an aryl group containing from 6 to 30 carbon atoms, and, preferably, Y is an aryl group containing from 6 to 30 atoms, • the groups R 1 and R 2 , which may be identical or different, represent a hydrogen atom, an alkyl group containing from 1 to 30 carbon atoms, an alkenyl group containing from 2 to 12 carbon atoms, an aryl group containing from 6 to 18 carbon atoms, R 1 and R 2 possibly being connected via a covalent bond so as to form a ring or a bicycle, which is optionally substituted, containing from 5 to 8 atoms, and preferably R 1 and R 2 are connected via a covalent bond so as to form a ring or a bicycle, which is optionally substituted, containing from 5 to 8 carbon atoms, • the symbol " " represents a covalent coordination bond due to the presence in the ligand D of a free pair of electrons, and • D is a ligand which is a phosphine, sulfide or iminophosphorane group comprising a free pair of electrons.
An aluminum alloy, based on a total weight of the aluminum alloy, comprising in percentages by weight, 9-12% of Si; 8-11% of Zn; 0.5-1.5% of Mg; 0.2-0.8% of Cu; 0-0.6% of Fe; 0.08-0.25% of Mn; 0-0.10% of Sr; 0-0.05% of Sc; 0-0.5% of Er; the balance being 73.2-82.22% of Al; and inevitable impurities, wherein a content of each one of impurity elements in the aluminum alloy is less than 0.01% and/or a total content of the impurity elements in the aluminum alloy is less than 0.1%, and wherein the aluminum alloy components add up to 100%. 9-12% of Si; 8-11% of Zn; 0.5-1.5% of Mg; 0.2-0.8% of Cu; 0-0.6% of Fe; 0.08-0.25% of Mn; 0-0.10% of Sr; 0-0.05% of Sc; 0-0.5% of Er; the balance being 73.2-82.22% of Al; and inevitable impurities, wherein a content of each one of impurity elements in the aluminum alloy is less than 0.01% and/or a total content of the impurity elements in the aluminum alloy is less than 0.1%, and wherein the aluminum alloy components add up to 100%.
A polythiol composition, which comprises: a bi- or higher-functional polythiol; and a reducing agent, which comprises the reducing agent in an amount of 500 ppm or less, and wherein the reducing agent is at least one selected from the group consisting of lithium aluminum hydride (LiAlH 4 ), sodium amalgam (Na(Hg)), zinc amalgam (Zn(Hg)), diborane (B 2 H 6 ), sodium borohydride (NaBH 4 ), iron (II) sulfate (FeSO 4 ), tin (II) chloride (SnCl 2 ), sodium dithionate (Na 2 S 2 O 6 ), sodium thiosulfate (Na 2 S 2 O 3 ), ammonium thiosulfate ((NH 4 ) 2 S 2 O 3 ), diisobutyl aluminum hydride (DIBAL-H), formic acid (HCOOH), ascorbic acid (C 6 H 8 O 6 ), reducing sugars, phosphites, hypophosphites, dithiothreitol (DTT), tris-2-carboxyethylphosphine hydrochloride (TCEP), 2,2-diphenyl-1-picrylhydrazide (DPPH), butylated hydroxytoluene (BHT), di-tert-butyl-4-methylphenol, and 2,4-dimethyl-6-tert-butylphenol.
A heavy-duty tire comprising a carcass and a tread located radially outward of the carcass, the carcass comprising sidewalls which terminate in a bead area, wherein the tire has a molded base width in the range of from 1117.6 mm to 1270 mm and a shoulder drop in a range of from 64 mm to 120 mm.
A TAL effector nuclease pair, comprising a first and a second TAL effector nuclease monomer, wherein each TAL effector nuclease monomer comprises an endonuclease domain with Type II endonuclease activity and a TAL effector DNA-binding domain with a plurality of repeats, each having a variable amino acid pair RVD, and wherein a) the TAL effector DNA-binding domain of the first TAL effector nuclease monomer binds to the target sequence GCTGGTCATCCTCATCCTG (SEQ ID NO: 1) and comprises the RVD sequence NH HD NG NH NH NG HD NI NG HD HD NG HD NI NG HD HD NG NN, and b) the TAL effector DNA-binding domain of the second TAL effector nuclease monomer binds to the target sequence AGATGTCAGTCATGCTCTT (SEQ ID NO: 2) and comprises the RVD sequence NI NN NI NG NN NG HD NI NH NG HD NI NG NH HD NG HD NG NG. a) the TAL effector DNA-binding domain of the first TAL effector nuclease monomer binds to the target sequence GCTGGTCATCCTCATCCTG (SEQ ID NO: 1) and comprises the RVD sequence NH HD NG NH NH NG HD NI NG HD HD NG HD NI NG HD HD NG NN, and b) the TAL effector DNA-binding domain of the second TAL effector nuclease monomer binds to the target sequence AGATGTCAGTCATGCTCTT (SEQ ID NO: 2) and comprises the RVD sequence NI NN NI NG NN NG HD NI NH NG HD NI NG NH HD NG HD NG NG.