mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of converting data for 80 bit registers of a guest architecture to data for 64-bit registers on a host system, the method comprising: determining that an operation should be performed to restore a first set of 80 bits stored in memory for a first 80 bit register of a guest architecture on a host having 64-bit registers; storing a first set of 64 bits from the first set of 80 bits stored in memory, wherein the first set of 64 bits could be used for 64-bit SIMD operations in the guest architecture, in a first host register; storing a first set of remaining 16 bits from the first set of 80 bits stored in memory in a supplemental memory storage; identifying a floating point operation that should operate on the first 80-bit register for the guest architecture; and as a result of identifying a floating point operation that should operate on the first 80-bit register for the guest architecture, using the first set of 64 bits in the first host register and the first set of remaining 16 bits stored in memory in a supplemental memory storage to translate a floating point number represented by the first set of 80 bits to a first 64-bit floating point number and store the first 64-bit floating point number in the first host register. determining that an operation should be performed to restore a first set of 80 bits stored in memory for a first 80 bit register of a guest architecture on a host having 64-bit registers; storing a first set of 64 bits from the first set of 80 bits stored in memory, wherein the first set of 64 bits could be used for 64-bit SIMD operations in the guest architecture, in a first host register; storing a first set of remaining 16 bits from the first set of 80 bits stored in memory in a supplemental memory storage; identifying a floating point operation that should operate on the first 80-bit register for the guest architecture; and as a result of identifying a floating point operation that should operate on the first 80-bit register for the guest architecture, using the first set of 64 bits in the first host register and the first set of remaining 16 bits stored in memory in a supplemental memory storage to translate a floating point number represented by the first set of 80 bits to a first 64-bit floating point number and store the first 64-bit floating point number in the first host register.
A Brayton cycle type refrigerating apparatus utilizing a Brayton cycle having multiple stages of compressors (102a, 102b, 102c) arranged in series on a refrigerant line for generating cool heat by using a refrigerant compressed by the compressors to cool a secondary refrigerant, comprising: a buffer tank provided between a low pressure line in which the refrigerant before being compressed by the compressors flows and a high pressure line in which the refrigerant after being compressed by the compressors flows; a first valve provided on an inlet side of the buffer tank and capable of controlling an inflow rate of the refrigerant into the buffer tank; a second valve provided on an outlet side of the buffer tank and capable of controlling an outflow rate of the refrigerant from the buffer tank; and a control device for controlling an opening degree of the first valve and an opening degree of the second valve; characterized in that it further comprises a heat load detecting device for detecting a heat load of an object to be cooled; and wherein, when a change in the heat load of the object to be cooled is detected by the heat load detecting device and the heat load is detected to have increased, the control device is configured to carry out a control to open the second valve while the first valve is closed so as to adjust the flow rate of the refrigerant flowing in the Brayton cycle to increase, and when the heat load is detected to have decreased, the control device is configured to carry out a control to open the first valve while the second valve is closed so as to adjust the flow rate of the refrigerant flowing in the Brayton cycle to decrease. a buffer tank provided between a low pressure line in which the refrigerant before being compressed by the compressors flows and a high pressure line in which the refrigerant after being compressed by the compressors flows; a first valve provided on an inlet side of the buffer tank and capable of controlling an inflow rate of the refrigerant into the buffer tank; a second valve provided on an outlet side of the buffer tank and capable of controlling an outflow rate of the refrigerant from the buffer tank; and a control device for controlling an opening degree of the first valve and an opening degree of the second valve; characterized in that it further comprises a heat load detecting device for detecting a heat load of an object to be cooled; and wherein, when a change in the heat load of the object to be cooled is detected by the heat load detecting device and the heat load is detected to have increased, the control device is configured to carry out a control to open the second valve while the first valve is closed so as to adjust the flow rate of the refrigerant flowing in the Brayton cycle to increase, and when the heat load is detected to have decreased, the control device is configured to carry out a control to open the first valve while the second valve is closed so as to adjust the flow rate of the refrigerant flowing in the Brayton cycle to decrease.
Method for operating a base station of a mobile communications network, wherein said base station is configured to operate in different operation states, wherein said operation states at least include an active operational mode, in which the radio interface subsystem of said base station is fully activated, and a low-duty operational mode, LDM, with reduced radio transmission activity compared to said active operational mode, characterized in that said low-duty operational mode includes a pattern of availability intervals during which radio transmissions are allowed and unavailability intervals in which no radio transmissions are allowed, wherein said base station creates said availability and unavailability intervals in form of a superposition of the sleep cycles of all mobile stations associated with said base station, wherein said base station, before entering said low duty operational mode, re-negotiates the sleep cycles of mobile stations in connected mode for alignment purposes, and wherein said base station enters said low-duty operational mode after mobile stations in connected mode have informed said base station of their acceptance of said base station's availability and unavailability intervals. wherein said base station, before entering said low duty operational mode, re-negotiates the sleep cycles of mobile stations in connected mode for alignment purposes, and wherein said base station enters said low-duty operational mode after mobile stations in connected mode have informed said base station of their acceptance of said base station's availability and unavailability intervals.
A method of servicing a wellbore in a subterranean formation, the method comprising placing a wellbore servicing fluid comprising a lost circulation composite material into the wellbore, the lost circulation composite material comprising a swellable component and a reinforcing component; wherein the swellable component comprises a water-swellable polymer selected from crosslinked hydrolyzed polyacrylonitrile; a salt of carboxyalkyl starch; a salt of carboxyalkyl cellulose; a salt of crosslinked carboxyalkyl polysaccharide; starch grafted with acrylonitrile and acrylate monomers; a crosslinked polymer of two or more of allylsulfonate, 2-acrylamido-2-methyl-1-propanesulfonic acid and 3-allyloxy-2-hydroxy-1-propanesulfonic acid; and any combination thereof.
Isolating element for the stator winding of an electrical machine, in which the stator in form of a flat packing comprising the stator winding lying therein and winding wires projecting beyond the flat packing and forming at least one winding overlap, is manufactured in such a way that winding wires prior to a circular bending project from one end of the flat packing as the winding overlap and are able to be inserted in grooves in an opposite end of the flat packing when the flat packing is subjected to circular bending, characterized in that the isolating element is an isolating clip (18, 19) having a substantially U-shaped cross-section which is able to be plugged onto the winding wires of the winding overlap projecting from the flat packing and having spring-elastic side legs (15, 16), the isolating clip (18, 19) has a smaller opening width at the free end of its side legs (15, 16) in the relaxed state relative to the thickness of a winding overlap to be inserted between the legs (15, 16), and a recess is formed on the outside of each of the two legs (15, 16) in a transition region (28, 29) with respect to a base connecting the two legs (15, 16), into which recess the free ends of the legs of an adjacent groove isolation, which lies in the same groove of a stator, are able to be inserted.
A resonant cavity combined solid-state amplifier system comprising: a resonant cavity including at least one output port coupled to a high-power transmission line; a plurality of high-power transistors each configured to generate a variable amount of power input directly into the resonant cavity; and a plurality of output impedance matching networks each including at least one transmission line and a coupling loop coupled to the transmission line, each transmission line coupled to a corresponding one of the plurality of high-power transistors and extending into the resonant cavity and configured to match an impedance of each said transistor to an impedance of said resonant cavity and configured to electromagnetically couple power from each of said plurality of high-power transistors into the resonant cavity to provide a combined high-power output to the high- power transmission line; whereineach output impedance matching network includes a stub coupled to the transmission line to electromagnetically couple power from a transistor to the resonant cavity. a resonant cavity including at least one output port coupled to a high-power transmission line; a plurality of high-power transistors each configured to generate a variable amount of power input directly into the resonant cavity; and
A tubular fiber structure comprising: a tube; and a flange located on at least one side of the tube; wherein the tubular fiber structure is formed by shaping a fabric base material (11; 11, 31) that is rolled; and the fabric base material is formed by threads laid out within the fabric base material to extend at least in two directions; a portion of the fabric base material forming the flange is formed by a woven texture with woven intersections of reinforcement threads (16, 17) laid out within the fabric at 0 degrees and 90 degrees, respectively, characterized in that in the flange auxiliary threads are laid out within the fabric at 90 degrees adjacent to the reinforcement threads to form woven portions with the reinforcement threads, and in that in the flange said reinforcement threads extend continuously over the entire circumference in a circumferential direction and laid out in radial direction, and in that the portion (lib) is bent and the intervals of the reinforcement threads and the auxiliary threads widen toward outer sides in the radial direction of the tube to form the flange, wherein overlapping sections of the portion (lib) are fixed by an adhesive or by stitches. a tube; and a flange located on at least one side of the tube; wherein the tubular fiber structure is formed by shaping a fabric base material (11; 11, 31) that is rolled; and the fabric base material is formed by threads laid out within the fabric base material to extend at least in two directions; a portion of the fabric base material forming the flange is formed by a woven texture with woven intersections of reinforcement threads (16, 17) laid out within the fabric at 0 degrees and 90 degrees, respectively, characterized in that in the flange auxiliary threads are laid out within the fabric at 90 degrees adjacent to the reinforcement threads to form woven portions with the reinforcement threads, and in that in the flange said reinforcement threads extend continuously over the entire circumference in a circumferential direction and laid out in radial direction, and in that the portion (lib) is bent and the intervals of the reinforcement threads and the auxiliary threads widen toward outer sides in the radial direction of the tube to form the flange, wherein overlapping sections of the portion (lib) are fixed by an adhesive or by stitches.
A system for colonic cleaning, comprising: an envelope comprising: a body including a fecal container of at least 2 liters volume; an anal seal adapted to seal to an anus; and a proximal seal adapted to seal to a colon insertion tube; wherein said system for colonic cleaning further comprises: said colon insertion tube for cleaning up to a cecum thereof; characterized in that: said envelope is an integral piece; and a portion (154, 160) of said envelope covers over a portion of said colon insertion tube, said portion of said envelope configured to axially extend and contract so as to change length according to the insertion depth of said colon insertion tube. an envelope comprising: a body including a fecal container of at least 2 liters volume; an anal seal adapted to seal to an anus; and a proximal seal adapted to seal to a colon insertion tube; wherein a body including a fecal container of at least 2 liters volume; an anal seal adapted to seal to an anus; and a proximal seal adapted to seal to a colon insertion tube; wherein said system for colonic cleaning further comprises: said colon insertion tube for cleaning up to a cecum thereof; characterized in that: said envelope is an integral piece; and a portion (154, 160) of said envelope covers over a portion of said colon insertion tube, said portion of said envelope configured to axially extend and contract so as to change length according to the insertion depth of said colon insertion tube.
A wind turbine blade, comprising: a blade main body; and a leading edge protector including a conductive material, the leading edge protector covering a leading edge of the blade main body, a down conductor disposed in a hollow space enclosed by a skin in the blade main body; and a conductive mesh member provided along an outer surface of the skin, the wind turbine blade wherein the leading edge protector is electrically connected to the down conductor and the conductive mesh member via a receptor provided on the skin so as to extend from the outer surface along a thickness direction of the skin, the leading edge protector,the down conductor and the conductive mesh member being disposed at different positions along a thickness direction of the skin. a blade main body; and a leading edge protector including a conductive material, the leading edge protector covering a leading edge of the blade main body, a down conductor disposed in a hollow space enclosed by a skin in the blade main body; and a conductive mesh member provided along an outer surface of the skin, the wind turbine blade wherein the leading edge protector is electrically connected to the down conductor and the conductive mesh member via a receptor provided on the skin so as to extend from the outer surface along a thickness direction of the skin, the leading edge protector,the down conductor and the conductive mesh member being disposed at different positions along a thickness direction of the skin.
A computer-implemented method of presenting a palette-specific color picker interface, the method comprising: receiving, by a computing device, initialization information; retrieving, by the computing device, palette information based on the initialization information; generating, by the computing device, a color picker interface that includes a plurality of wedges based on the palette information; presenting, by the computing device, the color picker interface; receiving, by the computing device, one or more selections of segments within the one or more wedges of the color picker interface; and determining, by the computing device, a hue, wherein: the palette information includes indications of a plurality of colorants associated with a palette and adjustability of each colorant within the palette, each wedge (412, 414, 416) is associated with a colorant of the plurality of colorants, and wherein each wedge (412, 414, 416) includes a number of segments based on the adjustability of the associated colorant within the palette, the one or more selections of segments within the one or more wedges of the color picker interface indicate amounts of the associated colorants, the hue is based on the indicated amounts of the associated colorants. receiving, by a computing device, initialization information; retrieving, by the computing device, palette information based on the initialization information; generating, by the computing device, a color picker interface that includes a plurality of wedges based on the palette information; presenting, by the computing device, the color picker interface; receiving, by the computing device, one or more selections of segments within the one or more wedges of the color picker interface; and determining, by the computing device, a hue, wherein: the palette information includes indications of a plurality of colorants associated with a palette and adjustability of each colorant within the palette, each wedge (412, 414, 416) is associated with a colorant of the plurality of colorants, and wherein each wedge (412, 414, 416) includes a number of segments based on the adjustability of the associated colorant within the palette, the one or more selections of segments within the one or more wedges of the color picker interface indicate amounts of the associated colorants, the hue is based on the indicated amounts of the associated colorants. the palette information includes indications of a plurality of colorants associated with a palette and adjustability of each colorant within the palette, each wedge (412, 414, 416) is associated with a colorant of the plurality of colorants, and wherein each wedge (412, 414, 416) includes a number of segments based on the adjustability of the associated colorant within the palette, the one or more selections of segments within the one or more wedges of the color picker interface indicate amounts of the associated colorants, the hue is based on the indicated amounts of the associated colorants.
An apparatus for determining clusters of access nodes, the apparatus comprising: a processing apparatus, wherein the processing apparatus is configured to: determine a first cluster based on a first metric, wherein the first cluster comprises one or more access nodes for serving at least a first user node; assign further user nodes to be served by the one or more access nodes of the first cluster based on a spatial separation of the further user nodes and a second metric; and determine at least a further cluster by repeating the determining and assigning steps for further access nodes and user nodes until there are no more user nodes to be assigned. determine a first cluster based on a first metric, wherein the first cluster comprises one or more access nodes for serving at least a first user node; assign further user nodes to be served by the one or more access nodes of the first cluster based on a spatial separation of the further user nodes and a second metric; and determine at least a further cluster by repeating the determining and assigning steps for further access nodes and user nodes until there are no more user nodes to be assigned.
A light-emitting device comprising: a substrate; a first electrode which is disposed on the substrate, includes holes (HOL1, HOL2, HOL3), and has inclined surfaces (332_S1) formed along peripheries of the holes (HOL1, HOL2, HOL3); second electrodes which are disposed on the substrate and each disposed in one of the holes (HOL1, HOL2, HOL3) of the first electrode; and light-emitting elements which are disposed between the first electrode and the second electrodes and electrically connected to the first electrode and the second electrodes, wherein the first electrode includes a first metal bonding layer, a metal conductive layer disposed on the first metal bonding layer, and a second metal bonding layer disposed on the metal conductive layer, the metal conductive layer has a thickness which is greater than a thickness of the first metal bonding layer and greater than a thickness of the second metal bonding layer, and the inclined surfaces (332_S1) are formed on the metal conductive layer. a substrate; a first electrode which is disposed on the substrate, includes holes (HOL1, HOL2, HOL3), and has inclined surfaces (332_S1) formed along peripheries of the holes (HOL1, HOL2, HOL3); second electrodes which are disposed on the substrate and each disposed in one of the holes (HOL1, HOL2, HOL3) of the first electrode; and light-emitting elements which are disposed between the first electrode and the second electrodes and electrically connected to the first electrode and the second electrodes, wherein the first electrode includes a first metal bonding layer, a metal conductive layer disposed on the first metal bonding layer, and a second metal bonding layer disposed on the metal conductive layer, the metal conductive layer has a thickness which is greater than a thickness of the first metal bonding layer and greater than a thickness of the second metal bonding layer, and the inclined surfaces (332_S1) are formed on the metal conductive layer.