mhurhangee/patent-ind-claim-en huggingface dataset:
Turbine (A) of the lift type, suited to be placed into any fluid, the turbine comprising a shaft or rotation axis suited to be positioned in space in any way and N blades defining the radius of the rotor and constituting the main mass of the cross section of the turbine (A), while said shaft or axis has a substantially elongated shape with negligible radius with respect to the radius of the rotor, each of said blades being indirectly constrained to said shaft or axis by means of one or more radial arms which are in turn integral with said axis , wherein each one of said blades is constrained to the corresponding arm so that it is possible to selectively vary the pitch angle γ, that is, the angle formed between the blade chord and the tangent to the blade rotation trajectory, and wherein each arm is configured so that said pitch angle γ of each blade varies according to the distance X of the blade itself from said shaft and/or according to the tangential displacement or rotation angle θ of the blade with respect to the corresponding arm , and wherein said arm has a variable section or guides with variable section or elements having variable play, with linear or non-linear variation depending on the distance X from the shaft and/or depending on the tangential displacement or rotation angle θ. and wherein each arm is configured so that said pitch angle γ of each blade varies according to the distance X of the blade itself from said shaft and/or according to the tangential displacement or rotation angle θ of the blade with respect to the corresponding arm , and wherein said arm has a variable section or guides with variable section or elements having variable play, with linear or non-linear variation depending on the distance X from the shaft and/or depending on the tangential displacement or rotation angle θ.
A multi-cell uplink coordinated communication method performed by a second base station, the second base station comprising a receiving unit , a sending unit and a processing unit , the method comprising: • receiving , by the receiving unit , retransmission scheduling information from a first base station and that is for a first user equipment, UE, to retransmit first data, wherein an exchange latency between the second base station and the first base station is greater than or equal to a first threshold and less than or equal to a second threshold, wherein the first base station is a base station to which a serving cell of the first UE belongs, and the second base station is a base station to which a coordinating cell of the first UE belongs; • receiving , by the receiving unit , the first data retransmitted by the first UE; and • decoding , by the processing unit , the first data according to the retransmission scheduling information, characterized in that before the decoding of the first data according to the retransmission scheduling information, the method further comprises: • if the processing unit determines, according to time domain information in the retransmission scheduling information, that there is a second UE to be scheduled in a subframe corresponding to the time domain information, and the second UE causes interference to the first UE, skipping, by the processing unit , scheduling the second UE at a location of the subframe. • receiving , by the receiving unit , retransmission scheduling information from a first base station and that is for a first user equipment, UE, to retransmit first data, wherein an exchange latency between the second base station and the first base station is greater than or equal to a first threshold and less than or equal to a second threshold, wherein the first base station is a base station to which a serving cell of the first UE belongs, and the second base station is a base station to which a coordinating cell of the first UE belongs; • receiving , by the receiving unit , the first data retransmitted by the first UE; and • decoding , by the processing unit , the first data according to the retransmission scheduling information, • if the processing unit determines, according to time domain information in the retransmission scheduling information, that there is a second UE to be scheduled in a subframe corresponding to the time domain information, and the second UE causes interference to the first UE, skipping, by the processing unit , scheduling the second UE at a location of the subframe.
A method comprising: receiving, by a wireless device , one or more messages comprising one or more configuration parameters comprising a pathloss reference signal update parameter that enables an activation command to update pathloss reference signals of a physical uplink shared channel, PUSCH; characterized by: based on the one or more configuration parameters comprising the pathloss reference signal update parameter, determining, for a power headroom report, a PUSCH pathloss reference signal identifier mapped to a sounding reference signal resource indicator, SRI, - PUSCH power control parameter set with an index equal to zero; and transmitting the power headroom report computed based on a pathloss estimation of a pathloss reference signal associated with the PUSCH pathloss reference signal identifier. based on the one or more configuration parameters comprising the pathloss reference signal update parameter, determining, for a power headroom report, a PUSCH pathloss reference signal identifier mapped to a sounding reference signal resource indicator, SRI, - PUSCH power control parameter set with an index equal to zero; and transmitting the power headroom report computed based on a pathloss estimation of a pathloss reference signal associated with the PUSCH pathloss reference signal identifier.
A process for making a flexo plate comprising non-printing indicia disposed on a floor of the plate using areas of presence and absence of polymer in the plate floor, the process comprising: forming the non-printing indicia via exposure to actinic radiation from a back, non-printing side of the plate, wherein the non-printing indicia comprise areas of presence of polymer in the plate floor; providing a primary back exposure for forming the plate floor; and providing an additional back exposure for forming the non-printing indicia raised above the plate floor, wherein the additional back exposure is provided by directing radiation to an imaging plane disposed above the plate floor. forming the non-printing indicia via exposure to actinic radiation from a back, non-printing side of the plate, wherein the non-printing indicia comprise areas of presence of polymer in the plate floor; providing a primary back exposure for forming the plate floor; and providing an additional back exposure for forming the non-printing indicia raised above the plate floor, wherein the additional back exposure is provided by directing radiation to an imaging plane disposed above the plate floor.
A two-component urethane-based composition , comprising : an ester-based polyol resin-containing main composition part; a polyisocyanate-containing curing agent composition part; a filler; and a moisture scavenger, wherein the ester-based polyol resin is an amorphous polyol, in which a crystallization temperature Tc and a melting temperature Tm are not observed in a differential scanning calorimetry DSC analysis, or the ester-based polyol resin has a melting temperature Tm of less than 15° C, measured with a DSC instrument performing the analysis at a rate of 10°C/minute within a range of -80°C to 60°C, wherein the filler is contained in an amount of 50 to 2,000 parts by weight relative to 100 parts by weight of the sum of the contents of the ester-based polyol resin and polyisocyanate contents, and wherein the ester-based polyol resin is represented by the following formula 1 or 2: wherein, X is a carboxylic acid-derived unit, Y is a polyol-derived unit, n is a number within a range of 2 to 10, and m is a number within a range of 1 to 10. an ester-based polyol resin-containing main composition part; a polyisocyanate-containing curing agent composition part; a filler; and a moisture scavenger, wherein the ester-based polyol resin is an amorphous polyol, in which a crystallization temperature Tc and a melting temperature Tm are not observed in a differential scanning calorimetry DSC analysis, or the ester-based polyol resin has a melting temperature Tm of less than 15° C, measured with a DSC instrument performing the analysis at a rate of 10°C/minute within a range of -80°C to 60°C, wherein the filler is contained in an amount of 50 to 2,000 parts by weight relative to 100 parts by weight of the sum of the contents of the ester-based polyol resin and polyisocyanate contents, and wherein the ester-based polyol resin is represented by the following formula 1 or 2: wherein, X is a carboxylic acid-derived unit, Y is a polyol-derived unit, n is a number within a range of 2 to 10, and m is a number within a range of 1 to 10. wherein the ester-based polyol resin is an amorphous polyol, in which a crystallization temperature Tc and a melting temperature Tm are not observed in a differential scanning calorimetry DSC analysis, or the ester-based polyol resin has a melting temperature Tm of less than 15° C, measured with a DSC instrument performing the analysis at a rate of 10°C/minute within a range of -80°C to 60°C, wherein the filler is contained in an amount of 50 to 2,000 parts by weight relative to 100 parts by weight of the sum of the contents of the ester-based polyol resin and polyisocyanate contents, and wherein the ester-based polyol resin is represented by the following formula 1 or 2: wherein, X is a carboxylic acid-derived unit, Y is a polyol-derived unit, n is a number within a range of 2 to 10, and m is a number within a range of 1 to 10.
A frequency spectrum allocation method for an overlapped time division multiplexing, OvTDM, system, the method comprising the following steps performed by a frequency spectrum allocation apparatus: determining a channel bandwidth for the overlapped time division multiplexing system, and obtaining a first bandwidth for an overlapped time division multiplexing signal, wherein the first bandwidth is a processing bandwidth for the overlapped time division multiplexing signal (S202), and the processing bandwidth for the overlapped multiplexing signal refers to a bandwidth range in which the overlapped multiplexing signal energy percentage reaches a specific percentage of total energy of the overlapped time division multiplexing signal; obtaining a second bandwidth other than the first bandwidth in the channel bandwidth for the overlapped time division multiplexing system (S204), wherein the second bandwidth is located in a portion of the channel bandwidth corresponding to side lobes of the overlapped time division multiplexing signal; and allocating the second bandwidth to a non-overlapped-multiplexing signal (S206). determining a channel bandwidth for the overlapped time division multiplexing system, and obtaining a first bandwidth for an overlapped time division multiplexing signal, wherein the first bandwidth is a processing bandwidth for the overlapped time division multiplexing signal (S202), and the processing bandwidth for the overlapped multiplexing signal refers to a bandwidth range in which the overlapped multiplexing signal energy percentage reaches a specific percentage of total energy of the overlapped time division multiplexing signal; obtaining a second bandwidth other than the first bandwidth in the channel bandwidth for the overlapped time division multiplexing system (S204), wherein the second bandwidth is located in a portion of the channel bandwidth corresponding to side lobes of the overlapped time division multiplexing signal; and allocating the second bandwidth to a non-overlapped-multiplexing signal (S206).
An alignment apparatus for aligning inlet guide vanes in a turbine having a turbine axis , the alignment apparatus comprising: a tool body ; a positioning block secured to the tool body, the positioning block defining an axial limit position for the tool body relative to a leading edge of the inlet guide vanes; and a plurality of alignment pieces secured to the tool body, each of the plurality of alignment pieces being displaceable between an OFF position and an ON position, wherein the positioning block is affixed to the tool body such that when the positioning block is engaged with a leading edge of one of the inlet guide vanes, at least a portion of the alignment pieces is parallel to the turbine axis, and wherein the alignment pieces are manually displaceable from the OFF position to the ON position into engagement with the inlet guide vanes; characterized in that the alignment pieces comprise a triangular bracket positionable between the inlet guide vanes, and wherein the at least one portion of the alignment pieces that is parallel to the turbine axis comprises one side of the triangular bracket. a tool body ; a positioning block secured to the tool body, the positioning block defining an axial limit position for the tool body relative to a leading edge of the inlet guide vanes; and a plurality of alignment pieces secured to the tool body, each of the plurality of alignment pieces being displaceable between an OFF position and an ON position, wherein the positioning block is affixed to the tool body such that when the positioning block is engaged with a leading edge of one of the inlet guide vanes, at least a portion of the alignment pieces is parallel to the turbine axis, and wherein the alignment pieces are manually displaceable from the OFF position to the ON position into engagement with the inlet guide vanes; characterized in that the alignment pieces comprise a triangular bracket positionable between the inlet guide vanes, and wherein the at least one portion of the alignment pieces that is parallel to the turbine axis comprises one side of the triangular bracket.
Aqueous alkyd resin dispersion, characterized in that it comprises: a) a short oil alkyd resin having a Noury viscosity at 110°C according to AFNOR XPT 51213 ranging from 7000 to 13 000 mPa.s and preferably from 9000 to 12 000 mPa.s and comprising, in its fatty acid component a1), at least one polyunsaturated fatty monoacid a11) having at least two unsaturations per molecule and a content by weight of monoacid a111) having conjugated unsaturations of at least 35%, preferably of at least 42%, the content by weight of said fatty monoacid a111), with respect to said alkyd resin, being at least 5%, preferably from 5% to 40%, more preferably from 5% to 35%, b) at least one anionic phosphate surfactant, in particular a phosphate alkyl alkoxy ester, said surfactant b) more particularly being a mixture of phosphate monoester and diester, the alkyl group being a C 10 - C 16 alkyl group and being alkoxylated with 4 to 10 alkoxy units, said alkoxy units preferably being chosen from ethoxy and/or propoxy units, more preferably being ethoxy units; wherein the content by weight of said alkyd resin a) with respect to said dispersion varies from 35% to 65%. a) a short oil alkyd resin having a Noury viscosity at 110°C according to AFNOR XPT 51213 ranging from 7000 to 13 000 mPa.s and preferably from 9000 to 12 000 mPa.s and comprising, in its fatty acid component a1), at least one polyunsaturated fatty monoacid a11) having at least two unsaturations per molecule and a content by weight of monoacid a111) having conjugated unsaturations of at least 35%, preferably of at least 42%, the content by weight of said fatty monoacid a111), with respect to said alkyd resin, being at least 5%, preferably from 5% to 40%, more preferably from 5% to 35%, b) at least one anionic phosphate surfactant, in particular a phosphate alkyl alkoxy ester, said surfactant b) more particularly being a mixture of phosphate monoester and diester, the alkyl group being a C 10 - C 16 alkyl group and being alkoxylated with 4 to 10 alkoxy units, said alkoxy units preferably being chosen from ethoxy and/or propoxy units, more preferably being ethoxy units; wherein the content by weight of said alkyd resin a) with respect to said dispersion varies from 35% to 65%.
A device for adjusting the position of a spar for moving and/or controlling a moving device , in which the spar includes at least one spar rod , the first end of which is attached rotatably to an end of the device , the second end of which carries a handle, a shifting mechanism with a spar receiving plate arranged on the device , on which plate the first end of the spar rod is attached to the device to be rotatable about the first axis of rotation and to be adjustable to a plurality of pivot positions, and has latching devices for fixing the spar rod in at least one pivot position, wherein the latching devices have a latching plate prolonging the first end of the spar rod on the side of the axis of rotation opposite the handle, which plate has a number of latching notches , and a latching lever , the first end of which is attached to the spar receiving plate to be rotatable on a second axis of rotation , and the second end of which carries a latching pin which can be snapped into the latching notches and is biased into the latching position by elastic means , that the first axis of rotation and the second axis of rotation are arranged substantially in parallel to one another, that the latching plate has an end edge extending substantially in an arcuate manner about the first axis of rotation , that the latching notches extend from the end edge of the latching plate towards the first axis of rotation , and that the latching notches have a prismatic shape and narrow towards the first axis of rotation such that the latching pin , in the snapped-in state, lies on the circular path of the rotation of the latching plate about the first axis of rotation , characterized in that two spar rods are provided on opposite sides of the device , the second ends of which rods are connected by a connecting rod carrying the handle, that a respective shifting mechanism is arranged at each first end of the spar rods , and that the second axes of rotation of the latching levers are connected to one another and to the latching levers in a torque-proof manner via a connecting rod.
A system that implements market data entitlements controls, the system comprising: a memory component configured to generate, store and manage one or more tokens and one or more associated Access Tickets ; and a computer processor, coupled to the memory component, that executes a client application , the computer processor configured to perform the steps of: identifying, via the client application , a token , wherein the token is a cryptographically signed description of entitlements, rights and obligations a requesting user has for one or more data sources, the token comprises a count of positions, a predetermined expiration and reference data; generating a set of Access Tickets based on the token , wherein each Access Ticket is associated with a position, wherein the position represents a single instance of a process that accesses market data; and using an Access Ticket to retrieve associated market data pursuant to a corresponding set of rights and obligations. a memory component configured to generate, store and manage one or more tokens and one or more associated Access Tickets ; and a computer processor, coupled to the memory component, that executes a client application , the computer processor configured to perform the steps of: identifying, via the client application , a token , wherein the token is a cryptographically signed description of entitlements, rights and obligations a requesting user has for one or more data sources, the token comprises a count of positions, a predetermined expiration and reference data; generating a set of Access Tickets based on the token , wherein each Access Ticket is associated with a position, wherein the position represents a single instance of a process that accesses market data; and using an Access Ticket to retrieve associated market data pursuant to a corresponding set of rights and obligations. identifying, via the client application , a token , wherein the token is a cryptographically signed description of entitlements, rights and obligations a requesting user has for one or more data sources, the token comprises a count of positions, a predetermined expiration and reference data; generating a set of Access Tickets based on the token , wherein each Access Ticket is associated with a position, wherein the position represents a single instance of a process that accesses market data; and using an Access Ticket to retrieve associated market data pursuant to a corresponding set of rights and obligations.
A method comprising: setting within a device group, a target number of storage devices that may simultaneously service high latency operations; detecting for a given storage device of the device group, that one or more high latency operations have been pending for a predetermined amount of time; responsive to detecting for the given storage device of the device group, that the one or more high latency operations have been pending for the predetermined amount of time, increasing, within the device group, a number of storage devices that currently is simultaneously servicing high latency operations; determining that the number of storage devices that is currently servicing high latency operations exceeds the target number of storage devices; and in response to determining that the number of storage devices that is servicing high latency operations exceeds the target number of storage devices, causing the number of storage devices to be reduced by rescheduling the one or more high latency operations. setting within a device group, a target number of storage devices that may simultaneously service high latency operations; detecting for a given storage device of the device group, that one or more high latency operations have been pending for a predetermined amount of time; responsive to detecting for the given storage device of the device group, that the one or more high latency operations have been pending for the predetermined amount of time, increasing, within the device group, a number of storage devices that currently is simultaneously servicing high latency operations; determining that the number of storage devices that is currently servicing high latency operations exceeds the target number of storage devices; and in response to determining that the number of storage devices that is servicing high latency operations exceeds the target number of storage devices, causing the number of storage devices to be reduced by rescheduling the one or more high latency operations.