mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a cruise control governor operable to maintain a set speed of a vehicle by commanding fueling to an engine of the vehicle according to a plurality of goal droop curves, where said goal droop curves comprise: - an isochronous droop curve which coincides with the set speed and is bounded by a first point below a full torque curve of the engine and by a second point above a zero torque curve of the engine. - a top droop curve which is bounded by the first point and by a third point on the full torque curve; - a bottom droop curve which is bounded by the second point and by a fourth point on the zero torque curve, the method comprising the steps of: - performing command according to said droop curves; - registering that the vehicle soon will enter an uphill slope; - estimating in a vehicle position before entering said uphill slope if a downshift in a transmission of the vehicle will occur when travelling said uphill slope during a coming time period ( t eslimation); - if said downshift is estimated to occur then performing a fuel saving action during said time period in order to avoid said downshift, where said fuel saving action being to during said time period performing command according to a second isochronous curve (5, 6, 7) instead of performing command according to at least one of or both of said top and bottom droop curves. - an isochronous droop curve which coincides with the set speed and is bounded by a first point below a full torque curve of the engine and by a second point above a zero torque curve of the engine. - a top droop curve which is bounded by the first point and by a third point on the full torque curve; - a bottom droop curve which is bounded by the second point and by a fourth point on the zero torque curve, - performing command according to said droop curves; - registering that the vehicle soon will enter an uphill slope; - estimating in a vehicle position before entering said uphill slope if a downshift in a transmission of the vehicle will occur when travelling said uphill slope during a coming time period ( t eslimation); - if said downshift is estimated to occur then performing a fuel saving action during said time period in order to avoid said downshift, where said fuel saving action being to during said time period performing command according to a second isochronous curve (5, 6, 7) instead of performing command according to at least one of or both of said top and bottom droop curves.
Double-sided, indexable face milling insert, comprising an upperside and an underside, a neutral plane parallel to the same and with which a geometrical centre axis forms a right angle, as well as a plurality of alternately applicable cutting edges, which are formed along circumferential borderlines in transitions between a number of clearance surfaces (13, 15) and the upperside as well as the underside, and which individually include a chip-removing main edge and a surface-wiping secondary edge, which - as viewed in planar view - forms an obtuse angle with the main edge, characterized in that, between each pair of upper and lower secondary edges, there extends a corner surface that serves as a clearance surface and connects to the secondary edges via part surfaces (151, 152), which - as viewed in side elevation -form an acute angle (η) with individual reference planes parallel to the neutral plane.
A non-human animal comprising at endogenous MHC loci: a first nucleotide sequence encoding a chimeric human/non-human MHC I polypeptide, wherein the human portion of the chimeric MHC I polypeptide comprises α1, α2, and α3 domains of a human MHC I polypeptide, and wherein the non-human portion of the chimeric MHC I polypeptide comprises transmembrane and cytoplasmic domains of an endogenous non-human MHC I polypeptide, a second nucleotide sequence encoding a chimeric human/non-human MHC II α polypeptide, wherein the human portion of the chimeric human/non-human MHC II α polypeptide comprises MHC II α1 and α2 domains of a human MHC II α polypeptide, and wherein the non-human portion of the chimeric MHC II α polypeptide comprises transmembrane and cytoplasmic domains of an endogenous non-human MHC II α polypeptide, and a third nucleotide sequence encoding a chimeric human/non-human MHC II β polypeptide, wherein the human portion of the chimeric human/non-human MHC II β polypeptide comprises MHC II β1 and β2 domains of a human MHC II β polypeptide, and wherein the non-human portion of the chimeric MHC II β polypeptide comprises transmembrane and cytoplasmic domains of an endogenous non-human MHC II β polypeptide, wherein the non-human animal expresses chimeric human/non-human MHC I and MHC II proteins from its endogenous non-human MHC locus. a first nucleotide sequence encoding a chimeric human/non-human MHC I polypeptide, wherein the human portion of the chimeric MHC I polypeptide comprises α1, α2, and α3 domains of a human MHC I polypeptide, and wherein the non-human portion of the chimeric MHC I polypeptide comprises transmembrane and cytoplasmic domains of an endogenous non-human MHC I polypeptide, a second nucleotide sequence encoding a chimeric human/non-human MHC II α polypeptide, wherein the human portion of the chimeric human/non-human MHC II α polypeptide comprises MHC II α1 and α2 domains of a human MHC II α polypeptide, and wherein the non-human portion of the chimeric MHC II α polypeptide comprises transmembrane and cytoplasmic domains of an endogenous non-human MHC II α polypeptide, and a third nucleotide sequence encoding a chimeric human/non-human MHC II β polypeptide, wherein the human portion of the chimeric human/non-human MHC II β polypeptide comprises MHC II β1 and β2 domains of a human MHC II β polypeptide, and wherein the non-human portion of the chimeric MHC II β polypeptide comprises transmembrane and cytoplasmic domains of an endogenous non-human MHC II β polypeptide, wherein the non-human animal expresses chimeric human/non-human MHC I and MHC II proteins from its endogenous non-human MHC locus.
A method for the simultaneous concentration and partial rectification of grape must comprising the use of nanofiltration in a single operation, wherein the grape must sugars are preferentially retained in the retentate stream and partially separated from the organic acids that preferentially permeate to the permeate stream, wherein the nanofiltration membranes have an active layer electrically charged, wherein the physico-chemical composition of the concentrates is determined by the operation mode during the concentration step, wherein nanofiltration is controlled by the concentration factor to yield the fractionation of the grape must into a retentate fraction rich in neutral sugars and a permeate fraction rich in organic acids and thus the specification of the final concentration factor of the grape must controls the degree of rectification, wherein the preferential permeation of organic acids is controlled by the concentration factor as the rejection coefficients to the organic acids decrease with increasing concentration factors, and wherein said nanofiltration is combined with electrodialysis in a hybrid process; characterized in that: - a polyamide composite membrane with a cut-off of 260 dalton is used; - in batch concentration mode the concentration factor reaches a value of 1.4 or 2.2. - a polyamide composite membrane with a cut-off of 260 dalton is used; - in batch concentration mode the concentration factor reaches a value of 1.4 or 2.2.
Method for tissue paper lamination, that combines DESL process, and Point to Point process, wherein, the first paper layer passes through its respective first embossing cylinder (5, 14) comprising elements of cylinders, the second paper layer passes through its respective second embossing cylinder (6, 15, 22), the two paper layers (3, 4) jointly operate with calendering rolls (7, 8, 16, 17) and other sizing rollers (10, 18), wherein after the embossing of the first and second paper layers (3, 4), the said layers (3, 4) overlap characterized in that the second embossing cylinder comprises combination of higher elements for DESL process and lower elements for Point to Point process, wherein top surfaces of the relief formed by lower elements of second embossing cylinder are glued to the top surfaces of the relief formed by the elements of the first embossing cylinder (5,14) such that reliefs formed by the elements of the first embossing cylinder are fitted with the reliefs formed by higher elements of the second embossing cylinder forming several reliefs on paper surface composing figures, ribbing and all sorts of drawings.
Process for the degradation of at least one polymer of an alkene carbonate at a temperature of between 120°C and 270°C, characterized in that the process comprises a reaction under air of a primary amine with the said at least one polymer which is a poly(alkene carbonate) polyol, the said reaction depolymerizing the said at least one polymer in order to obtain a non-polymeric degradation residue and being carried out in an oven in communication with a stream of air exterior to the said oven, the said stream of air being capable of extracting the said at least one poly(alkene carbonate) polyol as it is degraded.
A service transmission method, comprising: determining, by a group communication application server, based on a quantity of subscription terminals and cells to which the subscription terminals belong, the cells in which a service needs to be transmitted in multicast mode; obtaining, by the group communication application server, the coverage level of each subscription terminal; determining, by the group communication application server, a multicast coverage level of the multicast service in each cell based on the coverage level of the subscription terminals, wherein the multicast coverage level is a coverage level used when a network access device corresponding to the cell transmits the service in multicast mode; and sending, by the group communication application server, a multicast transmission indicator to a network access device of the multicast service through a broadcast multicast service center, BM-SC, a mobility management entity, MME, and a multimedia broadcast multicast service coordination entity, MCE, wherein the multicast transmission indicator carries multicast coverage level indication information, and the multicast coverage level indication information corresponds to the multicast coverage level. determining, by a group communication application server, based on a quantity of subscription terminals and cells to which the subscription terminals belong, the cells in which a service needs to be transmitted in multicast mode; obtaining, by the group communication application server, the coverage level of each subscription terminal; determining, by the group communication application server, a multicast coverage level of the multicast service in each cell based on the coverage level of the subscription terminals, wherein the multicast coverage level is a coverage level used when a network access device corresponding to the cell transmits the service in multicast mode; and sending, by the group communication application server, a multicast transmission indicator to a network access device of the multicast service through a broadcast multicast service center, BM-SC, a mobility management entity, MME, and a multimedia broadcast multicast service coordination entity, MCE, wherein the multicast transmission indicator carries multicast coverage level indication information, and the multicast coverage level indication information corresponds to the multicast coverage level.
A lamp system, comprising an air-cooled lamp responsive to application of electrical power thereto to emit radiation; a power supply for providing power to said air-cooled lamp; an air blower for blowing air onto said air-cooled lamp to cool said air-cooled lamp; and a blower driver responsive to the level of the power being provided to said air-cooled lamp by said power supply, characterized in that said blower driver is suitable for driving said air blower at a speed blowing air onto said air-cooled lamp with an air pressure having a non-linear relationship with the power level such that the non-linear relationship is substantially exponential or substantially defined by A p = (P - P 0) 2, where A p is air pressure, P is the power level of the power being provided to said air-cooled lamp, and P 0 is the power level that when provided to said air-cooled lamp requires no air to be blown onto said air-cooled lamp by said air blower, and at which P 0 amounts 5% of the air cooled lamp's intended full power level.
A liquid molding resin component for use in a reaction injection molding process, the liquid molding resin component comprising: a liquid resin reaction monomer comprising metathesis polymerizable cycloolefin; and nonswelling mica, wherein the nonswelling mica have an average particle size in a range of 35 micro m to 500 micro m and have a bulk density in a range of 0.10 g/ml to 0.27 g/ml. a liquid resin reaction monomer comprising metathesis polymerizable cycloolefin; and nonswelling mica, wherein the nonswelling mica have an average particle size in a range of 35 micro m to 500 micro m and have a bulk density in a range of 0.10 g/ml to 0.27 g/ml.
A method of evaluating security of script content (102-1,102-2), said method comprising: defining a policy (202-1, 202-2) for the script content (102-1,102-2) in a web page, said script content (102-1,102-2) providing interactions between a user and other content within the web page, said defined policy (202-1, 202-2) indicating an execution boundary of the script content (102-1,102-2), said execution boundary defining resource access of the script content; evaluating the script content (102-1,102-2) against the execution boundary in the defined policy; transforming, at runtime, at least a portion of the web page in response to the evaluating, instantiating a plurality of instances of the script content (102-1,102-2), and replacing the transformed portion of the script content to another property value mapping another script content, said another property value falling within the execution boundary of the defined policy when executed at runtime wherein each of the instantiated instances of the script content has an independent and separate execution boundary; and transmitting the web page with the transformed portion of the script content to be rendered in an application on a host device. defining a policy (202-1, 202-2) for the script content (102-1,102-2) in a web page, said script content (102-1,102-2) providing interactions between a user and other content within the web page, said defined policy (202-1, 202-2) indicating an execution boundary of the script content (102-1,102-2), said execution boundary defining resource access of the script content; evaluating the script content (102-1,102-2) against the execution boundary in the defined policy; transforming, at runtime, at least a portion of the web page in response to the evaluating, instantiating a plurality of instances of the script content (102-1,102-2), and replacing the transformed portion of the script content to another property value mapping another script content, said another property value falling within the execution boundary of the defined policy when executed at runtime wherein each of the instantiated instances of the script content has an independent and separate execution boundary; and transmitting the web page with the transformed portion of the script content to be rendered in an application on a host device.
A method for wireless communication performed by an apparatus, comprising: generating a frame for transmitting data to one or more wireless nodes; determining whether to include a frame extension after a data symbol in the frame, wherein the determination is to include the frame extension if a transmission data rate to be used to transmit the frame is greater than or equal to a threshold value; determining a length of the frame extension based on a reception capability of the one or more wireless nodes expected to receive the frame; providing an indication of the length of the frame extension within the frame, if the determination is to include the frame extension; and determining a number of spatial streams to be used to transmit the frame and a transmission bandwidth to be used to transmit the frame, wherein the threshold value is based on at least one of the transmission bandwidth or the number of spatial streams outputting the frame for transmission. generating a frame for transmitting data to one or more wireless nodes; determining whether to include a frame extension after a data symbol in the frame, wherein the determination is to include the frame extension if a transmission data rate to be used to transmit the frame is greater than or equal to a threshold value; determining a length of the frame extension based on a reception capability of the one or more wireless nodes expected to receive the frame; providing an indication of the length of the frame extension within the frame, if the determination is to include the frame extension; and determining a number of spatial streams to be used to transmit the frame and a transmission bandwidth to be used to transmit the frame, wherein the threshold value is based on at least one of the transmission bandwidth or the number of spatial streams outputting the frame for transmission.
A seating assembly, comprising: a seat; a back support laterally extending from a left edge portion to a right edge portion; spring members comprising lateral spring members, the lateral spring members having at least one undulation or arc at or near each of the left and right edge portions of the back support to provide integrated compression adaptation to a user; and a frame component extending from a bottom portion, positioned near an underside of the seat, to a top portion, positioned near a rearward surface of the back support, the top portion coupled with the spring member to maintain the back support at a position above the seat; wherein the lateral spring members extend from the top portion of the frame component to locations at or near each of the left and right edge portions, and the spring members include a vertical spring component member between an upper portion of the back support and the top portion of the frame component. a seat; a back support laterally extending from a left edge portion to a right edge portion; spring members comprising lateral spring members, the lateral spring members having at least one undulation or arc at or near each of the left and right edge portions of the back support to provide integrated compression adaptation to a user; and a frame component extending from a bottom portion, positioned near an underside of the seat, to a top portion, positioned near a rearward surface of the back support, the top portion coupled with the spring member to maintain the back support at a position above the seat; wherein the lateral spring members extend from the top portion of the frame component to locations at or near each of the left and right edge portions, and the spring members include a vertical spring component member between an upper portion of the back support and the top portion of the frame component.
A user terminal in a radio communication system where one component carrier, 1-CC, carrier aggregation is carried out by aggregating a first component carrier, which is used in a macro cell, and a second component carrier, which is used in a small cell, wherein the one component carrier to use is switched by using one of the first component carrier and the second component carrier, the user terminal comprising: a receiving section configured to receive duration configuration information, which indicates a first duration to communicate with a macro base station forming the macro cell by using the first component carrier, and a second duration to communicate with a small base station forming the small cell by using the second component carrier; a configuration section configured to configure the first duration and the second duration based on the duration configuration information; a transmitting section configured to transmit, in the first duration, an uplink signal for the macro base station by using the first component carrier, and to transmit, in the second duration, an uplink signal for the small base station by using the second component carrier, wherein the receiving section is further configured to receive duration change information for changing the lengths of the first duration and the second duration; and the configuration section is further configured to change the lengths of the first duration and the second duration based on the duration change information. a receiving section configured to receive duration configuration information, which indicates a first duration to communicate with a macro base station forming the macro cell by using the first component carrier, and a second duration to communicate with a small base station forming the small cell by using the second component carrier; a configuration section configured to configure the first duration and the second duration based on the duration configuration information; a transmitting section configured to transmit, in the first duration, an uplink signal for the macro base station by using the first component carrier, and to transmit, in the second duration, an uplink signal for the small base station by using the second component carrier, wherein the receiving section is further configured to receive duration change information for changing the lengths of the first duration and the second duration; and the configuration section is further configured to change the lengths of the first duration and the second duration based on the duration change information.