mhurhangee/ep-ind-claims huggingface dataset:
A stable composition formulated for subcutaneous administration, wherein: the stable composition is a liquid co-formulation; the composition has a pH of between 4 to 5, inclusive; and the composition comprises: immune globulin at a concentration that is at least 10 % w/v; a soluble hyaluronidase at a concentration that is at least 50 U/mL and is present in an amount sufficient to allow for the subcutaneous administration of the composition at a single injection site at an infusion rate equal to or greater than the intravenous infusion rate for intravenous immunoglobulin; and an alkali metal chloride salt at a concentration of at least 0.05 M, whereby the co-formulation is stable at temperatures up to 32° C for at least 6 months. the stable composition is a liquid co-formulation; the composition has a pH of between 4 to 5, inclusive; and the composition comprises: immune globulin at a concentration that is at least 10 % w/v; a soluble hyaluronidase at a concentration that is at least 50 U/mL and is present in an amount sufficient to allow for the subcutaneous administration of the composition at a single injection site at an infusion rate equal to or greater than the intravenous infusion rate for intravenous immunoglobulin; and an alkali metal chloride salt at a concentration of at least 0.05 M, immune globulin at a concentration that is at least 10 % w/v; a soluble hyaluronidase at a concentration that is at least 50 U/mL and is present in an amount sufficient to allow for the subcutaneous administration of the composition at a single injection site at an infusion rate equal to or greater than the intravenous infusion rate for intravenous immunoglobulin; and an alkali metal chloride salt at a concentration of at least 0.05 M,
Fuel tank apparatus for a motor vehicle, comprising a fuel tank and a filling module, the filling module being inserted into the fuel tank or being placed onto the fuel tank and being fastened to the fuel tank, the filling module comprising a fuel accumulator and a filler neck, the filler neck being connected fluidically to the fuel accumulator of the filling module in such a way that filling takes place via the filler neck exclusively into the fuel accumulator, the fuel tank not having an additional filler neck, with the result that filling of the fuel tank takes place exclusively via the fuel accumulator of the filling module wherein the filler neck is configured on a covering element of the filling module, the covering element being placed onto the fuel tank from the outside, characterized in that the covering element, comprises a filler cap for closing the filler neck wherein the filler neck protrudes into an opening of the fuel accumulator and/or into a collar of the fuel accumulator.
An ion trap (20; 30) comprising: at least two substantially parallel substrates defining surfaces (22; 32; 42) of approximately the same size oriented so as to have opposing faces; characterised in that it further comprises: a plurality of electrode patterns disposed on the at least two surfaces (22; 32; 42), whereby, in use, a plurality of electric focusing fields are generated by the plurality of electrode patterns to define at least one trapping volume for trapping ions therein. at least two substantially parallel substrates defining surfaces (22; 32; 42) of approximately the same size oriented so as to have opposing faces; characterised in that it further comprises: a plurality of electrode patterns disposed on the at least two surfaces (22; 32; 42), whereby, in use, a plurality of electric focusing fields are generated by the plurality of electrode patterns to define at least one trapping volume for trapping ions therein. a plurality of electrode patterns disposed on the at least two surfaces (22; 32; 42), whereby, in use, a plurality of electric focusing fields are generated by the plurality of electrode patterns to define at least one trapping volume for trapping ions therein.
A method of associating object model data with a halftone scheme comprising: obtaining data representing a three-dimensional object, the data comprising object model data representing the geometry of the three-dimensional object and object property data representing at least one object property of at least a portion of the object; determining if a halftone scheme dependent object property is specified by the object property data, wherein a halftone scheme dependent object property is an object property the representation of which in a generated object is dependent on selection of a halftone scheme to generate control data for use by an additive manufacturing system to generate a three-dimensional object; selecting, from a plurality of halftone schemes, a halftone scheme which is better suited to providing the halftone scheme dependent object property in a generated object compared to another halftone scheme of the plurality of halftone schemes; associating data representing a portion of the object having a halftone scheme dependent object property with the selected halftone scheme. obtaining data representing a three-dimensional object, the data comprising object model data representing the geometry of the three-dimensional object and object property data representing at least one object property of at least a portion of the object; determining if a halftone scheme dependent object property is specified by the object property data, wherein a halftone scheme dependent object property is an object property the representation of which in a generated object is dependent on selection of a halftone scheme to generate control data for use by an additive manufacturing system to generate a three-dimensional object; selecting, from a plurality of halftone schemes, a halftone scheme which is better suited to providing the halftone scheme dependent object property in a generated object compared to another halftone scheme of the plurality of halftone schemes; associating data representing a portion of the object having a halftone scheme dependent object property with the selected halftone scheme.
An imaging apparatus comprising: an optical system that is not an imaging lens and has a negative power; and an imaging element including a plurality of pixel output units that receives incident light from a subject entering without passing through either an imaging lens or a pinhole and entering through the optical system, and each pixel output unit outputs one detection signal indicating an output pixel value modulated by an incident angle of the incident light. an optical system that is not an imaging lens and has a negative power; and an imaging element including a plurality of pixel output units that receives incident light from a subject entering without passing through either an imaging lens or a pinhole and entering through the optical system, and each pixel output unit outputs one detection signal indicating an output pixel value modulated by an incident angle of the incident light.
A foldable trolley, in particular a home care trolley, comprising: - a first trolley end and an opposite second trolley end, said trolley ends mutually coupled for providing said trolley with an extended position and a folded position, with said first and second trolley ends (2, 3) providing opposite trolley ends in said folded position and in said extended position; - a series of storage containers (7, 8) one above the other, with each time one storage container comprising a storage container end linked to one trolley end and a next storage container comprising a storage container end linked to the opposite container end; - a working top comprising a first working top part having a first working top side attached to said first trolley end and a second working top part having a second working top side attached to said second trolley end. - a first trolley end and an opposite second trolley end, said trolley ends mutually coupled for providing said trolley with an extended position and a folded position, with said first and second trolley ends (2, 3) providing opposite trolley ends in said folded position and in said extended position; - a series of storage containers (7, 8) one above the other, with each time one storage container comprising a storage container end linked to one trolley end and a next storage container comprising a storage container end linked to the opposite container end; - a working top comprising a first working top part having a first working top side attached to said first trolley end and a second working top part having a second working top side attached to said second trolley end.
A refrigerator having an ice making compartment, the refrigerator comprising: an ice making compartment case forming the ice making compartment; an ice making unit; a refrigeration cycle having a refrigerant pipe to supply cooling energy to the ice making compartment; and a fixing member to fix a first portion of the refrigerant pipe, wherein at least a second portion of the refrigerant pipe other than the first portion of the refrigerant pipe is supported by and inserted into the ice making compartment, wherein the fixing member is coupled to the ice making compartment case, and the first portion of the refrigerant pipe is fixed by the fixing member at a position where the fixing member is coupled to the ice making compartment case, characterized in that the ice making unit is detachably coupled to at least the second portion of the refrigerant pipe, and the ice making unit includes an ice making tray on which the second portion of the refrigerant pipe is seated, and a fixer (84, 89) to fix the second portion of the refrigerant pipe to the ice making tray. an ice making compartment case forming the ice making compartment; an ice making unit; a refrigeration cycle having a refrigerant pipe to supply cooling energy to the ice making compartment; and a fixing member to fix a first portion of the refrigerant pipe, wherein at least a second portion of the refrigerant pipe other than the first portion of the refrigerant pipe is supported by and inserted into the ice making compartment, wherein the fixing member is coupled to the ice making compartment case, and the first portion of the refrigerant pipe is fixed by the fixing member at a position where the fixing member is coupled to the ice making compartment case, characterized in that the ice making unit is detachably coupled to at least the second portion of the refrigerant pipe, and the ice making unit includes an ice making tray on which the second portion of the refrigerant pipe is seated, and a fixer (84, 89) to fix the second portion of the refrigerant pipe to the ice making tray.
A sheet die-cutting blade comprising a strip-plate-shaped blade plate having a predetermined length and made of a steel plate, the blade plate being provided with a pair of chamfers formed on the respective side surfaces of the blade plate so as to extend from one side edge of the blade plate at substantially the same inclination angle, the chamfers defining a cutting edge along the one side edge of the blade plate, characterized in that when viewed in plan view in a direction perpendicular to the cutting edge and parallel to the blade plate, the cutting edge has a composite wave pattern comprising a large wave pattern undulating in a thickness direction of the blade plate and a small wave pattern undulating in the thickness direction of the blade plate, the large wave pattern comprising a plurality of longitudinally continuous large waves, the small wave pattern comprising a plurality of longitudinally continuous small waves, wherein each of the large waves contains a plurality of the small waves, and wherein the small wave pattern is entirely located within the thickness of the blade plate.
A piezoelectric device (10, 50, 90, 100, 150, 160), comprising: a substrate (12, 30, 110, 170); a first electrode (14, 32, 114) which is layered over the substrate (12, 30, 110, 170); a first piezoelectric film (16, 34, 116) which is layered over the first electrode (14, 32, 114); a metal oxide film (18, 36, 62A, 62B, 118) which is layered over the first piezoelectric film (16, 34, 116); a metal film (20, 38, 64A, 64B, 120) which is layered over the metal oxide film (18, 36, 62A, 62B, 118); a second piezoelectric film (22, 44, 74, 122) which is layered over the metal film (20, 38, 64A, 64B, 120); and a second electrode (24, 46, 82, 124) which is layered over the second piezoelectric film (22, 44, 74, 122); characterized in that, a product of a stress and a thickness is less than 100 N/m 2 in an intermediate layer constituted of the metal oxide film (18, 36, 62A, 62B, 118) and the metal film (20, 38, 64A, 64B, 120) between the first piezoelectric film (16, 34, 116) and the second piezoelectric film (22, 44, 74, 122); and the thickness of the intermediate layer is not smaller than 50 nm and smaller than 250 nm. a substrate (12, 30, 110, 170); a first electrode (14, 32, 114) which is layered over the substrate (12, 30, 110, 170); a first piezoelectric film (16, 34, 116) which is layered over the first electrode (14, 32, 114); a metal oxide film (18, 36, 62A, 62B, 118) which is layered over the first piezoelectric film (16, 34, 116); a metal film (20, 38, 64A, 64B, 120) which is layered over the metal oxide film (18, 36, 62A, 62B, 118); a second piezoelectric film (22, 44, 74, 122) which is layered over the metal film (20, 38, 64A, 64B, 120); and a second electrode (24, 46, 82, 124) which is layered over the second piezoelectric film (22, 44, 74, 122); characterized in that, a product of a stress and a thickness is less than 100 N/m 2 in an intermediate layer constituted of the metal oxide film (18, 36, 62A, 62B, 118) and the metal film (20, 38, 64A, 64B, 120) between the first piezoelectric film (16, 34, 116) and the second piezoelectric film (22, 44, 74, 122); and the thickness of the intermediate layer is not smaller than 50 nm and smaller than 250 nm.
Computer-implemented method for producing a development of a surface of a three-dimensional body that can be manufactured by knitting, comprising the method steps of: a. showing the surface of the three-dimensional body on a display device; b. virtually placing at least one cut (S1-S4) in the surface of the three-dimensional body; c. producing at least one development of the cut surface and/or of a cutout of the surface obtained by the placement of the at least one cut; d. assessing the quality of the at least one development using at least one predetermined criterion; e. repeating steps b.-d. until the at least one criterion is fulfilled, characterized in that the at least one development is produced by means of a gravity model and, as a criterion for the quality of the development, a) a ratio or a deviation of the surface area of the cut surface or of the cutout of the surface to the surface area of the associated development and/or b) a curvature of the development that deviates from a plane is used. a. showing the surface of the three-dimensional body on a display device; b. virtually placing at least one cut (S1-S4) in the surface of the three-dimensional body; c. producing at least one development of the cut surface and/or of a cutout of the surface obtained by the placement of the at least one cut; d. assessing the quality of the at least one development using at least one predetermined criterion; e. repeating steps b.-d. until the at least one criterion is fulfilled, characterized in that the at least one development is produced by means of a gravity model and, as a criterion for the quality of the development, a) a ratio or a deviation of the surface area of the cut surface or of the cutout of the surface to the surface area of the associated development and/or b) a curvature of the development that deviates from a plane is used. a) a ratio or a deviation of the surface area of the cut surface or of the cutout of the surface to the surface area of the associated development and/or b) a curvature of the development that deviates from a plane is used.
A sensor (102; 102'; 102") comprising: one or more sensing elements (202a-c), each responsive to an ambient condition associated with the sensor to generate a sensing signal (203a-c) indicative of a level of the ambient condition; a threshold comparison circuit with hysteresis, responsive to the sensing signal from the one or more sensing elements and configured to carry out a comparison of the sensing signal with a high threshold and a low threshold separated by a threshold hysteresis range, and generate a digital signal being set to a first value when the sensing signal falls below the low threshold and being set to a second value when the sensing signal exceeds the high threshold; and an output processor configured to generate a sensor output signal (104; 104'; 104") in response to digital signal values from the threshold comparison circuit, characterised in that, upon powering on the sensor after the sensor is powered off, the threshold comparison circuit is configured to determine whether the sensing signal from the one or more sensing elements (202a-c) is in the hysteresis range and, if the sensing signal from the one or more sensing elements is in the hysteresis range, set the digital signal to a predetermined value based upon a hysteresis restoration state associated with the comparison before the sensor is powered off. one or more sensing elements (202a-c), each responsive to an ambient condition associated with the sensor to generate a sensing signal (203a-c) indicative of a level of the ambient condition; a threshold comparison circuit with hysteresis, responsive to the sensing signal from the one or more sensing elements and configured to carry out a comparison of the sensing signal with a high threshold and a low threshold separated by a threshold hysteresis range, and generate a digital signal being set to a first value when the sensing signal falls below the low threshold and being set to a second value when the sensing signal exceeds the high threshold; and an output processor configured to generate a sensor output signal (104; 104'; 104") in response to digital signal values from the threshold comparison circuit, characterised in that, upon powering on the sensor after the sensor is powered off, the threshold comparison circuit is configured to determine whether the sensing signal from the one or more sensing elements (202a-c) is in the hysteresis range and, if the sensing signal from the one or more sensing elements is in the hysteresis range, set the digital signal to a predetermined value based upon a hysteresis restoration state associated with the comparison before the sensor is powered off.
Ignition switch assembly for a gas tap of a cooking appliance, comprising a rotary shaft, a coupling element coupled to the rotary shaft, said coupling element being rotational and integral with the rotary shaft in a rotational movement, a fixed contact means and a movable contact means, and a cam coupled to the coupling element, shifting the movable contact means towards the fixed contact means, electrical contact being produced when the coupling element is turned, the ignition switch assembly further comprising at least one resistance means, other than the cam, that resists against the rotational movement of the rotary shaft, making the force that a user must exert to turn said rotary shaft greater, wherein the coupling element and the rotary shaft can turn an angle of rotation in either of the two directions, from an initial position corresponding to the closed OFF position of the gas flow, to a final position corresponding to a specific gas flow, the coupling element having a substantially cylindrical shape, with a substantially planar outer side surface and a substantially planar inner side surface, the cam being part of the coupling element, being integral with said coupling element since the cam is arranged on the outer side surface, taking up the width of said side surface and being raised high enough so that it can contact with the movable contact means when turning the coupling element, characterized in that the resistance means is in contact with the coupling element in at least one section of the angle of rotation A, and at least one of said side surfaces (7,8) of the coupling element cooperates with said resistance means.
A method of measuring a height (h) of a vehicle on a road, comprising: directing a vehicle classification sensor from a point (P VCS) above the road onto a section of the road and recording, in a given coordinate system, with the vehicle classification sensor a 3D representation of the vehicle passing the section, characterized by further comprising: directing a camera with a known angle of aperture (Ω) from an elevated point (P CAM) at a side (13, 14) of the road onto the section and recording, with the camera, a 2D image of at least an upper portion of the vehicle and a background above the upper portion; determining an edge profile between the upper portion and the background in the 2D image; establishing, in the coordinate system, a fan of rays each extending from the elevated point (P CAM) and through a different one of multiple points (P i) along the edge profile; shifting the 3D representation in the coordinate system in height (z) until it is tangent to said fan; and determining said height (h) of the vehicle from the shifted 3D representation in the coordinate system. directing a camera with a known angle of aperture (Ω) from an elevated point (P CAM) at a side (13, 14) of the road onto the section and recording, with the camera, a 2D image of at least an upper portion of the vehicle and a background above the upper portion; determining an edge profile between the upper portion and the background in the 2D image; establishing, in the coordinate system, a fan of rays each extending from the elevated point (P CAM) and through a different one of multiple points (P i) along the edge profile; shifting the 3D representation in the coordinate system in height (z) until it is tangent to said fan; and determining said height (h) of the vehicle from the shifted 3D representation in the coordinate system.