mhurhangee/ep-ind-claims huggingface dataset:
A method for scheduling uplink data transmission for a plurality of terminals in a wireless communication system, comprising: forming one or more sets of terminals for possible transmission on a channel, wherein each set includes a unique combination of terminals and corresponds to a hypothesis to be evaluated; evaluating performance of each hypothesis; selecting one of the one or more evaluated hypotheses based on their performance; and scheduling the terminals in the selected hypothesis for data transmission on the channel; wherein the one or more sets of terminals are formed from terminals (106a-106h) of a plurality of types, wherein each terminal of a first type is capable of transmitting a single data stream on a single transmission channel and each terminal of a second type is capable of transmitting multiple independent data streams on multiple transmission channels; wherein evaluating performance of each hypothesis comprises forming one or more orderings of the terminals in each set, wherein each terminal ordering corresponds to a sub-hypothesis to be evaluated, wherein the performance of each sub-hypothesis is evaluated and one of the plurality of sub-hypotheses is selected based on their performance, scheduling the terminals in the selected sub-hypothesis for data transmission on the channel, and wherein signals transmitted from the scheduled terminals are processed in an order defined by the selected sub-hypothesis; wherein the performance of each subhypothesis is evaluated based on a successive cancellation receiver processing scheme. forming one or more sets of terminals for possible transmission on a channel, wherein each set includes a unique combination of terminals and corresponds to a hypothesis to be evaluated; evaluating performance of each hypothesis; selecting one of the one or more evaluated hypotheses based on their performance; and scheduling the terminals in the selected hypothesis for data transmission on the channel; wherein the one or more sets of terminals are formed from terminals (106a-106h) of a plurality of types, wherein each terminal of a first type is capable of transmitting a single data stream on a single transmission channel and each terminal of a second type is capable of transmitting multiple independent data streams on multiple transmission channels; wherein evaluating performance of each hypothesis comprises forming one or more orderings of the terminals in each set, wherein each terminal ordering corresponds to a sub-hypothesis to be evaluated, wherein the performance of each sub-hypothesis is evaluated and one of the plurality of sub-hypotheses is selected based on their performance, scheduling the terminals in the selected sub-hypothesis for data transmission on the channel, and
A method implemented as part of an engine including a just-in-time compiler, the method being for executing a machine code based on a dynamic language, wherein the machine code is compiled from a byte code with the just-in-time compiler, and wherein the just-in-time compiler generates the machine code that is tailored to objects of a particular shape and values of a particular type, the method including: creating a guard as a value stored in a data structure and representative of expected conditions for a reusable portion of the machine code, wherein the guard is used to check the expected conditions including an object's type and attributes of an object's properties, wherein creating the guard includes allocating, with a recycler, an object to be the guard in memory, wherein a predetermined slot of the object is used as the guard; comparing, during execution of the machine code, the value representative of the expected conditions to an actual value encountered later during execution of a portion of the machine code, wherein remaining object contents are irrelevant in the comparing of the value representative of the expected type of input to an actual value encountered later during execution of a portion of the machine code; executing the machine code if the actual value corresponds with the value representative of the expected conditions; and invalidating the guard if any of the expected conditions changes, wherein if the attributes of any of the properties change, the guard is invalidated by writing a selected invalid value at an address of the guard. creating a guard as a value stored in a data structure and representative of expected conditions for a reusable portion of the machine code, wherein the guard is used to check the expected conditions including an object's type and attributes of an object's properties, wherein creating the guard includes allocating, with a recycler, an object to be the guard in memory, wherein a predetermined slot of the object is used as the guard; comparing, during execution of the machine code, the value representative of the expected conditions to an actual value encountered later during execution of a portion of the machine code, wherein remaining object contents are irrelevant in the comparing of the value representative of the expected type of input to an actual value encountered later during execution of a portion of the machine code; executing the machine code if the actual value corresponds with the value representative of the expected conditions; and invalidating the guard if any of the expected conditions changes, wherein if the attributes of any of the properties change, the guard is invalidated by writing a selected invalid value at an address of the guard.
A near field communications device (102, 104,200, 1000), comprising: an antenna module, having a plurality of antenna components (304, 502, 602, 702, 804, 810, 902), configured and arranged to receive a communication signal, wherein the antenna module is configured to receive the communication signal from a magnetic field generated by a second communications device; a signal metric measurement module, coupled to the antenna module, configured to determine a signal metric (264, 300), the signal metric changing from a first metric value to a second metric value in response to an operator being sufficiently proximate to an antenna component (304, 502, 602, 702, 804, 810, 902) from among the plurality of antenna components (304, 502, 602, 702, 804, 810, 902); a controller module configured to control the overall operation and/or configuration of the near field communications device, to determine a change between the first metric value and the second metric value and to determine a location of the antenna component (304, 502, 602, 702, 804, 810, 902) that is sufficiently proximate to the operator based upon the change; and a power harvesting module configured to harvest a power source from the received communication signal to operate the antenna module, the signal metric measurement module, and/or the controller module. an antenna module, having a plurality of antenna components (304, 502, 602, 702, 804, 810, 902), configured and arranged to receive a communication signal, wherein the antenna module is configured to receive the communication signal from a magnetic field generated by a second communications device; a signal metric measurement module, coupled to the antenna module, configured to determine a signal metric (264, 300), the signal metric changing from a first metric value to a second metric value in response to an operator being sufficiently proximate to an antenna component (304, 502, 602, 702, 804, 810, 902) from among the plurality of antenna components (304, 502, 602, 702, 804, 810, 902); a controller module configured to control the overall operation and/or configuration of the near field communications device, to determine a change between the first metric value and the second metric value and to determine a location of the antenna component (304, 502, 602, 702, 804, 810, 902) that is sufficiently proximate to the operator based upon the change; and a power harvesting module configured to harvest a power source from the received communication signal to operate the antenna module, the signal metric measurement module, and/or the controller module.
Method for forming a welding spout of a plastic tank from a multilayer parison during the blowing of this parison for the manufacture of the tank, characterized in that it consists in carrying out the following steps in a blow mould comprising two mould cavities and a core, one of the mould cavities defining a cavity for forming the welding spout, said cavity having a mouth opening out opposite the core: - a pusher is provided on the core facing the mouth of the cavity of the impression, being capable of taking a first position set back from the cavity and a second position wherein it occupies part of the mouth of the cavity, - the pusher is positioned in its first position, - the parison is blown out to conform to the shape of the impressions, - while the parison creeps into the cavity, the pusher is advanced to its second position. - a pusher is provided on the core facing the mouth of the cavity of the impression, being capable of taking a first position set back from the cavity and a second position wherein it occupies part of the mouth of the cavity, - the pusher is positioned in its first position, - the parison is blown out to conform to the shape of the impressions, - while the parison creeps into the cavity, the pusher is advanced to its second position.
A bus bar assembly comprising: a first bus bar with a fuse connection structure, the fuse connection structure including: connection portions (38,39,40,41,42) provided at one side portion and the other side portion of the bus bar; a notch formed in an intermediate plate portion of said bus bar, and said plate portion having a fusible portion extending across said notch; and a pair of hole portions for mounting a post-mounting fuse, the pair of said hole portions formed through said plate portion, and being disposed at opposite sides of said notch, respectively, and said post-mounting fuse being thread-fastened and connected to said hole portions; and a second bus bar, covered with an insulating portion which has a plurality of projections, wherein said second bus bar is fixed to said one side portion and the other side portion of said bus bar by the projections of the insulating portion, wherein distal end portions of the projections are passed respectively through holes formed through the first bus bar. a first bus bar with a fuse connection structure, the fuse connection structure including: connection portions (38,39,40,41,42) provided at one side portion and the other side portion of the bus bar; a notch formed in an intermediate plate portion of said bus bar, and said plate portion having a fusible portion extending across said notch; and a pair of hole portions for mounting a post-mounting fuse, the pair of said hole portions formed through said plate portion, and being disposed at opposite sides of said notch, respectively, and said post-mounting fuse being thread-fastened and connected to said hole portions; and a second bus bar, covered with an insulating portion which has a plurality of projections, wherein said second bus bar is fixed to said one side portion and the other side portion of said bus bar by the projections of the insulating portion, wherein distal end portions of the projections are passed respectively through holes formed through the first bus bar. connection portions (38,39,40,41,42) provided at one side portion and the other side portion of the bus bar; a notch formed in an intermediate plate portion of said bus bar, and said plate portion having a fusible portion extending across said notch; and a pair of hole portions for mounting a post-mounting fuse, the pair of said hole portions formed through said plate portion, and being disposed at opposite sides of said notch, respectively, and said post-mounting fuse being thread-fastened and connected to said hole portions; and a second bus bar, covered with an insulating portion which has a plurality of projections, wherein said second bus bar is fixed to said one side portion and the other side portion of said bus bar by the projections of the insulating portion, wherein distal end portions of the projections are passed respectively through holes formed through the first bus bar.
A system for forming charge patterns on micro objects, said system comprising: a micro object including a rectifying device, the rectifying device exhibiting an asymmetric current-voltage (I-V) response curve; and a device external to the micro object configured to induce the flow of charge through the rectifying device such that a charge pattern is formed on the micro object. a micro object including a rectifying device, the rectifying device exhibiting an asymmetric current-voltage (I-V) response curve; and a device external to the micro object configured to induce the flow of charge through the rectifying device such that a charge pattern is formed on the micro object.
A method of manufacturing a vitreous silica crucible comprising the step of heating and melting silica powder deposited on an inner surface of a rotating mold to vitrify the silica powder, wherein vapor-containing air with a relative humidity of 70% and a temperature of 25°C is introduced for 10 minutes at a flow rate of 120 m 3 /min or for 20 minutes at a flow rate of 80 m 3 /min right after the melting of the silica powder to manufacture a vitreous silica crucible where a region between 0.3 mm and 3 mm from an inner surface of the crucible has an OH group concentration and concentration gradient which decrease as a distance from the inner surface increases, wherein an amount of vapor is adjusted so as to obtain the OH group concentration and concentration gradient.
A system for supplying negative ions using multi-pulsed plasma sources, the system comprising: a plurality of plasma generators (110a, 110b) each configured to generate plasma by applying pulsed power to electronegative gas; a negative ion supply unit connected to each of the plurality of plasma generators to receive the generated plasma therefrom; and a controller connected to the plurality of plasma generators (110a, 110b) and configured to control characteristics of the pulsed powers supplied to the respective plasma generators, and to adjust phase shift between signals associated with pulsed power envelopes such that when one of the plasma generators is in an active-glow state, another plasma generator is switched to an after-glow state, wherein the plurality of plasma generators (110a, 110b) generates the plasmas in an alternating manner depending on the phase shift between the signals associated with pulsed power envelopes in a manner that a decreased amount of negative ion supply from one of the plasma generators in the active-glow state to the negative ion supply unit is compensated for by an additional supply of negative ions supplied from another plasma generator in the after-glow state to the negative ion supply unit. a plurality of plasma generators (110a, 110b) each configured to generate plasma by applying pulsed power to electronegative gas; a negative ion supply unit connected to each of the plurality of plasma generators to receive the generated plasma therefrom; and a controller connected to the plurality of plasma generators (110a, 110b) and configured to control characteristics of the pulsed powers supplied to the respective plasma generators, and to adjust phase shift between signals associated with pulsed power envelopes such that when one of the plasma generators is in an active-glow state, another plasma generator is switched to an after-glow state, wherein the plurality of plasma generators (110a, 110b) generates the plasmas in an alternating manner depending on the phase shift between the signals associated with pulsed power envelopes in a manner that a decreased amount of negative ion supply from one of the plasma generators in the active-glow state to the negative ion supply unit is compensated for by an additional supply of negative ions supplied from another plasma generator in the after-glow state to the negative ion supply unit.
A hair care appliance, comprising: a handle and a body movably coupled to one another at a joint such that the body is movable between a straight configuration in which the body is longitudinally aligned with a longitudinal axis of the handle and a bent configuration in which the body extends along an axis transverse to the longitudinal axis of the handle, the handle and the body having a fluid flow path extending there through from an inlet in the handle to an outlet in the body, and a heater; characterised in that a diverter is disposed in the body and configured to partition fluid in the fluid flow path in both the straight and bent configurations, to provide a balanced fluid flow to upper and lower aspects of the heater; and the heater is positioned in the body between the diverter and the outlet. a heater; characterised in that a diverter is disposed in the body and configured to partition fluid in the fluid flow path in both the straight and bent configurations, to provide a balanced fluid flow to upper and lower aspects of the heater; and the heater is positioned in the body between the diverter and the outlet.
Actuator device for a gate drive, said device comprising a first actuator means (130, 30), a second actuator means (20, 40) and a coupling device for coupling and/or decoupling said actuator device to and from a driving unit, wherein at least one of said actuator means (130, 30, 20, 40) is operable for being linearly guided along a guide device and wherein said coupling device is switchable from a locking position to an unlocking position and vice versa in such a manner that in said unlocking position the first actuator means (130, 30) and the second actuator means (20 40) is decoupled and in said locking position the first actuator means (130, 30) is coupled to the second actuator means (20, 40) and wherein a means is provided for retaining said coupling device in said unlocking position and for retaining said coupling device in the locking position, wherein said coupling device comprises at least one movable coupling element which for coupling said first actuator means and said second actuator means engages in a recess and can be removed from said recess for decoupling said first actuator means and said second actuator means, characterized by at least one biasing means operable for moving said coupling element from the locking position to the unlocking position and vice versa, wherein said biasing means comprises a bi-stable member.
A portable liquid medicine administration device (10A, 10B) for continuous or intermittent administration of a liquid medicine into a living body, the device comprising: a liquidmedicine administration device main body filled with the liquid medicine; and a cradle to which the liquid medicine administration device main body is detachably attached, wherein the liquid medicine administration device main body includes: an alarm unit that outputs an alarm on the basis of a notification event in a state of being attached to the cradle; and an alarm control unit that stops the alarm on the basis of a change in a relative position between the cradle and the liquid medicine administration device main body. a liquidmedicine administration device main body filled with the liquid medicine; and a cradle to which the liquid medicine administration device main body is detachably attached, wherein the liquid medicine administration device main body includes: an alarm unit that outputs an alarm on the basis of a notification event in a state of being attached to the cradle; and an alarm control unit that stops the alarm on the basis of a change in a relative position between the cradle and the liquid medicine administration device main body. an alarm unit that outputs an alarm on the basis of a notification event in a state of being attached to the cradle; and an alarm control unit that stops the alarm on the basis of a change in a relative position between the cradle and the liquid medicine administration device main body.
Cosmetic composition for making up and/or caring for the skin and/or the lips, comprising, in a physiologically acceptable medium, at least one fatty phase comprising: - at least one hydrocarbon-based resin with a number-average molecular weight of less than or equal to 10 000 g/mol, - at least one hydrocarbon-based block polymer, - from 12% to 60% by total weight of a mixture of non volatile non phenylated silicone oils having at least a dimethicone part, relative to the total weight of the composition, and - from 1% to 80% by total weight of non volatile hydrocarbonated apolar oil(s), relative to the total weight of the composition, wherein: - the said resin is an indene hydrocarbon-based resin, which is preferably hydrogenated, preferably derived from the polymerization of an indene monomer and of a monomer chosen from styrene, methylindene and methylstyrene, and mixtures thereof, - the hydrocarbon-based block copolymer is chosen from styrene-ethylene/propylene, styrene-ethylene/butadiene, styrene-ethylene/butylene diblock copolymers, which are optionally hydrogenated, and styrene-ethylene/butadienestyrene, styrene-butylene/ethylene-styrene, styrene-isoprene-styrene and styrenebutadiene-styrene triblock copolymers, which are optionally hydrogenated, and mixtures thereof, - the non volatile hydrocarbonated apolar oil is chosen from polybutene, hydrogenated polybutene, polyisobutene, hydrogenated polyisobutene, polydecene, hydrogenated polydecene, liquid paraffin, squalane, and mixture thereof, and - the non volatile non phenylated silicone oil having at least a dimethicone part is chosen from polydimethylsiloxanes. - at least one hydrocarbon-based resin with a number-average molecular weight of less than or equal to 10 000 g/mol, - at least one hydrocarbon-based block polymer, - from 12% to 60% by total weight of a mixture of non volatile non phenylated silicone oils having at least a dimethicone part, relative to the total weight of the composition, and - from 1% to 80% by total weight of non volatile hydrocarbonated apolar oil(s), relative to the total weight of the composition, - the said resin is an indene hydrocarbon-based resin, which is preferably hydrogenated, preferably derived from the polymerization of an indene monomer and of a monomer chosen from styrene, methylindene and methylstyrene, and mixtures thereof, - the hydrocarbon-based block copolymer is chosen from styrene-ethylene/propylene, styrene-ethylene/butadiene, styrene-ethylene/butylene diblock copolymers, which are optionally hydrogenated, and styrene-ethylene/butadienestyrene, styrene-butylene/ethylene-styrene, styrene-isoprene-styrene and styrenebutadiene-styrene triblock copolymers, which are optionally hydrogenated, and mixtures thereof, - the non volatile hydrocarbonated apolar oil is chosen from polybutene, hydrogenated polybutene, polyisobutene, hydrogenated polyisobutene, polydecene, hydrogenated polydecene, liquid paraffin, squalane, and mixture thereof, and - the non volatile non phenylated silicone oil having at least a dimethicone part is chosen from polydimethylsiloxanes.