mhurhangee/ep-ind-claims huggingface dataset:
A method for configuring the maximum idle period of a wireless local area network station, comprising: receiving, by an access point, AP, an association request or a re-association request sent from a wireless local area network station, STA; the method being further characterized by determining, by the AP, whether or not the STA supports an extended values of a maximum idle period defined in the IEEE 802.11v according to a preset flag in the association request or re-association request, wherein the extended values is greater than the maximum idle period; and if the STA fails to support the extended values, configuring, by the AP, the maximum idle period of the STA within the maximum idle period; and if the STA supports the extended values, configuring, by the AP, the maximum idle period of the STA within the maximum idle period or the extended values of the maximum idle period according to an instruction from an upper layer; wherein the step that the AP configures the maximum idle period of the STA within the extended values of the maximum idle period according to an instruction from an upper layer comprises that: if the instruction from the upper layer instructs the AP to configure the extended values of the maximum idle period for the STA supporting the extended values of the maximum idle period, then the AP sends an association response or a re-association response indicating the extended values of the maximum idle period; and the STA sets the maximum idle period thereof according to the extended values of the maximum idle period. receiving, by an access point, AP, an association request or a re-association request sent from a wireless local area network station, STA; the method being further characterized by determining, by the AP, whether or not the STA supports an extended values of a maximum idle period defined in the IEEE 802.11v according to a preset flag in the association request or re-association request, wherein the extended values is greater than the maximum idle period; and if the STA fails to support the extended values, configuring, by the AP, the maximum idle period of the STA within the maximum idle period; and if the STA supports the extended values, configuring, by the AP, the maximum idle period of the STA within the maximum idle period or the extended values of the maximum idle period according to an instruction from an upper layer; wherein the step that the AP configures the maximum idle period of the STA within the extended values of the maximum idle period according to an instruction from an upper layer comprises that: if the instruction from the upper layer instructs the AP to configure the extended values of the maximum idle period for the STA supporting the extended values of the maximum idle period, then the AP sends an association response or a re-association response indicating the extended values of the maximum idle period; and the STA sets the maximum idle period thereof according to the extended values of the maximum idle period.
A light emitting device comprising: a plurality of LED filaments, each filament comprising a flexible substrate and a plurality of LED light sources arranged on the flexible substrate, and an encapsulation (5a, 5b) encapsulating the plurality of LED light sources and at least a part of one side of the flexible substrate, wherein at least one LED filament of said plurality of LED filaments comprises at least one knot in the form of intentional complication in cordage of the at least one LED filament, wherein the intentional complication in cordage is any one of a fastening made by looping the at least one LED filament on itself or together with a further LED filament of the plurality of filaments and tightening it, and wherein at least two of the plurality of LED filaments are connected to one another or tied together by the at least one knot. a plurality of LED filaments, each filament comprising a flexible substrate and a plurality of LED light sources arranged on the flexible substrate, and an encapsulation (5a, 5b) encapsulating the plurality of LED light sources and at least a part of one side of the flexible substrate, wherein at least one LED filament of said plurality of LED filaments comprises at least one knot in the form of intentional complication in cordage of the at least one LED filament, wherein the intentional complication in cordage is any one of a fastening made by looping the at least one LED filament on itself or together with a further LED filament of the plurality of filaments and tightening it, and wherein at least two of the plurality of LED filaments are connected to one another or tied together by the at least one knot.
A process for the separation of monoethylene glycol and 1,2-butanediol (1,2-BDO) from a first mixture comprising MEG and 1,2-BDO in a weight ratio of at least 10:1 (MEG:1,2-BDO), said process comprising the steps of; (i) providing the first mixture as a feed to a distillation column at a point in the range of from 20 to 80% of the column height; (ii) operating the distillation at a temperature in the range of from 120 to 190°C and at a pressure in the range of from 5kPa to atmospheric pressure; (iii) removing an MEG stream from the distillation column at a point below the point at which the first mixture is fed; (iv) removing an overheads stream comprising an azeotrope of MEG and 1,2-BDO. (i) providing the first mixture as a feed to a distillation column at a point in the range of from 20 to 80% of the column height; (ii) operating the distillation at a temperature in the range of from 120 to 190°C and at a pressure in the range of from 5kPa to atmospheric pressure; (iii) removing an MEG stream from the distillation column at a point below the point at which the first mixture is fed; (iv) removing an overheads stream comprising an azeotrope of MEG and 1,2-BDO.
A connector assembly (200, 205, 600) for coupling a plasma torch to a plasma torch receptacle, the connector assembly comprising: a connector body (210, 240, 321, 400, 410, 500, 600, 605) configured to receive a mating connector body, the connector body attachable to the receptacle or the plasma torch; at least one circumferentially shaped blade (215, 216, 245, 246, 304, 315, 309, 316) extending axially from a surface of the connector body, the at least one circumferentially shaped blade forming a portion of a blade ring; and at least one gap (230, 231, 250, 251, 620, 621, 630, 631) disposed relative to the surface (225, 320) of the connector body defined by and between edges of the at least one circumferentially shaped blade, a distance of the at least one gap between the edges of the at least one circumferentially shaped blade extending along a portion of the circumference of the blade ring, wherein the at least one gap is distributed about the blade ring, the at least one gap is shaped to align with a corresponding circumferentially shaped blade of the mating connector body, wherein the at least one circumferentially shaped blade has a pitch (302, 307) along a circumferential outer edge along the blade ring the pitch is configured to facilitate rotational alignment of the connector assembly, wherein when a rotational motion is applied by a user to either the connector body or the mating connector body, the pitch is configured to facilitate rotation in a single direction, and the pitch is configured to provide a guide to the user to help rotate the connector body in a single direction. a connector body (210, 240, 321, 400, 410, 500, 600, 605) configured to receive a mating connector body, the connector body attachable to the receptacle or the plasma torch; at least one circumferentially shaped blade (215, 216, 245, 246, 304, 315, 309, 316) extending axially from a surface of the connector body, the at least one circumferentially shaped blade forming a portion of a blade ring; and at least one gap (230, 231, 250, 251, 620, 621, 630, 631) disposed relative to the surface (225, 320) of the connector body defined by and between edges of the at least one circumferentially shaped blade, a distance of the at least one gap between the edges of the at least one circumferentially shaped blade extending along a portion of the circumference of the blade ring, wherein the at least one gap is distributed about the blade ring, the at least one gap is shaped to align with a corresponding circumferentially shaped blade of the mating connector body, wherein the at least one circumferentially shaped blade has a pitch (302, 307) along a circumferential outer edge along the blade ring the pitch is configured to facilitate rotational alignment of the connector assembly, wherein when a rotational motion is applied by a user to either the connector body or the mating connector body, the pitch is configured to facilitate rotation in a single direction, and the pitch is configured to provide a guide to the user to help rotate the connector body in a single direction.
An impact absorption structure for a vehicle in which right and left crush cans (5, 4) are respectively attached to vehicle front end portions of front side frames (3, 2) disposed on both right and left sides of the vehicle and extending in a vehicle front and rear direction, and a bumper beam is attached to vehicle front end portions of the right and left crush cans (5, 4) to extend in a vehicle width direction, wherein each of the crush cans is formed in a cylindrical shape extending in the vehicle front and rear direction and is provided therein with a rib (46, 47) extending in the vehicle front and rear direction continuously to an inner surface of the crush can (5, 4), characterized in that the front side frame (3, 2) includes an inner plate part and an outer plate part in the vehicle width direction and at least one of the inner plate part and the outer plate part is provided with a recessed linear portion (24a, 23a) recessed toward an inner side of the front side frame (3, 2) and extending in the vehicle front and rear direction, and the recessed linear portion is disposed at approximately a same height as a height of the rib (46, 47) of the crush can (5, 4).
A rubber composition comprising: a rubber component containing a styrene-butadiene copolymer rubber having a glass transition temperature (Tg) of -30°C or less, and a rubber other than the styrene-butadiene rubber, the rubber being different in SP value by 0.35 (cal/cm 3) 1/2 or less from the styrene-butadiene copolymer rubber; a thermoplastic resin; and a filler, the rubber component containing 50 to 90 mass% of the styrene-butadiene copolymer rubber, containing 10 to 50 mass% of the rubber different in SP value from the styrene-butadiene copolymer rubber by 0.35 (cal/cm 3) 1/2 or less, and containing 0 to 10 mass% of a rubber being different in SP value from the styrene-butadiene copolymer rubber by more than 0.35 (cal/cm 3) 1/2, wherein the thermoplastic resin is compounded by 5 to 40 parts by mass with respect to 100 parts by mass of the rubber component, the rubber composition containing silica as the filler, wherein the filler is compounded by 60 parts by mass or more with respect to 100 parts by mass of the rubber component, and the silica is compounded by 40 to 70 parts by mass with respect to 100 parts by mass of the rubber component.
A method of correlating phenotypic and genotypic information on a cell by cell basis comprising: providing a first solution containing a plurality of cells to which is added at least one reagent for amplifying a target nucleic acid sequence and a second solution that is immiscible with the first solution; sequentially analyzing the phenotype of each cell in the first solution; combining the first solution and second solution such that a stream comprising a plurality of nanoliter microvessels are formed, wherein a majority of the nanoliter microvessels encapsulate a single cell or remain empty of cells; encoding the stream of nanoliter microvessels with a reference signal; subjecting the nanoliter microvessels to thermal conditions suitable to amplify the target nucleic acid; measuring the amplified nucleic acid sequence in each microvessel; and decoding the reference signal to correlate the measurement of the amplified nucleic acid sequence from each microvessel with the phenotype of the cell in the microvessel. providing a first solution containing a plurality of cells to which is added at least one reagent for amplifying a target nucleic acid sequence and a second solution that is immiscible with the first solution; sequentially analyzing the phenotype of each cell in the first solution; combining the first solution and second solution such that a stream comprising a plurality of nanoliter microvessels are formed, wherein a majority of the nanoliter microvessels encapsulate a single cell or remain empty of cells; encoding the stream of nanoliter microvessels with a reference signal; subjecting the nanoliter microvessels to thermal conditions suitable to amplify the target nucleic acid; measuring the amplified nucleic acid sequence in each microvessel; and decoding the reference signal to correlate the measurement of the amplified nucleic acid sequence from each microvessel with the phenotype of the cell in the microvessel.
A prosthetic device for providing an elongate digit with compound movement comprising: a) An anchor portion having a bearing part 30a and a housing part 30b; b) a base portion operable to rotate the elongate digit, having a proximal side connected to the elongate digit and a distal side connected to said anchor portion through bearing part 30a; c) the elongate digit having a proximal end and a distal end and extending along a longitudinal axis X d) a first portion of a pivot connection mounted on the base portion; e) a second portion of a pivot connection mounted on the proximal end of the digit and being connected to the first portion of the pivot connection f) an actuator to cause pivotal movement of said digit around said pivot connection (16a, 16b); wherein g) said base portion includes a second longitudinal axis X2 extending between said proximal side and said distal side of the base portion and a bearing between the base portion and said anchor portion and in which said base portion is mounted to said anchor portion via said bearing and rotatable about said second longitudinal axis X2. a) An anchor portion having a bearing part 30a and a housing part 30b; b) a base portion operable to rotate the elongate digit, having a proximal side connected to the elongate digit and a distal side connected to said anchor portion through bearing part 30a; c) the elongate digit having a proximal end and a distal end and extending along a longitudinal axis X d) a first portion of a pivot connection mounted on the base portion; e) a second portion of a pivot connection mounted on the proximal end of the digit and being connected to the first portion of the pivot connection f) an actuator to cause pivotal movement of said digit around said pivot connection (16a, 16b); wherein g) said base portion includes a second longitudinal axis X2 extending between said proximal side and said distal side of the base portion and a bearing between the base portion and said anchor portion and in which said base portion is mounted to said anchor portion via said bearing and rotatable about said second longitudinal axis X2.
Apparatus for producing an object by sequentially forming thin layers of a construction material one on top of the other responsive to data defining the object, the apparatus comprising: a printing head block comprising: a plurality of printing heads, each printing head of the plurality comprising a manifold through which construction material is dispensed; a first reservoir (401, 402) coupled to at least one of the plurality of printing heads and adapted to receive construction material to be used by the at least one of the plurality of printing heads; a second reservoir (403, 404) adapted to collect construction material flowing from the first reservoir (401, 402), wherein the first reservoir (401, 402) and the second reservoir (403, 404) are connected via the manifold on opposite sides of the manifold and wherein the connection provides free flow of the construction material into the second reservoir (403, 404); and a vacuum pump coupled to the second reservoir (403, 404) and adapted to maintain a vacuum in both the first reservoir (401, 402) and second reservoir (403, 404). a printing head block comprising: a plurality of printing heads, each printing head of the plurality comprising a manifold through which construction material is dispensed; a first reservoir (401, 402) coupled to at least one of the plurality of printing heads and adapted to receive construction material to be used by the at least one of the plurality of printing heads; a plurality of printing heads, each printing head of the plurality comprising a manifold through which construction material is dispensed; a first reservoir (401, 402) coupled to at least one of the plurality of printing heads and adapted to receive construction material to be used by the at least one of the plurality of printing heads; a second reservoir (403, 404) adapted to collect construction material flowing from the first reservoir (401, 402), wherein the first reservoir (401, 402) and the second reservoir (403, 404) are connected via the manifold on opposite sides of the manifold and wherein the connection provides free flow of the construction material into the second reservoir (403, 404); and a vacuum pump coupled to the second reservoir (403, 404) and adapted to maintain a vacuum in both the first reservoir (401, 402) and second reservoir (403, 404).
A non-transitory, computer-readable medium storing instructions configured to cause network infrastructure information to be updated between a slave application and a master application, wherein the instructions are carried out at the slave application and are configured to cause a control system to: receive a proposed update to a grid system; upon receipt of the proposed update, create a patch based on the proposed update to amend infrastructure information relating to the grid system; and implement the patch by storing the amended infrastructure information in memory; send a patch update related to the patch to the master application; characterized in that the instructions carried out at the slave application are further configured to: receive a formal update of the infrastructure information from the master application; and remove the patch by replacing it with the formal update received from the master application. receive a proposed update to a grid system; upon receipt of the proposed update, create a patch based on the proposed update to amend infrastructure information relating to the grid system; and implement the patch by storing the amended infrastructure information in memory; send a patch update related to the patch to the master application; receive a formal update of the infrastructure information from the master application; and remove the patch by replacing it with the formal update received from the master application.
Apparatus for use with a flue gas, a supply of liquid and a flow of brine, the brine being adapted to exothermically absorb moisture from the flue gas to produce heat, the apparatus, comprising: a flue; a vessel which, in use, receives liquid from a supply and which has an interior including a headspace, the vessel being disposed within the flue in a spaced relation to define a flow channel between the vessel and the flue and through which a flue gas passes in use; a distributor which, in use, receives a brine and channels same to the flow channel; a plurality of heat pipes each leading between the flow channel and an interior of the vessel, the heat pipes and the vessel defining a packed absorption column in which the heat pipes define the packing, the column providing for the absorption of moisture from the flue gas and the generation of heat, the heat pipes further withdrawing heat from the flow channel and delivering same to the liquid in the vessel to produce gas; a conduit coupled to the headspace of the vessel for venting the gas; a collector for collecting the water-enriched brine, wherein the collector is defined by a reservoir and the flue includes a stack extending vertically from the collector, the stack being defined by an annular wall having an inlet defined therethrough for receiving the flue gas; and a regenerator for receiving the water-enriched brine to regenerate the brine and produce the flow of water. a flue; a vessel which, in use, receives liquid from a supply and which has an interior including a headspace, the vessel being disposed within the flue in a spaced relation to define a flow channel between the vessel and the flue and through which a flue gas passes in use; a distributor which, in use, receives a brine and channels same to the flow channel; a plurality of heat pipes each leading between the flow channel and an interior of the vessel, the heat pipes and the vessel defining a packed absorption column in which the heat pipes define the packing, the column providing for the absorption of moisture from the flue gas and the generation of heat, the heat pipes further withdrawing heat from the flow channel and delivering same to the liquid in the vessel to produce gas; a conduit coupled to the headspace of the vessel for venting the gas; a collector for collecting the water-enriched brine, wherein the collector is defined by a reservoir and the flue includes a stack extending vertically from the collector, the stack being defined by an annular wall having an inlet defined therethrough for receiving the flue gas; and a regenerator for receiving the water-enriched brine to regenerate the brine and produce the flow of water.