mhurhangee/ep-ind-claims huggingface dataset:
A friction hinge system comprising: a housing (102, 202, 302, 402) having an outer surface and having an inner surface that defines a substantially cylindrical opening and a longitudinal slot; and a torque element assembly comprising a shaft and at least one torque element (34, 234, 334, 434, 534) stacked along the shaft and configured substantially within the opening of the housing (102, 202, 302, 402); the at least one torque element (34, 234, 334, 434, 534) comprising arms (40, 240, 340, 440, 540) and feet (42, 242, 342, 442, 542) and configured such that at least a portion of the feet (42, 242, 342, 442, 542) extend through the slot in the housing (102, 202, 302, 402) so that the housing engages at least some portion of the at least one torque element (34, 234, 334, 434, 534) thereby securing the at least one torque element (34, 234, 334, 434, 534) relative to the housing (102, 202, 302, 402), wherein the friction hinge system is further configured such that there is clearance between the arms (40, 240, 340, 440, 540) and the housing (102, 202, 302, 402) such that torque generated by relative rotation of the shaft and the at least one torque element (34, 234, 334, 434, 534) is unaffected by the housing (102,202,302,402). a housing (102, 202, 302, 402) having an outer surface and having an inner surface that defines a substantially cylindrical opening and a longitudinal slot; and a torque element assembly comprising a shaft and at least one torque element (34, 234, 334, 434, 534) stacked along the shaft and configured substantially within the opening of the housing (102, 202, 302, 402); the at least one torque element (34, 234, 334, 434, 534) comprising arms (40, 240, 340, 440, 540) and feet (42, 242, 342, 442, 542) and configured such that at least a portion of the feet (42, 242, 342, 442, 542) extend through the slot in the housing (102, 202, 302, 402) so that the housing engages at least some portion of the at least one torque element (34, 234, 334, 434, 534) thereby securing the at least one torque element (34, 234, 334, 434, 534) relative to the housing (102, 202, 302, 402),
A compound of Formula, or a pharmaceutically acceptable salt or deuterated derivative thereof: wherein, R represents a hydrogen atom and n has a value of 1, A 1 and A 2 independently represent a direct bond or a C 1-6 alkylene group optionally substituted with a methyl group, X together with Y form the group -CH=CH-, -CH 2 -CH 2 - or -CH 2 -O-, L is selected from the group consisting of a direct bond, -O-, -NR c O-, - O(CH 2) NR c -, -NR c -(CH 2) 4 NR c -, -NR c -, -CH 2 -NR c -, - NR c -and -NH NH-, wherein R c represents a hydrogen atom or a methyl group, G represents a direct bond, a phenylene group, a pyridyl group, a cyclobutyl group, a cylohexyl group or a group of formula: wherein V and Z independently are selected from the group consisting of -N-, -NH-, -C-, -O- and -S-, and W represents a -N-, -NH-, -C-, or a -C - group, and wherein the phenylene group, pyridyl group, cyclobutyl group, cylohexyl group and the group of formula (Iwa) are independently optionally substituted with one or two substituents selected from a chlorine atom, methyl group and methoxy group, R 1 represents a group of formula: wherein both R 2 and R 3 are indenpendently selected from a hydrogen atom, a methyl group, a hexyl group and a propyl group substituted with a phenyl group and R' represents a hydrogen atom or a methyl group.
A power supply system that supplies power to a load by using a plurality of different power generation equipment (100, 200) capable of being connected to a grid and including an islanding prevention function individually, the power supply system comprising: a path switching means that switches a power supply path (12, 13, 14, 15) between the plurality of power generation equipment (100, 200) and the load so that at least a part of output power of each one of the plurality of different power generation equipment is supplied to another of the plurality of different power generation equipment (100, 200) during a power failure or power instability in the grid. a path switching means that switches a power supply path (12, 13, 14, 15) between the plurality of power generation equipment (100, 200) and the load so that at least a part of output power of each one of the plurality of different power generation equipment is supplied to another of the plurality of different power generation equipment (100, 200) during a power failure or power instability in the grid.
A platform, comprising: a substrate; a first Integrated Circuit, IC, mounted to the substrate; a photonic integrated circuit mounted to the substrate; a second IC mounted to the photonic integrated circuit, the photonic integrated circuit being mounted between the second IC and the substrate; a first frame lid mounted to the substrate and defining a cavity with the substrate that encapsulates the first IC, the photonic integrated circuit, and the second IC, the first frame lid comprising: a first roof disposed in a first plane parallel to the substrate, the first roof defining a port providing access to the second IC through the first roof; a foot disposed in a second plane parallel to the first plane and connected to the substrate; a wall, connecting the first roof to the foot; and an opening in the wall arranged to allow an optical fiber to pass through the wall to connect to the photonic integrated circuit; the platform further comprising a second frame lid mounted to the first roof via a thermal isolator and extending through the port to be in thermal contact with the second IC. a substrate; a first Integrated Circuit, IC, mounted to the substrate; a photonic integrated circuit mounted to the substrate; a second IC mounted to the photonic integrated circuit, the photonic integrated circuit being mounted between the second IC and the substrate; a first frame lid mounted to the substrate and defining a cavity with the substrate that encapsulates the first IC, the photonic integrated circuit, and the second IC, the first frame lid comprising: a first roof disposed in a first plane parallel to the substrate, the first roof defining a port providing access to the second IC through the first roof; a foot disposed in a second plane parallel to the first plane and connected to the substrate; a wall, connecting the first roof to the foot; and an opening in the wall arranged to allow an optical fiber to pass through the wall to connect to the photonic integrated circuit; a first roof disposed in a first plane parallel to the substrate, the first roof defining a port providing access to the second IC through the first roof; a foot disposed in a second plane parallel to the first plane and connected to the substrate; a wall, connecting the first roof to the foot; and an opening in the wall arranged to allow an optical fiber to pass through the wall to connect to the photonic integrated circuit;
Pulling head for parallel trenchless pipe and/or cable laying in the ground, comprising a front connection element (104, 140') for coupling the pulling head to a pulling device in a pilot drill hole or to a drilling device for a pilot drill hole and at least two rear connection elements (106, 106', 106") for coupling the pulling head to a pipe or cable which is intended to be laid, respectively, wherein at least one of the rear connection elements (106, 106') is arranged offset with respect to the front connection element (104, 104') in a parallel manner transversely relative to a pulling direction, wherein the pulling head has between at least one rear connection element (106, 106') and the front connection element (104, 104') a passage region which is permeable to ground material which is displaced during laying from a region beside the pilot drill hole between the rear connection elements (106, 106', 106").
A motion control system comprising: a mounting element coupled to a support member; a two-axis coupling (400, 500) having a first input shaft coupled to a first drive mechanism and a second input shaft coupled to a second drive mechanism, the second input shaft including a channel extending through the second input shaft; the support member extending through and is guided by the channel, and where the support member is coupled to and driven by the first input shaft via a first input shaft coupling; and a control input controlling a position of the first and second input shafts. a mounting element coupled to a support member; a two-axis coupling (400, 500) having a first input shaft coupled to a first drive mechanism and a second input shaft coupled to a second drive mechanism, the second input shaft including a channel extending through the second input shaft; the support member extending through and is guided by the channel, and where the support member is coupled to and driven by the first input shaft via a first input shaft coupling; and a control input controlling a position of the first and second input shafts.
A braking system, especially wedge-actuated drum brakes, comprising a brake shoe and a wedge unit, wherein the brake shoe comprises a first linking element, wherein the wedge unit comprises a screw element, which is arranged able to turn about an axis of rotation on the wedge unit, wherein the brake shoe comprises a force transmitting portion, which transmits a braking force applied by the wedge unit to the brake shoe, wherein a second linking element is provided, wherein the first linking element and the second linking element each comprise a securing portion, which secures the screw element against being twisted about the axis of rotation, wherein the securing portions are configured and oriented preferably plane symmetrical to a plane situated between the first and the second linking elements (2, 3).
Control unit for a vehicle comprising a circuit board, wherein electronic components are arranged on the circuit board, wherein the control unit has mechanical tamperproofing, by means of which individual components or a plurality of components on the circuit board can be damaged and/or the circuit board itself can be damaged, characterized in that the tamperpoofing comprises at least one shearing off device, and the components on the circuit board can be sheared off by means of the shearing off device.
A pharmacologic agent linked to a tat peptide for use in the treatment or prophylaxis of disease wherein a mast cell degranulation inhibitor or anti-histamine that inhibits an inflammatory response due to mast cell degranulation inducible by the tat peptide is administered with the pharmacological agent.
A welding fixture for releasably engaging a weldable object, the fixture comprising: a support body; a receiver coupled to the support body, the receiver comprising an internal chamber configured to receive the weldable object; and characterized in that the fixture comprises at least one fluid delivery tube disposed along at least a portion of the receiver. a support body; a receiver coupled to the support body, the receiver comprising an internal chamber configured to receive the weldable object; and characterized in that the fixture comprises at least one fluid delivery tube disposed along at least a portion of the receiver.
An implant for improving coaptation of an atrioventricular valve, the atrioventricular valve having a native first leaflet, a native second leaflet and an annulus, the implant comprising a support structure configured to be arranged on and fixed to the annulus or to at least one of the first and second native first leaflets, the implant further comprising retention means (36,37) fixed to the support structure so as to prevent prolapse of the at least one native leaflet, wherein the support structure comprises an upper support element to be arranged on a superior surface of the annulus or of the at least one native leaflet and a lower support element to be arranged on an inferior surface of the annulus or of the at least one native leaflet, the upper and the lower support elements (17,18) each comprising connection means (32,33) cooperating which each other for interconnecting the upper and the lower support element (17,18) while clamping a section of the annulus or of the at least one native leaflet between the upper support element and the lower support element, wherein at least one connection means (32,33) comprises a penetrating section configured to penetrate the annulus or the at least one native leaflet for being connected with the other connection means (32,33), characterized in that at least one fixation element (39,49) is provided for fixing the retention means to the native leaflet at a distance from the support structure, wherein the retention means comprise an artificial leaflet connected to the upper support element and/or a plurality of flexible wires or yarns and wherein the fixation element extends in the circumferential direction of the leaflet or the annulus and comprises a plurality of positioning points for positioning wires or yarns or the artificial leaflet relative to the fixation element, said plurality of positioning points being spaced from each other in said circumferential direction, wherein the retention means (36,37), on one end thereof, are connected to the lower support structure and, on the other end thereof, are connected to the upper support structure.
A yarn feeding device for a knitting machine, having a servo-motor for driving a roller from which a length of yarn corresponding to the yarn speed is fed out on the basis of knitting data input into the knitting machine to a rotatable buffer for intermediately storing the yarn fed out from the roller and supplying the yarn to the knitting machine, wherein the yarn feeding device comprises: a torque generator for applying a variable torque to the buffer; a yarn speed calculator for obtaining yarn speeds at plural sections in a knitting course from a loop length of a stitch for each knitting needle and a knitting speed calculated based on the knitting data; and wherein the yarn feeding device is characterized by further comprising conversion means for converting, at the plural sections in the knitting course, the plurality of yarn speeds into a plurality of torques to be applied to the buffer so as to correct yarn tension fluctuation caused by the changes in the yarn speed; and a torque controller controlling the torque generator at the plural sections in the knitting course so that the torque applied to the buffer is the torque obtained by the conversion means. a torque generator for applying a variable torque to the buffer; a yarn speed calculator for obtaining yarn speeds at plural sections in a knitting course from a loop length of a stitch for each knitting needle and a knitting speed calculated based on the knitting data; and wherein the yarn feeding device is characterized by further comprising conversion means for converting, at the plural sections in the knitting course, the plurality of yarn speeds into a plurality of torques to be applied to the buffer so as to correct yarn tension fluctuation caused by the changes in the yarn speed; and a torque controller controlling the torque generator at the plural sections in the knitting course so that the torque applied to the buffer is the torque obtained by the conversion means. conversion means for converting, at the plural sections in the knitting course, the plurality of yarn speeds into a plurality of torques to be applied to the buffer so as to correct yarn tension fluctuation caused by the changes in the yarn speed; and a torque controller controlling the torque generator at the plural sections in the knitting course so that the torque applied to the buffer is the torque obtained by the conversion means.
Pad for the use in the nursing care and hospital sector, comprising - a liquid-impermeable and elastic lower layer (3; 3a; 3b), - a liquid-permeable and elastic upper layer (4; 4a; 4b) arranged on the lower layer (3; 3a; 3b), - an outer casing covering the lower layer (3; 3a; 3b) and the upper layer (4; 4a; 4b) comprising -- a liquid-impermeable outer casing lower part facing the lower layer (3; 3a; 3b), wherein the outer casing lower part is configured in the form of a trough, and -- a liquid-permeable outer casing upper part facing the upper layer (4; 4a; 4b), wherein the upper layer (4; 4a; 4b) has at least one warp-knitted spacer fabric or weft-knitted spacer fabric (12; 12a, 23; 12b), which has two covering layers connected to one another by spacer threads, wherein the spacer threads form thread groups running in a plane, with an IXI-shape. - a liquid-impermeable and elastic lower layer (3; 3a; 3b), - a liquid-permeable and elastic upper layer (4; 4a; 4b) arranged on the lower layer (3; 3a; 3b), - an outer casing covering the lower layer (3; 3a; 3b) and the upper layer (4; 4a; 4b) comprising -- a liquid-impermeable outer casing lower part facing the lower layer (3; 3a; 3b), wherein the outer casing lower part is configured in the form of a trough, and -- a liquid-permeable outer casing upper part facing the upper layer (4; 4a; 4b), -- a liquid-impermeable outer casing lower part facing the lower layer (3; 3a; 3b), wherein the outer casing lower part is configured in the form of a trough, and -- a liquid-permeable outer casing upper part facing the upper layer (4; 4a; 4b),
A method comprising: receiving, by a satellite having a remote sensing platform, a base map comprising a first geographical distribution of information, wherein the base map comprises one or more identified objects of the first geographical distribution of information; detecting, by the satellite using the remote sensing platform, a second geographical distribution of information; determining, by the satellite, difference information representing a difference between the second geographical distribution of information and the first geographical distribution of information, wherein determining the difference information comprises identifying one or more additional objects in the second geographical distribution of information that are not in the first geographical distribution of information, or identifying movement of one or more of the identified objects between the first geographical distribution of information and the second geographical distribution of information, or identifying one or more of the identified objects as one or more omitted objects that are not in the second geographical distribution of information, or a combination thereof; and transmitting, by the satellite to a ground station via a communication link (160, 140), the difference information. receiving, by a satellite having a remote sensing platform, a base map comprising a first geographical distribution of information, wherein the base map comprises one or more identified objects of the first geographical distribution of information; detecting, by the satellite using the remote sensing platform, a second geographical distribution of information; determining, by the satellite, difference information representing a difference between the second geographical distribution of information and the first geographical distribution of information, wherein determining the difference information comprises identifying one or more additional objects in the second geographical distribution of information that are not in the first geographical distribution of information, or identifying movement of one or more of the identified objects between the first geographical distribution of information and the second geographical distribution of information, or identifying one or more of the identified objects as one or more omitted objects that are not in the second geographical distribution of information, or a combination thereof; and transmitting, by the satellite to a ground station via a communication link (160, 140), the difference information.
A power module comprising: an insulating layer; a lead frame (1, 5) disposed on an upper surface of the insulating layer; a semiconductor chip disposed on an upper surface of the lead frame (1, 5); and the insulating layer consists of a relatively-hard insulating layer disposed so as to be contacted with the lead frame (1, 5) and of a relatively-soft insulating layer directly disposed on a surface opposite to the lead frame (1, 5) of the relatively-hard insulating layer, a mold resin formed so as to cover the semiconductor chip, at least a part of the lead frame (1, 5), and at least a part of the insulating layer so that a part of respective side surfaces of the relatively-hard insulating layer and a bottom surface of the relatively-soft insulating layer are exposed from the mold resin, wherein the relatively-hard insulating layer being harder than A40 in durometer hardness and the relatively-soft insulating layer being softer than A40 in durometer hardness. an insulating layer; a lead frame (1, 5) disposed on an upper surface of the insulating layer; a semiconductor chip disposed on an upper surface of the lead frame (1, 5); and the insulating layer consists of a relatively-hard insulating layer disposed so as to be contacted with the lead frame (1, 5) and of a relatively-soft insulating layer directly disposed on a surface opposite to the lead frame (1, 5) of the relatively-hard insulating layer, a mold resin formed so as to cover the semiconductor chip, at least a part of the lead frame (1, 5), and at least a part of the insulating layer so that a part of respective side surfaces of the relatively-hard insulating layer and a bottom surface of the relatively-soft insulating layer are exposed from the mold resin, wherein the relatively-hard insulating layer being harder than A40 in durometer hardness and the relatively-soft insulating layer being softer than A40 in durometer hardness.