mhurhangee/patent-ind-claim-en huggingface dataset:
Method for optimization-based operational management for a storage system for a photovoltaic system , wherein the photovoltaic system has an energy management system , wherein the photovoltaic system comprises a solar generator and the storage system and also a household connection and a grid connection , wherein the method has the following steps: reading in present characteristic data relating to the photovoltaic system and expected characteristic data relating to the photovoltaic system , wherein the present characteristic data represent production data and/or consumption values and/or a state of charge of the storage system pertaining to the present time and/or a preceding state of charge from a prior period, the expected characteristic data representing production data and/or consumption values pertaining to at least one future time within a predefined observation period; determining a plurality of expected power flows in the observation period using the present characteristic data and/or the expected characteristic data; wherein, in the determination step , the expected power flows are determined using an efficiency which can be assigned to each expected power flow; determining a grid feed-in from the plurality of expected power flows in at least one interval of time within the predefined observation period using at least one power requirement parameter which can be assigned to the plurality of expected power flows and which is coupled to a payment system; and optimizing the expected power flows in order to succeed in establishing a stable power grid with regard to supply and demand of energy. reading in present characteristic data relating to the photovoltaic system and expected characteristic data relating to the photovoltaic system , wherein the present characteristic data represent production data and/or consumption values and/or a state of charge of the storage system pertaining to the present time and/or a preceding state of charge from a prior period, the expected characteristic data representing production data and/or consumption values pertaining to at least one future time within a predefined observation period; determining a plurality of expected power flows in the observation period using the present characteristic data and/or the expected characteristic data; wherein, in the determination step , the expected power flows are determined using an efficiency which can be assigned to each expected power flow; determining a grid feed-in from the plurality of expected power flows in at least one interval of time within the predefined observation period using at least one power requirement parameter which can be assigned to the plurality of expected power flows and which is coupled to a payment system; and optimizing the expected power flows in order to succeed in establishing a stable power grid with regard to supply and demand of energy.
Connecting means designed to provide the electrical junction between a first part of an electrical conduction bus bar and a second part of said bus bar , characterized in that it comprises: - a male part designed to be rigidly attached to the first part of the bus bar , and - a female part designed to be rigidly attached to the second part of the bus bar , the male part and the female part being designed to fit into one another respectively following: - a first translational movement of the female part relative to the male part along a first axis (A1), followed by; - a second rotational movement of the female part relative to the male part about a second axis (A2) perpendicular to the first axis (A1), notably a rotation of a quarter of a turn or substantially of a quarter of a turn. - a male part designed to be rigidly attached to the first part of the bus bar , and - a female part designed to be rigidly attached to the second part of the bus bar , the male part and the female part being designed to fit into one another respectively following: - a first translational movement of the female part relative to the male part along a first axis (A1), followed by; - a second rotational movement of the female part relative to the male part about a second axis (A2) perpendicular to the first axis (A1), notably a rotation of a quarter of a turn or substantially of a quarter of a turn.
A rope guide apparatus ; the apparatus comprising: an elongate pole having first and second ends ; and a length of rope having first and second ends; characterised in that said length of rope is slidably retained by the elongate pole at a first point of retention located adjacent the first end of the elongated pole from which point the first end of said rope extends freely from the elongate pole , and within which the rope is arranged to extend from the first end thereof towards the second end of the elongate pole and is slidably retained by the elongate pole at a second point of retention adjacent the second end thereof, and in which the rope is arranged to extend continuously from adjacent the second end of the elongate pole backwardly towards the first end of the elongate pole externally to said elongate pole and is slidably retained by a retaining fixture located intermediate the second end of the elongate pole and the mid-point of the elongate pole , and in which the second end of the length of rope extends freely from the retaining fixture and the elongate pole . an elongate pole having first and second ends ; and a length of rope having first and second ends; characterised in that said length of rope is slidably retained by the elongate pole at a first point of retention located adjacent the first end of the elongated pole from which point the first end of said rope extends freely from the elongate pole , and within which the rope is arranged to extend from the first end thereof towards the second end of the elongate pole and is slidably retained by the elongate pole at a second point of retention adjacent the second end thereof, and in which the rope is arranged to extend continuously from adjacent the second end of the elongate pole backwardly towards the first end of the elongate pole externally to said elongate pole and is slidably retained by a retaining fixture located intermediate the second end of the elongate pole and the mid-point of the elongate pole , and in which the second end of the length of rope extends freely from the retaining fixture and the elongate pole .
Measuring device with at least one sensor device , with a processing device , with a storage device , with an interface and with a control device , wherein the measuring device generates a measured value for a measured variable, wherein the sensor device generates a primary measured variable associated with the measured variable, wherein the processing device determines the measured value for the measured variable based on calculation data from the primary measured variable stored in the storage device , characterized in that the control device controls data traffic via the interface that the control device - in particular autonomously - retrieves externally provided data via the interface and that the control device performs a test on the measuring device based on the externally provided data, wherein the test comprises the control device determining a reference value from the externally provided data, comparing the reference value to a measured value generated by the processing device and generating a comparison result based thereupon. wherein the sensor device generates a primary measured variable associated with the measured variable, wherein the processing device determines the measured value for the measured variable based on calculation data from the primary measured variable stored in the storage device , characterized in that the control device controls data traffic via the interface that the control device - in particular autonomously - retrieves externally provided data via the interface and that the control device performs a test on the measuring device based on the externally provided data, wherein the test comprises the control device determining a reference value from the externally provided data, comparing the reference value to a measured value generated by the processing device and generating a comparison result based thereupon.
An article, comprising: a core; and two facesheets secured to the core; the core comprising: a plurality of hollow first truss members extending in a first direction; and a plurality of hollow second truss members extending in a second direction; the hollow truss members of the plurality of first truss members and the plurality of second truss members interpenetrating at a plurality of hollow nodes, each of the hollow nodes being immediately adjacent to, and secured to, one of the two facesheets, each of the hollow truss members of the plurality of first truss members and the plurality of second truss members having: an outside diameter between 0.1 mm and 5 mm, a length between 3 mm and 50 mm, and a wall thickness between 1 micron and 1000 microns, characterized in that a hollow node is truncated, so that a saddle point of the hollow node is spaced from the facesheet to which it is immediately adjacent by a distance of less than one half of an outside diameter of a hollow truss member extending from the hollow node. a core; and two facesheets secured to the core; the core comprising: a plurality of hollow first truss members extending in a first direction; and a plurality of hollow second truss members extending in a second direction; the hollow truss members of the plurality of first truss members and the plurality of second truss members interpenetrating at a plurality of hollow nodes, a plurality of hollow first truss members extending in a first direction; and a plurality of hollow second truss members extending in a second direction; the hollow truss members of the plurality of first truss members and the plurality of second truss members interpenetrating at a plurality of hollow nodes, each of the hollow nodes being immediately adjacent to, and secured to, one of the two facesheets, each of the hollow truss members of the plurality of first truss members and the plurality of second truss members having: an outside diameter between 0.1 mm and 5 mm, a length between 3 mm and 50 mm, and a wall thickness between 1 micron and 1000 microns, an outside diameter between 0.1 mm and 5 mm, a length between 3 mm and 50 mm, and a wall thickness between 1 micron and 1000 microns, characterized in that a hollow node is truncated, so that a saddle point of the hollow node is spaced from the facesheet to which it is immediately adjacent by a distance of less than one half of an outside diameter of a hollow truss member extending from the hollow node.
A gangway between two articulately connected vehicle parts , wherein a guide assembly for supply lines extending in the roof area is provided in the roof area of the vehicle parts , wherein the guide assembly comprises a spring assembly for guiding the supply lines, wherein line supports (27a-27g) are arranged on the spring assembly , characterized in that the spring assembly comprises at least two leaf spring segments , which are respectively fastened with their one end to the front side of the corresponding vehicle part , wherein the leaf spring segments are connected to each other with their other free ends through at least one hinge joint device with a vertical pivot axis, wherein the leaf spring segments have substantially the same length, with the consequence that the hinge joint device is located at the zenith of the spring assembly .
A CCR5 antagonist for use in inhibiting metastasis of cancer susceptible to treatment in an immunocompetent subject at risk for metastasis of cancer.
A stethoscope head comprising: an auscultatory sound receiver configured to receive an auscultatory sound from an object (O); a support member configured to support at least a part of the auscultatory sound receiver ; and a moving member comprising a light source configured to emit ultraviolet rays for sterilization to the auscultatory sound receiver , characterized in that the moving member is capable of moving with respect to the auscultatory sound receiver and the support member back and forth between a first position in which the light source protrudes from the auscultatory sound receiver in the direction of the object (O) and a second position in which the light source does not protrude from the auscultatory sound receiver. an auscultatory sound receiver configured to receive an auscultatory sound from an object (O); a support member configured to support at least a part of the auscultatory sound receiver ; and a moving member comprising a light source configured to emit ultraviolet rays for sterilization to the auscultatory sound receiver , characterized in that the moving member is capable of moving with respect to the auscultatory sound receiver and the support member back and forth between a first position in which the light source protrudes from the auscultatory sound receiver in the direction of the object (O) and a second position in which the light source does not protrude from the auscultatory sound receiver.
Elevator comprising an electric linear motor comprising at least one linear stator designed to be located in a fixed correlation to an environment, particularly building, and at least one mover (24, 26; 126) designed for connection with an elevator car to be moved (16; 16a-16d) and co-acting with the stator to move the car, which motor comprises a stator beam (18; 114) supporting said at least one stator , which stator beam has at least one side face (42-48; 116-124) carrying ferromagnetic poles of said stator spaced apart by a pitch (d), and which mover (24, 26; 126) comprises at least one counter-face facing said side face(s) of the stator beam, in which counter-face electro-magnetic components of the mover (24, 26; 126) are arranged to co-act with the ferromagnetic poles mounted on the stator beam , which elevator comprises an elevator brake, characterized in that said side face (42-48) of the stator beam facing the mover and/or the counter face of the mover facing the side face of the stator beam comprise(s) a brake surface which form(s) the brake interface of the elevator brake.
A method for producing an antibody comprising the following steps: a) cultivating a mammalian cell expressing the antibody, and b) recovering the antibody from the cell or the cultivation medium, wherein the antibody has been selected (from a multitude of antibodies and/or antibody formats) to have i) a relative retention time on an FcRn affinity chromatography column of less than 1.78 times the retention time difference between peaks 2 and 3 of a preparation of an oxidized anti-Her3 antibody of SEQ ID NO: 03 and 04, and ii) a relative retention time on a heparin affinity chromatography column of less than 0.87 times the retention time of an anti-pTau antibody of SEQ ID NO: 01 and 02, wherein an immobilized non-covalent complex of a neonatal Fc receptor (FcRn) and beta-2-microglobulin (b2m) as affinity chromatography ligand is used in the FcRn affinity chromatography with a positive linear pH gradient, wherein the non-covalent complex of the neonatal Fc receptor and beta-2-microglobulin is bound to a chromatography material and the non-covalent complex is conjugated to the solid phase via a specific binding pair, wherein the pH gradient is from a first pH value to a second pH value whereby the first pH value is from pH 3.5 to pH 6.4 and the second pH value is from pH 7.4 to pH 9.5, and wherein the non-covalent complex of the neonatal Fc receptor (FcRn) and beta-2-microglobulin (b2m) is mono-biotinylated and the solid phase is derivatized with streptavidin. a) cultivating a mammalian cell expressing the antibody, and b) recovering the antibody from the cell or the cultivation medium, wherein the antibody has been selected (from a multitude of antibodies and/or antibody formats) to have i) a relative retention time on an FcRn affinity chromatography column of less than 1.78 times the retention time difference between peaks 2 and 3 of a preparation of an oxidized anti-Her3 antibody of SEQ ID NO: 03 and 04, and ii) a relative retention time on a heparin affinity chromatography column of less than 0.87 times the retention time of an anti-pTau antibody of SEQ ID NO: 01 and 02, wherein an immobilized non-covalent complex of a neonatal Fc receptor (FcRn) and beta-2-microglobulin (b2m) as affinity chromatography ligand is used in the FcRn affinity chromatography with a positive linear pH gradient, wherein the non-covalent complex of the neonatal Fc receptor and beta-2-microglobulin is bound to a chromatography material and the non-covalent complex is conjugated to the solid phase via a specific binding pair, wherein the pH gradient is from a first pH value to a second pH value whereby the first pH value is from pH 3.5 to pH 6.4 and the second pH value is from pH 7.4 to pH 9.5, and wherein the non-covalent complex of the neonatal Fc receptor (FcRn) and beta-2-microglobulin (b2m) is mono-biotinylated and the solid phase is derivatized with streptavidin.
A method for the wear-optimised operation of a soil working machine, in particular a road milling machine, a surface miner or the like, with adjustable machine parameters (18.1, 18.2, 18.3, 18.4) of a machine parameter set for controlling the machine, wherein, depending on at least one material property of the material to be removed, at least one target machine parameter (71.1, 71.2, 71.3, 71.4) for setting a wear-optimised operation is determined, characterised in that the at least one material property is determined during operation of the soil working machine depending on machine parameters (18.1, 18.2, 18.3, 18.4), at least one calculation unit and one memory unit are assigned to the processing device , the at least one material property combined with at least one job parameter and/or at least one default machine parameter (62.1, 62.2, 62.3, 62.4) is stored in the memory unit , characteristic fields or functional relationships are stored in the memory unit for determining the at least one target machine parameter (71.1, 71.2, 71.3, 71.4) from the at least one material property and from the at least one job parameter and/or from the at least one default machine parameter (62.1, 62.2, 62.3, 62.4), and the calculation unit determines the at least one target machine parameter (71.1, 71.2, 71.3, 71.4) with the aid of the characteristic fields or the functional relationships.
A system implemented by one or more computers, the system comprising: a visual encoder component configured to: receive as input, data representing a sequence of image frames (120a,b) and to output a sequence of corresponding respective state codes (122a,b), each state code comprising vectors, one for each object in a scene of the sequence, wherein each vector represents a respective position and velocity of its corresponding object; a dynamic predictor component configured to: take as input a sequence of state codes (122a,b; 140a,b,c) and generate a predicted state code (140a,b,c) for a next unobserved image frame; and a state decoder component configured to: convert a state code (140a,b,c) to a state (150a,b,c), a state (150a,b,c) comprising a respective position and velocity vector for each object in the scene; wherein: the dynamic predictor component comprises multiple interaction network components , each being configured to take as input one state code of the sequence of state codes (122a,b; 140a,b,c), each one state code corresponding to a different temporal offset and to produce a respective candidate state code ; and the dynamic predictor component is configured to aggregate the candidate state codes by a multilayer perceptron to produce the predicted state code (140a,b,c) for the next image frame after the input sequence of image frames; and wherein the candidate state codes all relate to the same predicted state code and the temporal offsets are backwards from the predicted state code (140a,b,c). a visual encoder component configured to: receive as input, data representing a sequence of image frames (120a,b) and to output a sequence of corresponding respective state codes (122a,b), each state code comprising vectors, one for each object in a scene of the sequence, wherein each vector represents a respective position and velocity of its corresponding object; a dynamic predictor component configured to: take as input a sequence of state codes (122a,b; 140a,b,c) and generate a predicted state code (140a,b,c) for a next unobserved image frame; and a state decoder component configured to: convert a state code (140a,b,c) to a state (150a,b,c), a state (150a,b,c) comprising a respective position and velocity vector for each object in the scene; wherein: the dynamic predictor component comprises multiple interaction network components , each being configured to take as input one state code of the sequence of state codes (122a,b; 140a,b,c), each one state code corresponding to a different temporal offset and to produce a respective candidate state code ; and the dynamic predictor component is configured to aggregate the candidate state codes by a multilayer perceptron to produce the predicted state code (140a,b,c) for the next image frame after the input sequence of image frames; and wherein the candidate state codes all relate to the same predicted state code and the temporal offsets are backwards from the predicted state code (140a,b,c).
A slider comprising: a slider body comprising an upper vane , a lower vane , and a guide post connecting the upper vane and the lower vane ; and a pull tab connected to the slider body , wherein the upper vane is provided with a pair of lateral walls projecting from an upper surface of the upper vane in a thickness direction of the slider body in which the upper vane and the lower vane are opposed, a connection bearing for a connecting pin supported by the pair of lateral walls to be inserted is provided to the pull tab , the upper vane is provided with a recess dented toward the lower vane in the thickness direction of the slider body with respect to the upper surface , or a hole penetrating from the upper surface through the upper vane , and the connection bearing is located in the recess or the hole between the pair of lateral walls , wherein a shaft hole for the connecting pin to be inserted is provided to each of the pair of lateral walls , and characterized in that at least a part of the shaft hole is located below the upper surface of the upper vane . a slider body comprising an upper vane , a lower vane , and a guide post connecting the upper vane and the lower vane ; and a pull tab connected to the slider body , wherein the upper vane is provided with a pair of lateral walls projecting from an upper surface of the upper vane in a thickness direction of the slider body in which the upper vane and the lower vane are opposed, a connection bearing for a connecting pin supported by the pair of lateral walls to be inserted is provided to the pull tab , the upper vane is provided with a recess dented toward the lower vane in the thickness direction of the slider body with respect to the upper surface , or a hole penetrating from the upper surface through the upper vane , and the connection bearing is located in the recess or the hole between the pair of lateral walls , wherein a shaft hole for the connecting pin to be inserted is provided to each of the pair of lateral walls , and characterized in that at least a part of the shaft hole is located below the upper surface of the upper vane .