mhurhangee/ep-ind-claims huggingface dataset:
A rigid joint assembly comprising a first cable core end section of a first electric cable, and a second cable core end section of a second electric cable, said respective first and second cable core end section comprising an electrical cable core comprising at least an inner electric conductor and an insulation system comprising at least an inner semi-conducting layer, an insulation layer and an outer semi-conducting layer, said rigid joint assembly further comprising a joint connection inside of which the electrical cable core of the first cable core end section of the first electric cable is jointed with the electrical cable core of the second cable core end section of the second electric cable, the rigid joint assembly further comprising a water tight metal casing assembly surrounding the joint connection, which casing assembly comprises a casing body and inner cable entry parts (32; 132) at opposite ends of the casing assembly, wherein the rigid joint assembly further comprises: - first and second outer cable entry parts (33; 133) located at opposite ends of the casing assembly outside the casing assembly, the outer cable entry parts (33; 133) comprising a respective opening (34; 134) for receiving the respective cable core end section (12; 112) of the first cable and second cable, characterised in: - first and second cable insulation system deformation preventing devices (40; 140), each comprising a rigid pipe (41; 141), which surrounds the respective first or second cable core end section (12; 112) in the respective outer cable entry part (33; 133), and a bedding material layer (45; 145) which extends at least partially along a length of an inner surface of the respective rigid pipe (41; 141), and - first and second grooved pipes (51; 151) of elastic material comprising a plurality of grooves (53; 153) on the side facing the cable, each grooved pipe (51; 151) surrounding the respective first or second cable core end section (12; 112) at the respective inner cable entry part (32; 132) inside the casing assembly. - first and second outer cable entry parts (33; 133) located at opposite ends of the casing assembly outside the casing assembly, the outer cable entry parts (33; 133) comprising a respective opening (34; 134) for receiving the respective cable core end section (12; 112) of the first cable and second cable, - first and second cable insulation system deformation preventing devices (40; 140), each comprising a rigid pipe (41; 141), which surrounds the respective first or second cable core end section (12; 112) in the respective outer cable entry part (33; 133), and a bedding material layer (45; 145) which extends at least partially along a length of an inner surface of the respective rigid pipe (41; 141), and - first and second grooved pipes (51; 151) of elastic material comprising a plurality of grooves (53; 153) on the side facing the cable, each grooved pipe (51; 151) surrounding the respective first or second cable core end section (12; 112) at the respective inner cable entry part (32; 132) inside the casing assembly.
A method performed by a cloud controller for migrating resources within a cloud network, the method comprising: receiving performance metrics from at least one device within the cloud network; analyzing the performance metrics to generate at least one application requirement, wherein the at least one application requirement indicates a recent performance associated with a resource provisioned for a customer, wherein the resource is supported by a first device within the cloud network; identifying (750, 760, 765) a second device within the cloud network to support the resource based on the at least one application requirement; wherein identifying (750, 760, 765) a second device within the cloud network to support the resource based on the at least one application requirement comprises determining based on performance metrics reported by the second device that migration of the resource to the second device will violate the at least one application requirement by less than a predetermined amount; and migrating the resource from the first device to the second device. receiving performance metrics from at least one device within the cloud network; analyzing the performance metrics to generate at least one application requirement, wherein the at least one application requirement indicates a recent performance associated with a resource provisioned for a customer, wherein the resource is supported by a first device within the cloud network; identifying (750, 760, 765) a second device within the cloud network to support the resource based on the at least one application requirement; wherein identifying (750, 760, 765) a second device within the cloud network to support the resource based on the at least one application requirement comprises determining based on performance metrics reported by the second device that migration of the resource to the second device will violate the at least one application requirement by less than a predetermined amount; and migrating the resource from the first device to the second device.
An insole for footwear comprising: a base layer comprising: a variable thickness layer having variable thickness configured to control stiffness of the insole in different zones, wherein the variable thickness layer comprises a first portion having a first thickness and a second portion having a second thickness that is different than the first thickness; a directional stiffness layer comprising one or more patterns configured to generate a first flexibility in one direction and a second flexibility in a second direction that is different than the first direction; a stability layer; and a reinforcement layer providing additional strength in a heel area of the insole subject to high tensile forces at heel impact or configured to provide support in response to tensile forces from rotation of the base layer at the heel area of the insole, wherein the reinforcement layer comprises a first portion extending along a lateral side of the base layer. a variable thickness layer having variable thickness configured to control stiffness of the insole in different zones, wherein the variable thickness layer comprises a first portion having a first thickness and a second portion having a second thickness that is different than the first thickness; a directional stiffness layer comprising one or more patterns configured to generate a first flexibility in one direction and a second flexibility in a second direction that is different than the first direction; a stability layer; and a reinforcement layer providing additional strength in a heel area of the insole subject to high tensile forces at heel impact or configured to provide support in response to tensile forces from rotation of the base layer at the heel area of the insole, wherein the reinforcement layer comprises a first portion extending along a lateral side of the base layer.
A wavelength division multiplexing system comprising: a wavelength division multiplexing transmission path comprising a multimode optical fiber that comprises a core made of silica-based glass codoped with germanium and fluorine, and a cladding made of silica glass or fluorine-doped silica glass, wherein the multimode optical fiber provides an overfilled-launch bandwidth of 1.5 GHz·km or higher for a single transmitted therethrough at any wavelength between approximately 720 nm and approximately 1400 nm, and the multimode optical fiber has a refractive index profiles as follows: n r = { n 1 1 − 2 Δ r a α 1 / 2 0 ≤ r ≤ a n 1 1 − 2 Δ 1 / 2 r > a where n(r) is a refractive index of the multimode optical fiber at a distance "r" from a center of the core, n 1 is a refractive index at a center of the core, Δ is a refractive index difference of the center of the core with respect to the cladding, "a" is a core radius, and α is a refractive index profile exponential parameter, and Δ is Δ 1 +Δ 2, and Δ 1 /Δ 2 is between 1/1 and 0/1 or Δ 1 /Δ 2 is 1/4, where Δ 1 is a relative refractive index difference of germanium with respect to the cladding and Δ 2 is a relative refractive index difference of fluorine with respect to the cladding. a wavelength division multiplexing transmission path comprising a multimode optical fiber that comprises a core made of silica-based glass codoped with germanium and fluorine, and a cladding made of silica glass or fluorine-doped silica glass, wherein the multimode optical fiber provides an overfilled-launch bandwidth of 1.5 GHz·km or higher for a single transmitted therethrough at any wavelength between approximately 720 nm and approximately 1400 nm, and the multimode optical fiber has a refractive index profiles as follows: n r = { n 1 1 − 2 Δ r a α 1 / 2 0 ≤ r ≤ a n 1 1 − 2 Δ 1 / 2 r > a where n(r) is a refractive index of the multimode optical fiber at a distance "r" from a center of the core, n 1 is a refractive index at a center of the core, Δ is a refractive index difference of the center of the core with respect to the cladding, "a" is a core radius, and α is a refractive index profile exponential parameter, and Δ is Δ 1 +Δ 2, and Δ 1 /Δ 2 is between 1/1 and 0/1 or Δ 1 /Δ 2 is 1/4, where Δ 1 is a relative refractive index difference of germanium with respect to the cladding and Δ 2 is a relative refractive index difference of fluorine with respect to the cladding.
An electric walking assisting vehicle comprising: a vehicle body having a forward-backward direction and a width direction; left and right driving wheels (4L,4R) provided spaced apart in the width direction of the vehicle body; left and right motors (40L,40R) connected so as to respectively transmit power to the left and right driving wheels (4L,4R); universal wheels provided spaced apart from the left and right driving wheels (4L,4R) in the forward-backward direction of the vehicle body; a gripping part provided in an upper portion of the vehicle body so as to be gripped by a user in a standing and walking posture; a gripping sensor for detecting that the gripping part is gripped by the user; left and right rotation speed sensors for individually detecting rotation speeds of the left and right driving wheels (4L,4R); and a control unit for controlling the left and right motors (40L,40R), wherein the control unit is configured to generate torque in the left and right motors (40L,40R), characterized in that the left and right motors (40L,40R) are controlled in accordance with a torque map which defines relationships between the rotation speeds of the left and right driving wheels (4L,4R) detected by the left and right rotation speed sensors and torque command values of the left and right motors (40L,40R) in a state in which the gripping sensor is detecting the gripping. a vehicle body having a forward-backward direction and a width direction; left and right driving wheels (4L,4R) provided spaced apart in the width direction of the vehicle body; left and right motors (40L,40R) connected so as to respectively transmit power to the left and right driving wheels (4L,4R); universal wheels provided spaced apart from the left and right driving wheels (4L,4R) in the forward-backward direction of the vehicle body; a gripping part provided in an upper portion of the vehicle body so as to be gripped by a user in a standing and walking posture; a gripping sensor for detecting that the gripping part is gripped by the user; left and right rotation speed sensors for individually detecting rotation speeds of the left and right driving wheels (4L,4R); and a control unit for controlling the left and right motors (40L,40R), wherein the control unit is configured to generate torque in the left and right motors (40L,40R), characterized in that the left and right motors (40L,40R) are controlled in accordance with a torque map which defines relationships between the rotation speeds of the left and right driving wheels (4L,4R) detected by the left and right rotation speed sensors and torque command values of the left and right motors (40L,40R) in a state in which the gripping sensor is detecting the gripping.
A method of performing a mixed-width single instruction multiple data (SIMD) operation, the method comprising: receiving, by a processor, a SIMD instruction which specifies: a single source vector operand comprising a first set of source data elements of a first bit-width; and a destination vector operand comprising destination data elements of a second bit-width, wherein the second bit-width is twice the first bit-width, wherein the single source vector operand is expressed as a single register, and the destination vector operand is expressed as a pair of registers including a first register comprising a first subset of the destination data elements and a second register comprising a second subset of the destination data elements; and based on a sequential order of the first set of source data elements, executing the SIMD instruction in the processor, comprising: generating the first subset of destination data elements in the first register from even-numbered source data elements of the first set; and generating the second subset of destination data elements in the second register from odd-numbered source data elements of the first set. receiving, by a processor, a SIMD instruction which specifies: a single source vector operand comprising a first set of source data elements of a first bit-width; and a destination vector operand comprising destination data elements of a second bit-width, wherein the second bit-width is twice the first bit-width, wherein the single source vector operand is expressed as a single register, and the destination vector operand is expressed as a pair of registers including a first register comprising a first subset of the destination data elements and a second register comprising a second subset of the destination data elements; and a single source vector operand comprising a first set of source data elements of a first bit-width; and a destination vector operand comprising destination data elements of a second bit-width, wherein the second bit-width is twice the first bit-width, wherein the single source vector operand is expressed as a single register, and the destination vector operand is expressed as a pair of registers including a first register comprising a first subset of the destination data elements and a second register comprising a second subset of the destination data elements; and based on a sequential order of the first set of source data elements, executing the SIMD instruction in the processor, comprising: generating the first subset of destination data elements in the first register from even-numbered source data elements of the first set; and generating the second subset of destination data elements in the second register from odd-numbered source data elements of the first set. generating the first subset of destination data elements in the first register from even-numbered source data elements of the first set; and generating the second subset of destination data elements in the second register from odd-numbered source data elements of the first set.
Display for a drug delivery device comprising a housing with at least one window (11a, 11b, 11c), a dosing element movable relative to the housing during dose setting and/or dose dispensing, and a movable indicator element visible through the at least one window (11a, 11b, 11c), characterized in that the display is a non-numerical display, that the indicator element is coupled to the dosing element and/or to the housing such that a movement of the dosing element relative to the housing is translated into a movement of the indicator element, which is not proportional to the movement of the dosing element, that a continuous movement of the dosing element relative to the housing is translated into an intermittent movement of the indicator element, wherein a continuous movement of the dosing element relative to the housing is translated into a pure axial movement during a first phase of the movement of the indicator element and into a combined axial and rotational movement during a second phase of the movement of the indicator element and wherein the indicator element is guided within the housing in a track having a first, axially extending portion and a second, helical portion.
A sliding closing element, in particular a sliding door or a sliding window, for a sliding closing element arrangement of a vehicle, in particular of an aircraft, said sliding closing element arrangement comprising at least one rail that is adapted for slidably supporting said sliding closing element, said sliding closing element comprising at least one fail safe sliding arm assembly with at least one bogie support arm and at least one safety arm, said at least one bogie support arm comprising at least one bogie assembly with at least one guide roller (9a, 9b) that is adapted for rolling along said at least one rail in operation, and said at least one safety arm being adapted for retaining said at least one fail safe sliding arm assembly on said at least one rail in case of a failure of said at least one bogie support arm.
Particle separating catalytic reactor for hydroprocessing, comprising a particle separator for separating particles from the inlet fluid stream to the reactor, said particle separator comprises a base plate with a circular shape, at least one inlet channel comprising an inlet channel exit located above the centre of the base plate, at least one fluid stream diverter with a circular shape and located in fixed connection to and in the centre on the upper side of the base plate, at least one collection section, at least one transfer chimney located in fixed connection to, and in the periphery of the base plate comprising a transfer chimney inlet located above the base plate and a transfer chimney outlet located below the base plate, wherein each of the at least one inlet channel exits faces one of the at least one fluid stream diverters and the at least one fluid stream diverters is positioned in a level below the at least one transfer chimney inlets, and wherein the at least one inlet channel has a circular cross section and the at least one fluid stream diverter has a concave shape, whereby the particles are separated from the inlet fluid stream as the inlet fluid stream is subjected to an S-shaped flow from the inlet channel exit, via the fluid stream diverter and further to the transfer chimney inlet so that the particles are flung outwards the stream and by gravity settle on the base plate.
A dual mode filter (200, 500, 900) comprising an input port (Pin) and an output port (Pout), the dual mode filter (200, 500, 900) also comprising a substrate (205, 505) of a non-conducting material and a first (215, 510, 902) and a second (210, 540, 901) conductor, both of which conductors connect the input port (Pin) to the output port (Pout), with the first (215, 510, 902) and the second (210, 540, 901) conductors being arranged on or in the substrate (205, 505), the first conductor (215, 510, 902) being longer than the second conductor (210, 540, 901) by at least 50%, in which dual mode filter either the first (215, 510, 902) or the second conductor (210, 540, 901) comprises a perturbation element (208, 530, 915) at a central position of the conductor, the dual mode filter (200, 500, 900) being characterized in that the first conductor (215, 510, 902) is arranged between the input port (Pin) and the output port (Pout) with a number of sections (216-222; 511-519; 931-933, 936-938), at least some of which are parallel to each other, and in that the sections are arranged so that the current in the two most adjacent parallel sections always flows in the same direction, with the first conductor (215, 510, 902) being arranged between the input port (Pin) and the output port (Pout) in such a manner that the first conductor (215, 510, 902) exhibits at least one crossing of two of its sections (219,221; 217,218; 513,514; 519,518; 935,934,944), said crossing being accomplished by means of vias in at least one of said two sections.
Fuel injector for injecting fuel into a combustion chamber of an internal combustion engine, having a clamping nut, having a holding body which is arranged in the clamping nut and which has a holding body passage bore, having a nozzle body which is arranged in the clamping nut and which has a nozzle body internal bore and at least one nozzle opening, and having a needle body which is arranged in the holding body passage bore and the nozzle body internal bore, wherein the fuel injector furthermore has at least one sealing disk which has a passage bore, wherein the sealing disk is clamped between the holding body and the nozzle body and seals off at least one transition between the holding body passage bore and the nozzle body internal bore, wherein the holding body in the clamping nut is clamped by means of a screw connection against the nozzle body which is held axially in the clamping nut, whereby the sealing disk is held, with a pressing action on both sides, between the holding body and the nozzle body, characterized in that the sealing disk has an undulating shape (42, 43) in axial cross section, wherein the undulating shape (42, 43) has alternating axial elevations and depressions which each form a radially arranged concentric circle, in that the sealing disk assumes the form of a straight disk with the passage bore being maintained, such that locally increased contact pressures arise between the holding body and the nozzle body at the locations of the undulation peaks and the undulation troughs.
An aluminium alloy sheet material for use in a heat exchanger having a composition, in wt.%, comprising: Mn 1.4% - 1.8%, Si up to 0.7%, Fe up to 0.7%, Mg up to 0.30%, Cu up to 0.10%, Cr+Zr 0.08% to 0.25%, wherein Cr and Zr are each present at a minimum of 0.03%, Zn up to 0.50%, Ti up to 0.2%, balance aluminium and inevitable impurities.
A stopper which is arranged to minimise a backflow of fluid into a toilet bowl through an outlet of the toilet bowl, the stopper comprising a retractably extendible arm such that the arm can be suitably sized to conform to the size of the toilet bowl, a bung, such as a cushion or similar, disposed at a distal end of the arm, the bung being arranged to substantially seal the outlet to close the outlet, and the stopper further comprising means, disposed at a proximal end of the arm arranged to engage a rim of the toilet within the toilet bowl to secure the stopper within the toilet bowl, characterised in that the arm comprises a plurality of arm sections,, which are screw-threaded and coupled via a turnbuckle.
Divisible housing of a fluid machine for a transmission receivable in the divisible housing and having a large wheel and at least two pinion shafts (10, 11) which are in engagement with the large wheel, the divisible housing having at least one first housing element and one second housing element connected to the first housing element via a parting joint, and the at least two pinion shafts (10, 11) being receivable in the parting joint, characterized in that the parting joint has a parting joint jump, which forms two different horizontal levels in the parting joint, the at least two pinion shafts (10, 11) being receivable in the parting joint on both sides of the parting joint jump at the two different horizontal levels.
A composition comprising a polymer matrix or biopolymer gel and an isolated postnatal, clonogenic periodontal ligament multipotent stem cell, wherein the stem cell expresses STRO-1 and MUC18, wherein the stem cell is capable of differentiating into a cementoblast, a cementocyte, an adipocyte and a collagen fiber forming cell.