mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication by a user equipment, UE, comprising: determining a maximum available transmit power of the UE; semi-statically configuring a first minimum guaranteed power available for uplink transmission to a first base station and a second minimum guaranteed power available for uplink transmission to a second base station; and dynamically determining a first maximum transmit power available for uplink transmission to the first base station and a second maximum transmit power available for uplink transmission to the second base station based, at least in part, on the maximum available transmit power of the UE, the first minimum guaranteed power, and the second minimum guaranteed power, wherein dynamically determining the first maximum transmit power and the second maximum transmit power comprises: determining an amount of the first minimum guaranteed power that is unused for uplink transmission to the first base station, and including at least a portion of the unused amount when determining the second maximum transmit power available for uplink transmission to the second base station. determining a maximum available transmit power of the UE; semi-statically configuring a first minimum guaranteed power available for uplink transmission to a first base station and a second minimum guaranteed power available for uplink transmission to a second base station; and dynamically determining a first maximum transmit power available for uplink transmission to the first base station and a second maximum transmit power available for uplink transmission to the second base station based, at least in part, on the maximum available transmit power of the UE, the first minimum guaranteed power, and the second minimum guaranteed power, wherein dynamically determining the first maximum transmit power and the second maximum transmit power comprises: determining an amount of the first minimum guaranteed power that is unused for uplink transmission to the first base station, and including at least a portion of the unused amount when determining the second maximum transmit power available for uplink transmission to the second base station. determining an amount of the first minimum guaranteed power that is unused for uplink transmission to the first base station, and including at least a portion of the unused amount when determining the second maximum transmit power available for uplink transmission to the second base station.
A spinal implant (10, 110, 210) for placement in an intervertebral space between a first vertebral body (V i) and a second vertebral body (V s) of a spine, the spinal implant comprising: a body (43, 143, 243) having a first surface (41, 141, 241) for contacting the first vertebral body; a first extendable support element connected to the body at a first location, the first extendable support element including a first piston (42, 138, 238) slidably received within a first cylinder (50, 146, 246), and the first extendable support element being configured to expand so as to apply a first expansion force directed away from the first surface; a second extendable support element connected to the body at a second location, the second extendable support element including a second piston (38, 138, 238) slidably received within a second cylinder (46, 146, 246), and the second extendable support element being configured to expand so as to apply a second expansion force directed away from the first surface; and an input for expanding the first and second extendable support elements, wherein the first and second extendable support elements are configured to be extended by supplying a hydraulic fluid to the input, and wherein the spinal implant is configured such that application of a single input force to the spinal implant via the input induces the first extendable support element to expand and apply the first expansion force and induces the second extendable support element to expand and apply the second expansion force, the first expansion force being greater than the second expansion force. a body (43, 143, 243) having a first surface (41, 141, 241) for contacting the first vertebral body; a first extendable support element connected to the body at a first location, the first extendable support element including a first piston (42, 138, 238) slidably received within a first cylinder (50, 146, 246), and the first extendable support element being configured to expand so as to apply a first expansion force directed away from the first surface; a second extendable support element connected to the body at a second location, the second extendable support element including a second piston (38, 138, 238) slidably received within a second cylinder (46, 146, 246), and the second extendable support element being configured to expand so as to apply a second expansion force directed away from the first surface; and an input for expanding the first and second extendable support elements, wherein the first and second extendable support elements are configured to be extended by supplying a hydraulic fluid to the input, and wherein the spinal implant is configured such that application of a single input force to the spinal implant via the input induces the first extendable support element to expand and apply the first expansion force and induces the second extendable support element to expand and apply the second expansion force, the first expansion force being greater than the second expansion force.
A wireless power transfer, WPT, pad (126; 128; 700) comprising: a winding comprising a conductor, wherein the conductor is wound in a planar configuration, the winding comprising a center section about which the winding is wound; and a ferrite structure comprising: a parallel section located on a side of the winding with at least a portion in parallel with the winding; and a chimney section in magnetic contact with the parallel section and located in the center section of the winding, the chimney section extending perpendicular to the parallel section; wherein the chimney section comprises a gap, characterised in that one or more capacitors (Cs1, Cs2, Cs3) of the WPT pad are located in the center section of the winding and one or more conductors from the winding to the one or more capacitors extend through the gap. a winding comprising a conductor, wherein the conductor is wound in a planar configuration, the winding comprising a center section about which the winding is wound; and a ferrite structure comprising: a parallel section located on a side of the winding with at least a portion in parallel with the winding; and a chimney section in magnetic contact with the parallel section and located in the center section of the winding, the chimney section extending perpendicular to the parallel section; wherein the chimney section comprises a gap, a parallel section located on a side of the winding with at least a portion in parallel with the winding; and a chimney section in magnetic contact with the parallel section and located in the center section of the winding, the chimney section extending perpendicular to the parallel section; wherein the chimney section comprises a gap,
Procedure for obtaining olive oil comprising the steps of a. Mechanically milling the whole olives, with or without stones, to obtain an olive paste, or alternatively, splitting the olives, with or without stones, b. Lyophilising the paste or split olives from step a) in order to reduce their water content, c. Moistening or partially rehydrating the lyophilized product of step b) until the product has a water content higher than the lyophilised product. d. Extracting the oil from the lyophilised product from step c), said oil extraction phase comprising the steps of: d1) mixing or beating the moistened or partially rehydrated lyophilised product of step c) and d2) pressing and/or centrifuging the product of step d1) a. Mechanically milling the whole olives, with or without stones, to obtain an olive paste, or alternatively, splitting the olives, with or without stones, b. Lyophilising the paste or split olives from step a) in order to reduce their water content, c. Moistening or partially rehydrating the lyophilized product of step b) until the product has a water content higher than the lyophilised product. d. Extracting the oil from the lyophilised product from step c), said oil extraction phase comprising the steps of: d1) mixing or beating the moistened or partially rehydrated lyophilised product of step c) and d2) pressing and/or centrifuging the product of step d1) d1) mixing or beating the moistened or partially rehydrated lyophilised product of step c) and d2) pressing and/or centrifuging the product of step d1)
Optoelectronic device comprising: - a vertical stack of a first doped semiconductor layer of a first conductivity type, of a second doped semiconductor layer of the second conductivity type forming with the first layer a PN junction, and of a third conductive layer arranged on top of and in contact with the surface of the second layer opposite to the first layer; - a peripheral trench crossing the third and second layers, said trench laterally delimiting a portion of the third layer and a portion of the second layer; - in said trench, a conductive spacer in contact with a lateral side of said portion of the third layer; and - in said trench, an insulated conductive gate (113, 111) comprising a gate insulator layer extending on top of and in contact with a lateral side of the conductive spacer and on top of and in contact with a lateral side of said portion of the second layer, and a conductive gate layer arranged on top of and in contact with the surface of the gate insulator layer opposite to the conductive spacer and to said portion of the second layer, characterized in that the conductive spacer is made of a fourth conductive layer coating only the side walls of said trench. - a vertical stack of a first doped semiconductor layer of a first conductivity type, of a second doped semiconductor layer of the second conductivity type forming with the first layer a PN junction, and of a third conductive layer arranged on top of and in contact with the surface of the second layer opposite to the first layer; - a peripheral trench crossing the third and second layers, said trench laterally delimiting a portion of the third layer and a portion of the second layer; - in said trench, a conductive spacer in contact with a lateral side of said portion of the third layer; and - in said trench, an insulated conductive gate (113, 111) comprising a gate insulator layer extending on top of and in contact with a lateral side of the conductive spacer and on top of and in contact with a lateral side of said portion of the second layer, and a conductive gate layer arranged on top of and in contact with the surface of the gate insulator layer opposite to the conductive spacer and to said portion of the second layer,
A method for depleting or reducing a specific non-desired nucleic acid sequence from a nucleic acid library, the method comprising: a. generating a nucleic acid library comprising single-stranded DNA fragments with adaptors attached to each end of each single-stranded DNA fragment; b. annealing a sequence-specific oligonucleotide probe to the single-stranded DNA fragments with adaptors attached at each end, wherein the sequence-specific oligonucleotide probe is designed to be complementary to the non-desired nucleic acid sequence, and wherein at least one of the two adaptors comprises a restriction endonuclease site for a restriction endonuclease specific for double-stranded DNA; c. extending the sequence-specific oligonucleotide probe with a DNA polymerase, thereby creating double-stranded DNA fragments comprising at least a portion of the non-desired nucleic acid sequence; d. treating the double-stranded DNA fragments with the restriction endonuclease specific for double-stranded DNA, thereby cleaving double-stranded DNA fragments at the restriction endonuclease site; and e. performing polymerase chain reaction with a set of primers specific to the adaptors, thereby amplifying DNA fragments comprising desired nucleic acid sequences in the nucleic acid library. a. generating a nucleic acid library comprising single-stranded DNA fragments with adaptors attached to each end of each single-stranded DNA fragment; b. annealing a sequence-specific oligonucleotide probe to the single-stranded DNA fragments with adaptors attached at each end, wherein the sequence-specific oligonucleotide probe is designed to be complementary to the non-desired nucleic acid sequence, and wherein at least one of the two adaptors comprises a restriction endonuclease site for a restriction endonuclease specific for double-stranded DNA; c. extending the sequence-specific oligonucleotide probe with a DNA polymerase, thereby creating double-stranded DNA fragments comprising at least a portion of the non-desired nucleic acid sequence; d. treating the double-stranded DNA fragments with the restriction endonuclease specific for double-stranded DNA, thereby cleaving double-stranded DNA fragments at the restriction endonuclease site; and e. performing polymerase chain reaction with a set of primers specific to the adaptors, thereby amplifying DNA fragments comprising desired nucleic acid sequences in the nucleic acid library.
The use of an agent for temporarily shaping keratin-containing fibers, in particular human hair, wherein the agent contains, in a cosmetically acceptable carrier, a) 1,4-bis(hydroxymethyl)cyclohexane b) at least one stabilizing active substance. a) 1,4-bis(hydroxymethyl)cyclohexane b) at least one stabilizing active substance.
A method for handling spent wash solution produced in the washing of lignin that has been precipitated and then separated from spent alkaline pulping liquor at a pulp mill, in which method the separated lignin is washed in at least one washing step being conducted under acidic conditions, wherein at least part of the spent wash solution from the at least one washing step is introduced into a chemical recovery cycle of the pulp mill at a location in that part of the cycle which includes a smelt dissolving stage, a green liquor treatment, a white liquor preparation, and a pulping stage which comprises a feed system for cellulosic fibrous organic material, such as wood chips, and at least one treatment vessel, such as a cooking vessel, and terminates immediately upstream of a first pulp-washing operation.
Actuator device (1; 101; 201; 301; 401) comprising at least: - a first transmission member (6; 106; 206; 306, 307; 406, 407), which is substantially linearly slidable or movable; - a second transmission member (5; 105; 205; 305; 405) cooperating with the first member, which is rotatable or angularly movable between at least two operating conditions; - a thermal assembly (31; 331, 341; 431, 441) or a thermal or electrothermal actuator (3, 31, 38; 103; 203; 303, 304; 403, 404), which can be activated for actuating at least one of said first transmission member (6; 106; 206; 306, 307; 406, 407) and second transmission member (5; 105; 205; 305; 405); said first (6; 106; 206; 306, 307; 406, 407) and second (5; 105; 205; 305; 405) transmission members mutually cooperating to transmit motion from the first member to the second member between at least said two operating conditions; characterized in that it comprises: releasable engagement means (19, 22; 108, 109, 113, 114, 115; 209, 213, 214, 215; 310, 355', 355"; 410, 455', 455") associated with, or at least partly integrated into, at least one of said first member (6; 106; 206; 306, 307; 406, 407) and second member (5; 105; 205; 305; 405), for holding at least one of them in at least two stable conditions, wherein said thermal assembly (31; 331, 341; 431, 441) or thermal or electrothermal actuator (3, 31, 38; 103; 203; 303, 304; 403, 404) is of linear type, and wherein the second transmission member (5; 105; 205; 305; 405) which cooperates with the first transmission member (6; 106; 206; 306, 307; 406, 407), is adapted to drive and/or being coupled with another external member driven by the actuator device (1; 101; 201; 301; 401). - a first transmission member (6; 106; 206; 306, 307; 406, 407), which is substantially linearly slidable or movable; - a second transmission member (5; 105; 205; 305; 405) cooperating with the first member, which is rotatable or angularly movable between at least two operating conditions; - a thermal assembly (31; 331, 341; 431, 441) or a thermal or electrothermal actuator (3, 31, 38; 103; 203; 303, 304; 403, 404), which can be activated for actuating at least one of said first transmission member (6; 106; 206; 306, 307; 406, 407) and second transmission member (5; 105; 205; 305; 405); releasable engagement means (19, 22; 108, 109, 113, 114, 115; 209, 213, 214, 215; 310, 355', 355"; 410, 455', 455") associated with, or at least partly integrated into, at least one of said first member (6; 106; 206; 306, 307; 406, 407) and second member (5; 105; 205; 305; 405), for holding at least one of them in at least two stable conditions, wherein said thermal assembly (31; 331, 341; 431, 441) or thermal or electrothermal actuator (3, 31, 38; 103; 203; 303, 304; 403, 404) is of linear type, and wherein the second transmission member (5; 105; 205; 305; 405) which cooperates with the first transmission member (6; 106; 206; 306, 307; 406, 407), is adapted to drive and/or being coupled with another external member driven by the actuator device (1; 101; 201; 301; 401).
Valve assembly, with a modular distributor assembly, which has several distributor modules mounted side by side in a direction of lining-up and at the same time each attached to one another by facing joining surfaces in a joining area, and of which at least several are each in the form of a valve carrier module carrying at least one electrically actuable valve unit, wherein each of these valve units has internal valve passages for the supply and removal of an operating fluid and at least one valve operating passage (34a, 34b) for connection with an external load to be actuated, and wherein there passes through each valve carrier module at least one valve carrier operating passage (43, 44) connected to a valve operating passage (34a, 34b) of the valve unit mounted on it and to which an external load to be actuated may be connected by means of at least one load connection port (43b, 44b) located on the outside of the distributor assembly, characterised in that in the distributor assembly in at least one joining area, the valve carrier operating passage (43, 44) of several valve carrier modules make fluidic connection with one another to form at least one common operating passage (46, 47).
A production method of a cyclic poly(phenylene ether ether ketone) composition and a linear poly(phenylene ether ether ketone) by a reaction by heating at least a linear poly(phenylene ether ether ketone), a dihalogenated aromatic ketone compound, a dihydroxy aromatic compound and a base in an organic polar solvent, the production method using (i) the organic polar solvent of not less than 1.20 liters and not more than 100 liters relative to 1.0 mol of a benzene ring component in a reaction mixture, and (ii) as the base, a base mixture of at least one species selected between sodium carbonate and sodium bicarbonate and at least one species selected among carbonates and bicarbonates of alkali metals having higher atomic numbers than sodium. (i) the organic polar solvent of not less than 1.20 liters and not more than 100 liters relative to 1.0 mol of a benzene ring component in a reaction mixture, and (ii) as the base, a base mixture of at least one species selected between sodium carbonate and sodium bicarbonate and at least one species selected among carbonates and bicarbonates of alkali metals having higher atomic numbers than sodium.
Profile with a thermal break comprising: - a profile, referred to as the outer profile, extending in a longitudinal direction; - a profile, referred to as the inner profile, extending in a longitudinal direction; - a bar comprised of a rigid and thermally insulating material separating, into sections, the inner profile and the outer profile; - a strip, referred to as holding strip, extending longitudinally and fixed on one of the faces of one of the inner or outer profiles, referred to as substrate profile, the holding strip having a coefficient of thermal expansion less than that of all of the materials comprising the inner, outer profiles and the bar and a longitudinal elastic modulus that is greater than each one of these materials, characterized in that the holding strip consists of a unidirectional fibrous web, the fibers of the fibrous web constituting the strip being oriented parallel to the longitudinal direction of the profile. - a profile, referred to as the outer profile, extending in a longitudinal direction; - a profile, referred to as the inner profile, extending in a longitudinal direction; - a bar comprised of a rigid and thermally insulating material separating, into sections, the inner profile and the outer profile; - a strip, referred to as holding strip, extending longitudinally and fixed on one of the faces of one of the inner or outer profiles, referred to as substrate profile, the holding strip having a coefficient of thermal expansion less than that of all of the materials comprising the inner, outer profiles and the bar and a longitudinal elastic modulus that is greater than each one of these materials, characterized in that the holding strip consists of a unidirectional fibrous web, the fibers of the fibrous web constituting the strip being oriented parallel to the longitudinal direction of the profile.
A robot for picking one or more parts randomly distributed in a bin characterized in that it comprises: - a moveable arm; - a computing device connected to said robot for controlling motion of said moveable arm; - a tool connected to said moveable arm for picking one or more of said parts from said bin; - a tool other than said picking tool mounted on said robot for stirring one or more of said one or more randomly distributed parts in said bin, when said computing device determines that a predetermined event requiring stirring of said parts has occurred; and characterized in that it comprises a - force sensing means (52, 72, 92) for sending a signal to said computing device indicative of said tool other than said picking tool contacting one or more of said randomly distributed parts in said bin when stirring is performed. - a moveable arm; - a computing device connected to said robot for controlling motion of said moveable arm; - a tool connected to said moveable arm for picking one or more of said parts from said bin; - a tool other than said picking tool mounted on said robot for stirring one or more of said one or more randomly distributed parts in said bin, when said computing device determines that a predetermined event requiring stirring of said parts has occurred; and characterized in that it comprises a - force sensing means (52, 72, 92) for sending a signal to said computing device indicative of said tool other than said picking tool contacting one or more of said randomly distributed parts in said bin when stirring is performed.