mhurhangee/ep-ind-claims huggingface dataset:
Six DOF measurement aid module for use in a system for determining 3D coordinates of points to be measured of an object surface, said system comprising a laser tracker for determining the position and orientation of the six DOF measurement aid module, comprising ∘ a body comprising ▪ an object coupling device with an object interface, which object coupling device is configured to couple, via the object interface, alternatively both a handle to the body with a fixed pose and the body to a mobile platform with a fixed pose, ▪ a sensor attachment coupling device with a sensor interface, which sensor attachment coupling device is configured to couple alternatively both a sensor attachment effecting non-contact measurement and a sensor attachment effecting tactile measurement to the body with a fixed pose via the sensor interface, and ▪ visual markings (9, 9', 9", 9′′′, 9ʺʺ, 9ʺ′′′, 9′′′′′′), which are arranged in a defined spatial relationship in a manner forming a pattern in a marking region on the body and make the orientation of the six DOF measurement aid module determinable for the laser tracker. ∘ a body comprising ▪ an object coupling device with an object interface, which object coupling device is configured to couple, via the object interface, alternatively both a handle to the body with a fixed pose and the body to a mobile platform with a fixed pose, ▪ a sensor attachment coupling device with a sensor interface, which sensor attachment coupling device is configured to couple alternatively both a sensor attachment effecting non-contact measurement and a sensor attachment effecting tactile measurement to the body with a fixed pose via the sensor interface, and ▪ visual markings (9, 9', 9", 9′′′, 9ʺʺ, 9ʺ′′′, 9′′′′′′), which are arranged in a defined spatial relationship in a manner forming a pattern in a marking region on the body and make the orientation of the six DOF measurement aid module determinable for the laser tracker. ▪ an object coupling device with an object interface, which object coupling device is configured to couple, via the object interface, alternatively both a handle to the body with a fixed pose and the body to a mobile platform with a fixed pose, ▪ a sensor attachment coupling device with a sensor interface, which sensor attachment coupling device is configured to couple alternatively both a sensor attachment effecting non-contact measurement and a sensor attachment effecting tactile measurement to the body with a fixed pose via the sensor interface, and ▪ visual markings (9, 9', 9", 9′′′, 9ʺʺ, 9ʺ′′′, 9′′′′′′), which are arranged in a defined spatial relationship in a manner forming a pattern in a marking region on the body and make the orientation of the six DOF measurement aid module determinable for the laser tracker.
A high density polyethylene blend, comprising 70 to 98 wt% of a high density multimodal polyethylene component having a density of at least 940 kg/m 3, and an MFR 5 of less than 1.0 g/10min; 2 to 20 wt% of an ultra-high molecular weight polyethylene copolymer, e.g. with a C3-8 alpha olefin, having an intrinsic viscosity of at least 7 dl/g and an MFR 21 of less than 0.5 g/10min (UHMW polyethylene copolymer); and wherein said blend has an MFR 21 of 0.5 to 10.0 g/10min and a density of at least 940 kg/m 3. 70 to 98 wt% of a high density multimodal polyethylene component having a density of at least 940 kg/m 3, and an MFR 5 of less than 1.0 g/10min; 2 to 20 wt% of an ultra-high molecular weight polyethylene copolymer, e.g. with a C3-8 alpha olefin, having an intrinsic viscosity of at least 7 dl/g and an MFR 21 of less than 0.5 g/10min (UHMW polyethylene copolymer);
A battery pack with reduced magnetic emissions, comprising: a plurality of cells coupled electrically together, each cell comprising a housing having major and minor faces, and an asymmetrical internal electrode construction having electrical tabs coupled thereto, wherein at least two adjacent cells are arranged with their corresponding asymmetrical internal electrode constructions oriented differently with respect to each other; a first electrical conductor coupled to one of each positive terminal or each negative terminal of the at least two adjacent cells; and a second electrical conductor coupled to another of the each positive terminal or the each negative terminal of the at least two adjacent cells; wherein one or more of the first electrical conductor or the second electrical conductor is routed to reduce magnetic field emissions from one or more of the second electrical conductor or the first electrical conductor or one or more of the electrical tabs during discharge of the battery pack, wherein the one or more of the first electrical conductor or the second electrical conductor is configured to pass across a major face of one or more of the at least two adjacent cells, wherein the at least two adjacent cells are arranged in a layer, further wherein the one or more of the first electrical conductor or the second electrical conductor is configured in a loop having a width greater than a distance between a terminal of a first cell and a corresponding terminal of a second cell in the layer. a plurality of cells coupled electrically together, each cell comprising a housing having major and minor faces, and an asymmetrical internal electrode construction having electrical tabs coupled thereto, wherein at least two adjacent cells are arranged with their corresponding asymmetrical internal electrode constructions oriented differently with respect to each other; a first electrical conductor coupled to one of each positive terminal or each negative terminal of the at least two adjacent cells; and a second electrical conductor coupled to another of the each positive terminal or the each negative terminal of the at least two adjacent cells; wherein one or more of the first electrical conductor or the second electrical conductor is routed to reduce magnetic field emissions from one or more of the second electrical conductor or the first electrical conductor or one or more of the electrical tabs during discharge of the battery pack, wherein the one or more of the first electrical conductor or the second electrical conductor is configured to pass across a major face of one or more of the at least two adjacent cells, wherein the at least two adjacent cells are arranged in a layer, further wherein the one or more of the first electrical conductor or the second electrical conductor is configured in a loop having a width greater than a distance between a terminal of a first cell and a corresponding terminal of a second cell in the layer.
Torsional vibration damper having a hub part (primary mass) that is able to be fastened to a driveshaft of a motor, and an inertia ring (secondary mass) that surrounds the hub part in the radially outer region, wherein a fluid-filled gap and sealing devices, by means of which the escape of the fluid is intended to be avoided, are provided between the hub part and inertia ring, wherein the sealing devices each have a first ring, tightly connected to the hub part, and each have a second ring, tightly connected to the inertia ring, and each have a sealing element which is made of an elastomer and which is connected in each case sealingly to the first ring on one side and in each case to the second ring on the other side, characterized in that the respective sealing element has been vulcanized onto a respective external axial side of the first and second ring (6, 7) by fastening portions (16, 17).
A human IL-10-expressing CD4+T cell for use in the treatment and/or prevention of a tumor, wherein said tumor expresses CD13, HLA-class I and CD54, wherein said cell has been genetically modified as to overexpress or expresses high levels of IL-10 in respect to a reference cell.
A foundation interface device comprising a cylindrical body arranged to be pulled into an opening in a wall of a subsea foundation, the interface device further comprising a plurality of extendable arms or teeth (24, 44) arranged to engage an inside portion of the wall thereby preventing the interface device from being pulled back out of the opening, characterized in that the arms or teeth each comprise one or more ceramic, galvanic protection contact members (30, 32,34,38) arranged at an end of the arms or teeth and serving as a contact point or points between the arms or teeth and the inside surface of the wall.
A system for monitoring a first wire rope (12; 14; 16; 18) and a second wire rope (12; 14; 16; 18), the first and second wire ropes(12; 14; 16; 18) each including a contact portion that contacts a sheave, a first end portion, and a monitored portion that extends between the contact portion and the first end portion, the sheave electrically connecting the contact portions of the first and second wire ropes (12; 14; 16; 18), the system comprising: a controller that is electrically connected to each of the first and second wire ropes (12; 14; 16; 18) to form a circuit with the monitored portions of the first and second wire ropes (12; 14; 16; 18); wherein the controller selectively applies a signal to the monitored portions of the first and second wire ropes (12; 14; 16; 18) and determines an electrical resistance thereof; wherein the controller uses the determined electrical resistance to determine a condition of the first and second wire ropes (12; 14; 16; 18). a controller that is electrically connected to each of the first and second wire ropes (12; 14; 16; 18) to form a circuit with the monitored portions of the first and second wire ropes (12; 14; 16; 18); wherein the controller selectively applies a signal to the monitored portions of the first and second wire ropes (12; 14; 16; 18) and determines an electrical resistance thereof; wherein the controller uses the determined electrical resistance to determine a condition of the first and second wire ropes (12; 14; 16; 18).
A shift and scan test tube apparatus, comprising: an array of initially aligned racks (350, 352, 354, 356) each comprising a row of spaced apart receptacles for receiving barcode labeled test tubes, each said receptacle having a receptacle window (380, 382) through which a barcode on a received barcode labeled test tube is viewable; each said rack (350, 352, 354, 356) further comprising a plurality of line of sight windows each interposed between two adjacent spaced apart receptacles; and a shifting device (74, 76, 78, 80) for shifting at least one of said racks (3 50, 352, 354, 3 5 6) in said array of initially aligned racks to a shifted position for aligning a plurality of said receptacle windows (380, 382) in at least said one shifted rack with a plurality of line of sight windows in racks remaining in said array of initially aligned racks for viewing barcode labeled test tubes received within said receptacles in said shifted rack through said plurality of line of sight windows aligned with said plurality of receptacle windows (380, 382). an array of initially aligned racks (350, 352, 354, 356) each comprising a row of spaced apart receptacles for receiving barcode labeled test tubes, each said receptacle having a receptacle window (380, 382) through which a barcode on a received barcode labeled test tube is viewable; each said rack (350, 352, 354, 356) further comprising a plurality of line of sight windows each interposed between two adjacent spaced apart receptacles; and a shifting device (74, 76, 78, 80) for shifting at least one of said racks (3 50, 352, 354, 3 5 6) in said array of initially aligned racks to a shifted position for aligning a plurality of said receptacle windows (380, 382) in at least said one shifted rack with a plurality of line of sight windows in racks remaining in said array of initially aligned racks for viewing barcode labeled test tubes received within said receptacles in said shifted rack through said plurality of line of sight windows aligned with said plurality of receptacle windows (380, 382).
Method for cooling a component of a glass melting plant (13, 13'), the component being in contact with a glass melt and having at least one open cavity (14, 14', 14"), wherein a pipe (16, 16', 16", 16"') with an open pipe end (20, 20') at least on one pipe portion is introduced into the cavity (14, 14', 14") in the component, with a peripheral annular space (22, 22') being formed between the outer surface of the pipe (16, 16', 16") and the inner surface of the cavity (14, 14', 14"), and with an axial distance S being maintained between the pipe end and the base of the cavity (14, 14', 14"), and, during operation of the glass melting plant (13, 13', 13"), a cooling medium is conducted through the pipe (16, 16', 16", 16'") into the cavity (14, 14', 14") and is deflected at the base of the cavity, flows back in the annular space (22, 22') and flows out of the cavity (14, 14', 14"), characterized in that the pipe (16, 16', 16", 16'") has a constriction (30, 30') in its pipe portion introduced into the cavity (14, 14', 14") and, in the region of the constriction (30, 30'), has perforations (35, 35') through the pipe wall, as a result of which the cooling medium is accelerated as it passes through the constriction (30, 30') in the pipe interior and a portion of the cooling medium flowing back out of the annular space (22, 22') is sucked into the pipe interior.
A middle or large-sized battery pack configured to have a structure in which two or more battery modules, each comprising a plurality of battery cells or unit modules which can be charged and discharged, are mounted in a space defined between a pack case and a base plate, wherein cooling members, each comprising a heat dissipation fin disposed in contact with outsides of corresponding ones of the battery cells or unit modules and a coolant conduit connected to a lower end of the heat dissipation fin to allow a coolant to flow therealong, are mounted at interfaces between the battery cells or unit modules, the base plate, located below the battery modules, is configured to form a coolant flow channel having one side, one other side and a coolant flow direction corresponding to the coolant flow direction in the coolant conduit, and into which a coolant to remove heat generated from the unit module can be introduced from the one side and can be discharged to the other side, and said coolant being able to flow through the coolant conduits of the respective cooling members, the pack case is coupled to the base plate in a state in which the battery modules are mounted on the base plate, characterized in that each of the cooling members is configured to have a structure in which the coolant conduit is integrally formed at the heat dissipation fin, the coolant conduit of each of the cooling members is configured to have a hollow structure, such as a polygonal hollow structure, an elliptical hollow structure or a circular hollow structure in vertical section, through which the coolant can flow, the coolant conduit of each of the cooling members is formed by bending a plate-shaped member to have the hollow structure in vertical section, a bent end of the coolant conduit being coupled to the heat dissipation fin, and the coolant conduit of each of the cooling members has two or more protrusions formed at an inside of the hollow structure in the flow direction of the coolant so as to maximize a contact area between the coolant conduit and the coolant. cooling members, each comprising a heat dissipation fin disposed in contact with outsides of corresponding ones of the battery cells or unit modules and a coolant conduit connected to a lower end of the heat dissipation fin to allow a coolant to flow therealong, are mounted at interfaces between the battery cells or unit modules, the base plate, located below the battery modules, is configured to form a coolant flow channel having one side, one other side and a coolant flow direction corresponding to the coolant flow direction in the coolant conduit, and into which a coolant to remove heat generated from the unit module can be introduced from the one side and can be discharged to the other side, and said coolant being able to flow through the coolant conduits of the respective cooling members, the pack case is coupled to the base plate in a state in which the battery modules are mounted on the base plate,
A device for measuring solar spectral irradiance comprising: a spherical diffuser (1220,1225) comprising a spherical cavity within an outer body, the spherical cavity coated with a first near Lambertian material; a first aperture of a first predetermined diameter formed in a first predetermined position on the spherical diffuser; a second aperture of a second predetermined diameter formed in a second predetermined position on the spherical diffuser; a plurality of optical filters, each optical filter having a passband of predetermined optical wavelengths; characterized by: a diffuser baffle disposed within the spherical diffuser in a predetermined relationship relative to the first aperture and the second aperture to prevent direct reflective paths from the first aperture to the second aperture, such that a first reflection from the spherical diffuser (1220,1225) to the second aperture at near normal incidence illumination is prevented, the diffuser baffle having a predetermined thickness, is coated with a second near Lambertian material and is disposed on the inner surface of the spherical diffuser and having a geometry defining a predetermined portion of a sphere; a plurality of collimators formed of collimator tubes or collimator apertures (1540,1550), each collimator coupled at one end to the second aperture and defining a maximum angular acceptance angle for a photodetector of a plurality of photodetectors disposed at the distal end of the collimator from that coupled to the second aperture; and the plurality of optical filters, being disposed in combination with a collimator of the plurality of collimators to filter optical signals exiting the second aperture. a spherical diffuser (1220,1225) comprising a spherical cavity within an outer body, the spherical cavity coated with a first near Lambertian material; a first aperture of a first predetermined diameter formed in a first predetermined position on the spherical diffuser; a second aperture of a second predetermined diameter formed in a second a diffuser baffle disposed within the spherical diffuser in a predetermined relationship relative to the first aperture and the second aperture to prevent direct reflective paths from the first aperture to the second aperture, such that a first reflection from the spherical diffuser (1220,1225) to the second aperture at near normal incidence illumination is prevented, the diffuser baffle having a predetermined thickness, is coated with a second near Lambertian material and is disposed on the inner surface of the spherical diffuser and having a geometry defining a predetermined portion of a sphere; a plurality of collimators formed of collimator tubes or collimator apertures (1540,1550), each collimator coupled at one end to the second aperture and defining a maximum angular acceptance angle for a photodetector of a plurality of photodetectors disposed at the distal end of the collimator from that coupled to the second aperture; and the plurality of optical filters, being disposed in combination with a collimator of the plurality of collimators to filter optical signals exiting the second aperture.
A sensing assembly device (100, 200) comprising: a substrate (102, 202); a single pressure chamber above the substrate; a first MEMS piezoelectric gyroscope sensor (104, 204) positioned within the single pressure chamber; and a first MEMS accelerometer (106, 206) positioned within the single pressure chamber, wherein the first MEMS accelerometer (106, 206) and the first MEMS piezoelectric gyroscope sensor (104, 204) are attached to the substrate; and characterized in that the single pressure chamber is pressurized to provide damping to the first MEMS accelerometer (106, 206). a substrate (102, 202); a single pressure chamber above the substrate; a first MEMS piezoelectric gyroscope sensor (104, 204) positioned within the single pressure chamber; and a first MEMS accelerometer (106, 206) positioned within the single pressure chamber,
A motorized bed comprising a self-supporting frame and, in connection with it, a slat bottom on top of which a mattress may be adapted, and a motor (M1, M2) for moving the slat bottom, the slat bottom comprising a plurality of first slats (13a1, 13a2,...) and at least one second slat (13b1, 13b2,...), wherein the second slat (13b1, 13b2,...) is attached to one of the first slats (13a1, 13a2,...) by means of a sleeve member, wherein by changing the position of the sleeve member along the length of the interconnected first and second slats (13a1, 13a2,...; 13b1, 13b2,...) the combined elasticity of the interconnected first and second slats (13a1, 13a2,...; 13b1, 13b2,...) is adjusted, wherein the motorized bed further comprises a strip, that is, a stiffening part which is detachably attached to a surface of the first or second slats (13a1, 13a2,...; 13b1, 13b2,...), wherein the strip locks the first or second slats (13a1, 13a2,...; 13b1, 13b2,...) to each other and adds to the stiffness of the slat bottom at the spot in question, characterised in that the strip comprises a first surface on one side and a second surface on the other side, wherein both surfaces of the strip comprise a layer of adhesive glue (21b, 21c), the first surface of the strip comes against the surface of the first or second slats (13a1, 13a2,...; 13b1, 13b2,...) and the second surface of the strip is configured to lock the mattress into a specific position on the first or second slats (13al, 13a2,...; 13bl, 13b2,...). wherein the motorized bed further comprises a strip, that is, a stiffening part which is detachably attached to a surface of the first or second slats (13a1, 13a2,...; 13b1, 13b2,...), wherein the strip locks the first or second slats (13a1, 13a2,...; 13b1, 13b2,...) to each other and adds to the stiffness of the slat bottom at the spot in question, characterised in that the strip comprises a first surface on one side and a second surface on the other side, wherein both surfaces of the strip comprise a layer of adhesive glue (21b, 21c), the first surface of the strip comes against the surface of the first or second slats (13a1, 13a2,...; 13b1, 13b2,...) and the second surface of the strip is configured to lock the mattress into a specific position on the first or second slats (13al, 13a2,...; 13bl, 13b2,...).