mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a first user equipment , UE, operating in a wireless communication system, the method comprising: transmitting application information related to a service type from a first application layer to a second lower layer, wherein the service type is identified based on at least one of: an intelligent transport systems application identifier, ITS-AID, or a provider service identifier, PSID; configuring sidelink, SL, discontinuous reception, DRX, information for a groupcast based on the service type by the second layer; and communicating with a second UE based on the SL DRX information, wherein the SL DRX information is configured with parameters including a SL DRX on-duration timer, a SL DRX inactivity-timer, a SL DRX hybrid automatic repeat and request, HARQ, round trip time, RTT, timer and a SL DRX retransmission timer. transmitting application information related to a service type from a first application layer to a second lower layer, wherein the service type is identified based on at least one of: an intelligent transport systems application identifier, ITS-AID, or a provider service identifier, PSID; configuring sidelink, SL, discontinuous reception, DRX, information for a groupcast based on the service type by the second layer; and communicating with a second UE based on the SL DRX information, wherein the SL DRX information is configured with parameters including a SL DRX on-duration timer, a SL DRX inactivity-timer, a SL DRX hybrid automatic repeat and request, HARQ, round trip time, RTT, timer and a SL DRX retransmission timer.
A turbine vane for a gas turbine engine, comprising: an airfoil that extends from an inner diameter to an outer diameter, and from a leading edge to a trailing edge ; an inner platform coupled to the airfoil at the inner diameter; and a cooling system defined in the airfoil including a first conduit in proximity to the leading edge to cool the leading edge and a second conduit to cool the trailing edge, the first conduit having an inlet at the outer diameter to receive a cooling fluid and an outlet portion that is defined at least partially through the inner platform, and the first conduit includes a plurality of cooling pins that extend between a first surface and a second surface of the first conduit, wherein the first surface of the first conduit is opposite the leading edge; characterised in that each of the plurality of cooling pins includes a first pin end coupled to the first surface and a second pin end coupled to the second surface, each of the plurality of cooling pins includes a top surface opposite a bottom surface , the top surface being upstream from the bottom surface in a direction of cooling fluid flow through the first conduit, the top surface includes a first fillet defined at the first pin end that extends toward the second pin end and the bottom surface includes a second fillet defined at the first pin end that extends toward the second pin end, the first fillet has a first fillet arc that is greater than a second fillet arc of the second fillet. an airfoil that extends from an inner diameter to an outer diameter, and from a leading edge to a trailing edge ; an inner platform coupled to the airfoil at the inner diameter; and a cooling system defined in the airfoil including a first conduit in proximity to the leading edge to cool the leading edge and a second conduit to cool the trailing edge, the first conduit having an inlet at the outer diameter to receive a cooling fluid and an outlet portion that is defined at least partially through the inner platform, and the first conduit includes a plurality of cooling pins that extend between a first surface and a second surface of the first conduit, wherein the first surface of the first conduit is opposite the leading edge; characterised in that each of the plurality of cooling pins includes a first pin end coupled to the first surface and a second pin end coupled to the second surface, each of the plurality of cooling pins includes a top surface opposite a bottom surface , the top surface being upstream from the bottom surface in a direction of cooling fluid flow through the first conduit, the top surface includes a first fillet defined at the first pin end that extends toward the second pin end and the bottom surface includes a second fillet defined at the first pin end that extends toward the second pin end, the first fillet has a first fillet arc that is greater than a second fillet arc of the second fillet.
A system for creating pharmaceutical products by additive manufacturing, comprising: a material supply module for receiving a set of printing materials for creating the pharmaceutical products; a flow distribution module comprising a flow distribution plate , wherein the material supply module is configured to transport a single flow corresponding to the set of printing materials to the flow distribution plate ; wherein the flow distribution plate comprises: a plurality of channels for dividing the single flow into a plurality of flows; a plurality of nozzles ; and one or more controllers for controlling the plurality of nozzles to dispense the plurality of flows based on a plurality of nozzle-specific parameters to create the pharmaceutical products, characterized in that the one or more controllers are configured to control the temperature at the plurality of nozzles , such that a temperature at the plurality of nozzles is higher than a temperature at the flow distribution plate , and such that the set of printing materials for creating the pharmaceutical products is at a first temperature in the flow distribution plate and at a second temperature higher than the first temperature in the plurality of nozzles . a material supply module for receiving a set of printing materials for creating the pharmaceutical products; a flow distribution module comprising a flow distribution plate , wherein the material supply module is configured to transport a single flow corresponding to the set of printing materials to the flow distribution plate ; wherein the flow distribution plate comprises: a plurality of channels for dividing the single flow into a plurality of flows; wherein the material supply module is configured to transport a single flow corresponding to the set of printing materials to the flow distribution plate ; wherein the flow distribution plate comprises: a plurality of channels for dividing the single flow into a plurality of flows; a plurality of nozzles ; and one or more controllers for controlling the plurality of nozzles to dispense the plurality of flows based on a plurality of nozzle-specific parameters to create the pharmaceutical products, characterized in that the one or more controllers are configured to control the temperature at the plurality of nozzles , such that a temperature at the plurality of nozzles is higher than a temperature at the flow distribution plate , and such that the set of printing materials for creating the pharmaceutical products is at a first temperature in the flow distribution plate and at a second temperature higher than the first temperature in the plurality of nozzles . such that a temperature at the plurality of nozzles is higher than a temperature at the flow distribution plate , and such that the set of printing materials for creating the pharmaceutical products is at a first temperature in the flow distribution plate and at a second temperature higher than the first temperature in the plurality of nozzles .
An electrochemical device comprising two electrodes, a first electrode with tubular shape and circular section (cathode) and a second electrode with tubular shape and circular section (anode) placed inside the first electrode and coaxial thereto, to form a space between the two electrodes being divided in two chambers by a membrane wall concentric to the first electrode, wherein a cathode chamber is arranged between the first electrode and the membrane wall and an anode chamber is arranged between the second electrode and the membrane wall and two sealing bushings, one upper bushing and one lower bushing arranged at the ends of the two electrodes and , wherein the lower bushing has an inlet channel of the electrolytes to the cathode chamber and an inlet channel of the electrolytes to the anode chamber and the upper bushing has an outlet channel of the electrolytes from the anode chamber and an outlet channel of the electrolytes from the cathode chamber , wherein 65 Dd/Ds ≤ K/ln(L) ≤ 25 Db/Ds 0.6 ≤ Ss/Sb ≤ 1.9 Db being the internal diameter measurement of the second electrode with tubular shape and circular section (anode), Db being from 0.1 Ds to 0.7 Ds, Ds being the internal diameter measurement of the first electrode with tubular shape and circular section (cathode), Dd being the internal diameter measurement of the membrane wall, Dd being from 0.15 Ds to 0.8 Ds, K the measurement of the distance between the electrodes, L being the measurement of the distance between the inlet and outlet channels of the electrodes, Ss being the measurement of the area of the cross section of the cathode chamber, Sb being the measurement of the area of the cross section of the anode chamber; a stagnation chamber with spheroidal shape opened to the cathode chamber and positioned at the intersection between the cathode chamber and the outlet channel of the electrolytes from the cathode chamber , and connected with the outlet channel of the electrolytes from the cathode chamber by a connector pipe wherein r<D< 3r and d<r< 3d, D being the diameter measurement of the outlet collector of the cathode chamber, r being the measurement of the radius of the stagnation chamber, d being the diameter measurement of the connector pipe.
A method for removing stains during a cleaning cycle of a household appliance , the cleaning cycle comprising at least a main wash cycle the method comprising: - releasing a first cleaning agent at temperatures below 40 °C during the main wash cycle; - Releasing an amount of a main cleaning agent during the main wash cycle when a temperature inside the household appliance during the main wash cycle exceeds a predetermined temperature threshold, wherein the predetermined temperature threshold is higher than 40 °C, wherein the main cleaning agent comprises at least one chelating agent. - releasing a first cleaning agent at temperatures below 40 °C during the main wash cycle; - Releasing an amount of a main cleaning agent during the main wash cycle when a temperature inside the household appliance during the main wash cycle exceeds a predetermined temperature threshold, wherein the predetermined temperature threshold is higher than 40 °C, wherein the main cleaning agent comprises at least one chelating agent.
A system comprising: a memory storing instructions ; and a processor communicatively coupled to the memory and configured to execute the instructions to: track, over time during a surgical procedure, a temperature of a surgical instrument associated with a surgical system used for the surgical procedure, determine, based on the tracked temperature of the surgical instrument , that the temperature of the surgical instrument changes from a first temperature to a second temperature that varies from the first temperature by at least a predetermined amount, determine, based on the determination that the temperature of the surgical instrument changes from the first temperature to the second temperature, that the surgical instrument is in physical contact with patient tissue , and perform a mitigation operation in response to the determination that the surgical instrument is in physical contact with patient tissue . a memory storing instructions ; and a processor communicatively coupled to the memory and configured to execute the instructions to: track, over time during a surgical procedure, a temperature of a surgical instrument associated with a surgical system used for the surgical procedure, determine, based on the tracked temperature of the surgical instrument , that the temperature of the surgical instrument changes from a first temperature to a second temperature that varies from the first temperature by at least a predetermined amount, determine, based on the determination that the temperature of the surgical instrument changes from the first temperature to the second temperature, that the surgical instrument is in physical contact with patient tissue , and perform a mitigation operation in response to the determination that the surgical instrument is in physical contact with patient tissue . track, over time during a surgical procedure, a temperature of a surgical instrument associated with a surgical system used for the surgical procedure, determine, based on the tracked temperature of the surgical instrument , that the temperature of the surgical instrument changes from a first temperature to a second temperature that varies from the first temperature by at least a predetermined amount, determine, based on the determination that the temperature of the surgical instrument changes from the first temperature to the second temperature, that the surgical instrument is in physical contact with patient tissue , and perform a mitigation operation in response to the determination that the surgical instrument is in physical contact with patient tissue .
A method for manufacturing a metal foam comprising steps of: forming a green structure using a slurry consisting of a metal component having a conductive metal with relative magnetic permeability of 90 or more or an alloy containing the conductive metal, a dispersant and a binder or consisting of a metal component having a conductive metal with relative magnetic permeability of 90 or more or an alloy containing the conductive metal, a dispersant, a binder and a solvent; and sintering the green structure, wherein the green structure is formed only by using the slurry, wherein the sintering of the green structure is performed by applying an electromagnetic field to the structure, wherein the electromagnetic field is applied for a time in a range of 10 minutes to 10 hours and wherein the dispersant is a monohydric alcohol having 1 to 20 carbon atoms, dihydric alcohol having 1 to 20 carbon atoms or polyhydric alcohol. wherein the green structure is formed only by using the slurry, wherein the sintering of the green structure is performed by applying an electromagnetic field to the structure, wherein the electromagnetic field is applied for a time in a range of 10 minutes to 10 hours and wherein the dispersant is a monohydric alcohol having 1 to 20 carbon atoms, dihydric alcohol having 1 to 20 carbon atoms or polyhydric alcohol.
A method for transmitting a precoded uplink signal to a base station, BS, by a user equipment, UE, in a wireless communication system, the method comprising: transmitting (S1001), to the BS, uplink reference signals corresponding to a plurality of antenna ports and antenna port group information, wherein the antenna port group information includes information on antenna port groups composed of the plurality of antenna ports and information on signal distortion level between the antenna port groups; receiving (S1003), from the BS, information on an uplink precoder determined based on the uplink reference signals and the antenna port group information; precoding (S1005) the uplink signal based on the information on the uplink precoder; transmitting (S1007), to the BS, the precoded uplink signal, wherein the information on the uplink precoder includes partial precoders for the antenna port groups, wherein, based on the signal distortion level being less than a predetermined value, the information on the uplink precoder includes phase information for concatenation of the partial precoders. transmitting (S1001), to the BS, uplink reference signals corresponding to a plurality of antenna ports and antenna port group information, wherein the antenna port group information includes information on antenna port groups composed of the plurality of antenna ports and information on signal distortion level between the antenna port groups; receiving (S1003), from the BS, information on an uplink precoder determined based on the uplink reference signals and the antenna port group information; precoding (S1005) the uplink signal based on the information on the uplink precoder; transmitting (S1007), to the BS, the precoded uplink signal, wherein the information on the uplink precoder includes partial precoders for the antenna port groups, wherein, based on the signal distortion level being less than a predetermined value, the information on the uplink precoder includes phase information for concatenation of the partial precoders.
A blow-molded structural panel comprising: a panel surface; and a stiffening rib structure extending outward from the panel surface, the stiffening rib structure comprising: a first end portion ; a second end portion disposed opposite the first end portion; a first tall portion disposed adjacent the first end portion, the first tall portion having a first tall portion height; characterized in that the stiffening rib structure further comprises a second tall portion disposed adjacent the second end portion, the second tall portion having a second tall portion height; multiple short portions disposed between the first tall portion and the second tall portion, each of the multiple short portion having a short portion height that is less than the first tall portion height and less than the second tall portion height. a panel surface; and a stiffening rib structure extending outward from the panel surface, the stiffening rib structure comprising: a first end portion ; a second end portion disposed opposite the first end portion; a first tall portion disposed adjacent the first end portion, the first tall portion having a first tall portion height; characterized in that the stiffening rib structure further comprises a second tall portion disposed adjacent the second end portion, the second tall portion having a second tall portion height; multiple short portions disposed between the first tall portion and the second tall portion, each of the multiple short portion having a short portion height that is less than the first tall portion height and less than the second tall portion height. a first end portion ; a second end portion disposed opposite the first end portion; a first tall portion disposed adjacent the first end portion, the first tall portion having a first tall portion height; characterized in that the stiffening rib structure further comprises a second tall portion disposed adjacent the second end portion, the second tall portion having a second tall portion height; multiple short portions disposed between the first tall portion and the second tall portion, each of the multiple short portion having a short portion height that is less than the first tall portion height and less than the second tall portion height.
A computer-implemented alchemical route calculation method for calculating binding free energy between a binding calculation target molecule and a target molecule, the method comprising: a plurality of steps each including adding a distance restraint potential between the binding calculation target molecule and the target molecule, wherein anchor points of the binding calculation target molecule in the plurality of the steps are identical anchor points, and anchor points of the target molecule in the plurality of the steps are different anchor points; the method further comprising: calculating a plurality of values of binding free energy between the binding calculation target molecule and the target molecule using each of a plurality of the distance restraint potentials added by the plurality of the steps; and extracting the smallest value of the binding free energy among the plurality of the values of the binding free energy calculated; wherein the anchor point of the binding calculation target molecule is a center of gravity of the binding calculation target molecule. a plurality of steps each including adding a distance restraint potential between the binding calculation target molecule and the target molecule, wherein anchor points of the binding calculation target molecule in the plurality of the steps are identical anchor points, and anchor points of the target molecule in the plurality of the steps are different anchor points; the method further comprising: calculating a plurality of values of binding free energy between the binding calculation target molecule and the target molecule using each of a plurality of the distance restraint potentials added by the plurality of the steps; and extracting the smallest value of the binding free energy among the plurality of the values of the binding free energy calculated; wherein the anchor point of the binding calculation target molecule is a center of gravity of the binding calculation target molecule. calculating a plurality of values of binding free energy between the binding calculation target molecule and the target molecule using each of a plurality of the distance restraint potentials added by the plurality of the steps; and extracting the smallest value of the binding free energy among the plurality of the values of the binding free energy calculated; wherein the anchor point of the binding calculation target molecule is a center of gravity of the binding calculation target molecule.
A battery cell having an electrode assembly mounted in a variable cell case in a state in which the electrode assembly is impregnated with an electrolyte, the battery cell being configured to be flexibly deformed in response to a shape of a device, in which the battery cell is mounted, wherein a coating part comprising inert particles is formed on at least one outer surface of the electrode assembly , each of the inert particles is an organic particle or an inorganic particle, the organic particle is made of a polymer or a silane-based compound, the inorganic particle is one or a mixture of two or more selected from a group consisting of SiO 2 , Al 2 O 3 , MgO, TiO 2 , ZrO 2 , CaO, Y 2 O 3 , and SrO, and the cell case has a concave-convex structure formed by the inert particles of the coating part formed on the at least one outer surface of the electrode assembly , the concave-convex structure being also formed in the outer surface of the variable cell case.
A cartridge comprising a microfluidic die and a fluid composition in fluid communication with the microfluidic die , the fluid composition comprising: at least 50 wt. % of a perfume mixture, by weight of the overall composition, wherein the perfume mixture has a mol-weighted average ClogP of less than or equal to about 2.9; an oxygenated solvent selected from the group consisting of: a polyol, glycol ether, polyether, or combination thereof; and about 0.25 wt. % to about 9.5 wt. % water, by weight of overall composition. at least 50 wt. % of a perfume mixture, by weight of the overall composition, wherein the perfume mixture has a mol-weighted average ClogP of less than or equal to about 2.9; an oxygenated solvent selected from the group consisting of: a polyol, glycol ether, polyether, or combination thereof; and about 0.25 wt. % to about 9.5 wt. % water, by weight of overall composition.