mhurhangee/ep-ind-claims huggingface dataset:
A rehabilitation exercise device for upper and lower limbs, the rehabilitation exercise device comprising: a first support supporting a user's hand or foot; a second support supporting a user's forearm or calf; a pair of first hinges (311, 312) rotatably coupling the first support and the second support to each other; a third support supporting a user's upper arm or thigh; a pair of second hinges (331, 332) configured to be rotated in conjunction with the third support, and to which the second support part is coupled to be rotatable relative thereto; and an angle adjustment part adjusting an angle between the second support and the third support, characterized in that the angle adjustment part comprises: a pair of rotary plates connected to the second support, and shafted to the pair of second hinges (331, 332) so as to be freely rotated with respect to the pair of second hinges (331, 332); a plurality of fixing holes formed along a circumferential direction of each of the pair of rotary plates; an angle fixing lever provided between the pair of second hinges (331, 332), and configured to be reciprocally moved along the direction of the first support; a pair of first transmission links rotatably coupled to the angle fixing lever; and a pair of second transmission links rotatably coupled to the pair of first transmission links, and configured to restrain or release rotation of the pair of rotary plates by being inserted into or released from respective selected fixing holes in response to reciprocating movement of the angle fixing lever. a first support supporting a user's hand or foot; a second support supporting a user's forearm or calf; a pair of first hinges (311, 312) rotatably coupling the first support and the second support to each other; a third support supporting a user's upper arm or thigh; a pair of second hinges (331, 332) configured to be rotated in conjunction with the third support, and to which the second support part is coupled to be rotatable relative thereto; and an angle adjustment part adjusting an angle between the second support and the third support, characterized in that the angle adjustment part comprises: a pair of rotary plates connected to the second support, and shafted to the pair of second hinges (331, 332) so as to be freely rotated with respect to the pair of second hinges (331, 332); a plurality of fixing holes formed along a circumferential direction of each of the pair of rotary plates; an angle fixing lever provided between the pair of second hinges (331, 332), and configured to be reciprocally moved along the direction of the first support; a pair of first transmission links rotatably coupled to the angle fixing lever; and a pair of second transmission links rotatably coupled to the pair of first transmission links, and configured to restrain or release rotation of the pair of rotary plates by being inserted into or released from respective selected fixing holes in response to reciprocating movement of the angle fixing lever.
A transparent laminate structure, comprising: two transparent layers (14, 114, 214) each having an inner face, an outer face (28, 128, 228), and a side edge (26, 126, 226); a transparent interlayer (18, 118, 218) interposed between and laminating the inner faces of the two transparent layers (14, 114, 214) to one another, the transparent interlayer (18, 118, 218) extending over the side edges (26, 126, 226) of the two transparent layers (14, 114, 214); and an inorganic barrier layer (22, 122, 222) laminated to the side edges by the transparent interlayer (18, 118, 218), characterized in that an edge interlayer (20, 120, 220) and the inorganic barrier layer (22, 122, 222) extend past side edges (26, 126, 226) and onto a portion of an exterior face (28, 128, 228) of an outermost transparent layer (14, 114, 214); in that the inorganic barrier layer (22, 122, 222) extends past the transparent interlayer (18, 118, 218) and is bonded or laminated to an outer face (28, 128, 228) of the transparent layers (14, 114, 214), wherein the inorganic barrier layer (22, 122, 222) has a portion that is laminated to the outer faces (28, 128, 228) of the transparent layers (14, 114, 214) and a remaining portion of the inorganic barrier layer (22, 122, 222) remains unlaminated to the outer faces (28, 128, 228). two transparent layers (14, 114, 214) each having an inner face, an outer face (28, 128, 228), and a side edge (26, 126, 226); a transparent interlayer (18, 118, 218) interposed between and laminating the inner faces of the two transparent layers (14, 114, 214) to one another, the transparent interlayer (18, 118, 218) extending over the side edges (26, 126, 226) of the two transparent layers (14, 114, 214); and an inorganic barrier layer (22, 122, 222) laminated to the side edges by the transparent interlayer (18, 118, 218), characterized in that an edge interlayer (20, 120, 220) and the inorganic barrier layer (22, 122, 222) extend past side edges (26, 126, 226) and onto a portion of an exterior face (28, 128, 228) of an outermost transparent layer (14, 114, 214); in that the inorganic barrier layer (22, 122, 222) extends past the transparent interlayer (18, 118, 218) and is bonded or laminated to an outer face (28, 128, 228) of the transparent layers (14, 114, 214), wherein the inorganic barrier layer (22, 122, 222) has a portion that is laminated to the outer faces (28, 128, 228) of the transparent layers (14, 114, 214) and a remaining portion of the inorganic barrier layer (22, 122, 222) remains unlaminated to the outer faces (28, 128, 228).
A cord retaining device (50, 100) for retaining an optical fiber or cord at a desired position along an elevated routing path at a user premises, the device (50, 100) comprising: an elongated bend limiter (52, 102) having an open channel (58, 106) that extends between opposite ends of the bend limiter, wherein the channel is dimensioned and arranged to receive a given cord and to allow the cord to slide freely between the ends of the channel; characterized by an elongated retainer (54, 104) constructed and arranged to overlie the bend limiter, and to close the open channel in the bend limiter when the retainer is secured to the bend limiter so that the given cord is confined inside the channel while remaining free to slide between the opposite ends of the bend limiter so that slack can be removed and the cord tightened before embedding the cord in an adhesive deposited along the routing path; a latch arranged to close the cord retaining device by securing the retainer to the bend limiter; the bend limiter and the retainer are configured to conform in shape with one or more surfaces against which the device is installed at the premises; and a tool attachment part fixed on the device, wherein the tool attachment part is formed and dimensioned for receiving a key of an outside installation tool for installing the device at a desired location along the elevated routing path at the premises when the device is closed with the given cord disposed in the channel in the bend limiter of the device. an elongated bend limiter (52, 102) having an open channel (58, 106) that extends between opposite ends of the bend limiter, wherein the channel is dimensioned and arranged to receive a given cord and to allow the cord to slide freely between the ends of the channel; characterized by an elongated retainer (54, 104) constructed and arranged to overlie the bend limiter, and to close the open channel in the bend limiter when the retainer is secured to the bend limiter so that the given cord is confined inside the channel while remaining free to slide between the opposite ends of the bend limiter so that slack can be removed and the cord tightened before embedding the cord in an adhesive deposited along the routing path; a latch arranged to close the cord retaining device by securing the retainer to the bend limiter; the bend limiter and the retainer are configured to conform in shape with one or more surfaces against which the device is installed at the premises; and a tool attachment part fixed on the device, wherein the tool attachment part is formed and dimensioned for receiving a key of an outside installation tool for installing the device at a desired location along the elevated routing path at the premises when the device is closed with the given cord disposed in the channel in the bend limiter of the device.
A machine frame of a machine for processing plastics or other plastifiable materials, in particular an injection moulding machine and/or its peripheral equipment, with at least one container and at least one motor-pump unit constructed as a rigid constructional unit, for conveying a hydraulic medium from the container into a circular flow, comprising at least one pump and at least one motor, which are coupled together by a means of at least one operative connection means, wherein at least one structural spatial division is provided and the motor-pump unit is so arranged relative to the structural spatial division that the motor-pump unit at least partially penetrates the structural spatial division so that the pump of the motor-pump unit is at least partially, preferably completely, constructively spatially separated from the motor of the motor-pump unit, and wherein the structural spatial division is so implemented and the motor-pump unit is so arranged relative to the structural spatial division that the pump of the motor-pump unit is arranged at least partly, preferably completely, within and simultaneously the motor of the motor-pump unit is arranged at least partly, preferably completely, outside the container, characterised in that for the at least partial mounting of the motor-pump unit there is provided at least one mounting element which is attached decoupled from the container, wherein the mounting element comprises at least one separating element and the structural spatial division is at least partially formed by the separating element.
A sense amplifier (202, 302), comprising: a first differential input stage selectively connectable to differential input/output nodes (DLT, DLC) of the sense amplifier and being adapted to receive a differential signal presented to the differential input/output nodes; a second differential input stage selectively connectable to the differential input/output nodes of the sense amplifier and being adapted to receive the differential signal presented to the differential input/output nodes, the second differential input stage being redundant to the first differential input stage; a load stage operatively connected between a voltage supply of the sense amplifier and at least one of the first and second differential input stages, the load stage being operative to bias at least one of the first and second differential input stages at a prescribed operating point; and a control circuit (210, 214, 250; 304) connected to the first and second differential input stages, the control circuit being operative to selectively enable one of the first and second differential input stages as a function of at least one control signal supplied to the control circuit, the sense amplifier being CHARACTERISED IN THAT second differential input stage is substantially identical to the first differential input stage; and the control circuit is further operative to switch between the first and second differential input stages when an offset of the sense amplifier is greater than a prescribed amount. a first differential input stage selectively connectable to differential input/output nodes (DLT, DLC) of the sense amplifier and being adapted to receive a differential signal presented to the differential input/output nodes; a second differential input stage selectively connectable to the differential input/output nodes of the sense amplifier and being adapted to receive the differential signal presented to the differential input/output nodes, the second differential input stage being redundant to the first differential input stage; a load stage operatively connected between a voltage supply of the sense amplifier and at least one of the first and second differential input stages, the load stage being operative to bias at least one of the first and second differential input stages at a prescribed operating point; and a control circuit (210, 214, 250; 304) connected to the first and second differential input stages, the control circuit being operative to selectively enable one of the first and second differential input stages as a function of at least one control signal supplied to the control circuit,
Pressure sensor, - wherein said sensor comprises a ceramic pressure measuring cell, wherein said cell is clamped in the pressure sensor via the insertion of a seal that seals off an interior area of the pressure sensor towards the outside and can be subjected to a pressure (p) to be measured via an opening, and - whose seal comprises a foil made from a thermoplastic material and clamped between a rigid, planar sealing surface of the pressure measuring cell and a rigid sealing surface (27, 27') of a counter-body surrounding the outside of the opening, said foil extending in the axial direction, perpendicularly to the planes of the sealing surfaces (25, 27), characterized in that - the foil comprises a first foil segment, which is clamped between the sealing surface of the pressure measuring cell and the sealing surface (27, 27') of the counter-body (19, 19'), and - the foil comprises a second foil segment, -- which extends over a lateral surface of the counter-body (19, 19'), said surface being different to the sealing surface (27, 27'), and -- which is connected on the lateral surface with the counter-body (19, 19') via a connecting layer arranged on the lateral surface, said layer being made from a material that serves as a bonding agent for the material of the foil. - wherein said sensor comprises a ceramic pressure measuring cell, wherein said cell is clamped in the pressure sensor via the insertion of a seal that seals off an interior area of the pressure sensor towards the outside and can be subjected to a pressure (p) to be measured via an opening, and - whose seal comprises a foil made from a thermoplastic material and clamped between a rigid, planar sealing surface of the pressure measuring cell and a rigid sealing surface (27, 27') of a counter-body surrounding the outside of the opening, said foil extending in the axial direction, perpendicularly to the planes of the sealing surfaces (25, 27), characterized in that - the foil comprises a first foil segment, which is clamped between the sealing surface of the pressure measuring cell and the sealing surface (27, 27') of the counter-body (19, 19'), and - the foil comprises a second foil segment, -- which extends over a lateral surface of the counter-body (19, 19'), said surface being different to the sealing surface (27, 27'), and -- which is connected on the lateral surface with the counter-body (19, 19') via a connecting layer arranged on the lateral surface, said layer being made from a material that serves as a bonding agent for the material of the foil. -- which extends over a lateral surface of the counter-body (19, 19'), said surface being different to the sealing surface (27, 27'), and -- which is connected on the lateral surface with the counter-body (19, 19') via a connecting layer arranged on the lateral surface, said layer being made from a material that serves as a bonding agent for the material of the foil.
A component for a gas turbine engine, the component comprising: a platform; a first airfoil extending from the platform; a first cavity located within the first airfoil, the first cavity includes a forward portion and an aft portion separated by a divider; a cover plate attached to the platform on a side opposite the airfoil, wherein a platform cavity is defined between the cover plate and the platform and wherein the first cavity is fluidly connected to the platform cavity through a first cavity inlet; and a first cavity separating rail dividing the platform cavity into a first platform forward cavity and a first platform aft cavity, characterized in that the first platform forward cavity is fluidly connected only to the aft portion the first cavity and the first platform aft cavity is fluidly connected only to the forward portion of the first cavity. a platform; a first airfoil extending from the platform; a first cavity located within the first airfoil, the first cavity includes a forward portion and an aft portion separated by a divider; a cover plate attached to the platform on a side opposite the airfoil, wherein a platform cavity is defined between the cover plate and the platform and wherein the first cavity is fluidly connected to the platform cavity through a first cavity inlet; and a first cavity separating rail dividing the platform cavity into a first platform forward cavity and a first platform aft cavity, characterized in that the first platform forward cavity is fluidly connected only to the aft portion the first cavity and the first platform aft cavity is fluidly connected only to the forward portion of the first cavity.
An optical detector, comprising: an array of cells; and a recharge circuit (222, 224) configured to apply a recharge signal to groups of cells of the array; wherein each cell includes: a single-photon avalanche diode (SPAD) reverse-biased above a breakdown voltage of the SPAD; trigger logic connected to the SPAD, and configured to output a trigger signal indicating whether the SPAD is in breakdown; and a conditional recharge circuit (220, 310) characterized in that the conditional recharge circuit (220, 310) is configured to recharge the SPAD conditional upon both (i) the recharge circuit applying the recharge signal to the cell and (ii) the trigger signal output by the trigger logic of the cell indicating the SPAD of the cell is in breakdown. an array of cells; and a recharge circuit (222, 224) configured to apply a recharge signal to groups of cells of the array; wherein each cell includes: a single-photon avalanche diode (SPAD) reverse-biased above a breakdown voltage of the SPAD; trigger logic connected to the SPAD, and configured to output a trigger signal indicating whether the SPAD is in breakdown; and a conditional recharge circuit (220, 310) characterized in that the conditional recharge circuit (220, 310) is configured to recharge the SPAD conditional upon both (i) the recharge circuit applying the recharge signal to the cell and (ii) the trigger signal output by the trigger logic of the cell indicating the SPAD of the cell is in breakdown. a single-photon avalanche diode (SPAD) reverse-biased above a breakdown voltage of the SPAD; trigger logic connected to the SPAD, and configured to output a trigger signal indicating whether the SPAD is in breakdown; and a conditional recharge circuit (220, 310) characterized in that the conditional recharge circuit (220, 310) is configured to recharge the SPAD conditional upon both (i) the recharge circuit applying the recharge signal to the cell and (ii) the trigger signal output by the trigger logic of the cell indicating the SPAD of the cell is in breakdown.
A vaccine composition for use in a method for the prevention and treatment of a neurological disorder associated with Δß plaque accumulation, the vaccine composition comprising a covalent conjugate consisting of Aβ1-15 (SEQ ID NO: 9) and the HSP60 peptide p458h (SEQ ID NO: 1), and a pharmaceutically acceptable carrier, excipient or diluent.
A computer-implemented method comprising: determining a location of a subject drill-well site; identifying drill-well data for a plurality of drill-wells positioned within a threshold geographic area relative to the location of the subject drill-well site; generating, utilizing the drill-well data for the plurality of drill-wells, formation-top trends for portions of the threshold geographic area located between respective positions of the plurality of drill-wells; and determining, from the formation-top trends, formation-top depths for formations corresponding to the location of the subject drill-well site. determining a location of a subject drill-well site; identifying drill-well data for a plurality of drill-wells positioned within a threshold geographic area relative to the location of the subject drill-well site; generating, utilizing the drill-well data for the plurality of drill-wells, formation-top trends for portions of the threshold geographic area located between respective positions of the plurality of drill-wells; and determining, from the formation-top trends, formation-top depths for formations corresponding to the location of the subject drill-well site.
A material property gauge (100, 400, 500, 1200, 1700, 1800) for determining a property of construction material (106, 402, 1214), the material property gauge (100, 400, 500, 1200, 1700, 1800) comprising: an electromagnetic source (134, 1204) comprising a component of the material property gauge (100, 400, 500, 1200, 1700, 1800); an electromagnetic sensor (132, 143, 416, 508, 1202) operable to measure a response of construction material (106, 200, 402, 1012, 1214) to an electromagnetic field generated by the electromagnetic source (134, 1204) and operable to produce a signal representing the measured response by the construction material (106, 200, 402, 1012, 1214) to the electromagnetic field; an acoustic source (166, 182, 1210) comprising a component of the material property gauge (100, 400, 500, 1200, 1700, 1800) distinct from the electromagnetic source (134, 1204) for directing acoustical energy into the construction material (106, 200, 402, 1012, 1214); an acoustic detector (124, 126, 164, 170, 418, 514, 516, 1206, 1208) operable to detect a response of the construction material (106, 200, 402, 1012, 1214) to acoustical energy generated by the acoustic source (166, 182, 1210) and operable to produce a signal representing the detected response by the construction material (106, 200, 402, 1012, 1214) to the acoustical energy; and a material property calculation function configured to calculate a property value associated with the construction material (106, 200, 402, 1012, 1214) based upon the signals produced by the electromagnetic sensor (132, 143, 416, 508, 1202) and the acoustic detector (124, 126, 164, 170, 418, 514, 516, 1206, 1208). an electromagnetic source (134, 1204) comprising a component of the material property gauge (100, 400, 500, 1200, 1700, 1800); an electromagnetic sensor (132, 143, 416, 508, 1202) operable to measure a response of construction material (106, 200, 402, 1012, 1214) to an electromagnetic field generated by the electromagnetic source (134, 1204) and operable to produce a signal representing the measured response by the construction material (106, 200, 402, 1012, 1214) to the electromagnetic field; an acoustic source (166, 182, 1210) comprising a component of the material property gauge (100, 400, 500, 1200, 1700, 1800) distinct from the electromagnetic source (134, 1204) for directing acoustical energy into the construction material (106, 200, 402, 1012, 1214); an acoustic detector (124, 126, 164, 170, 418, 514, 516, 1206, 1208) operable to detect a response of the construction material (106, 200, 402, 1012, 1214) to acoustical energy generated by the acoustic source (166, 182, 1210) and operable to produce a signal representing the detected response by the construction material (106, 200, 402, 1012, 1214) to the acoustical energy; and a material property calculation function configured to calculate a property value associated with the construction material (106, 200, 402, 1012, 1214) based upon the signals produced by the electromagnetic sensor (132, 143, 416, 508, 1202) and the acoustic detector (124, 126, 164, 170, 418, 514, 516, 1206, 1208).