mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming an electrically switchable layup, the method comprising: (a) bonding a substrate layer to an electrically switchable layer by applying a UV curable adhesive to the substrate layer and/or the electrically switchable layer, placing the layers together, and curing the adhesive, by means of a UV source, to thereby bond the substrate layer and electrically switchable layer together; characterised in that the electrically switchable layer is a polymer dispersed liquid crystal (PDLC) layer which is operable to move from substantially optically transparent state with voltage applied, to a substantially translucent/opaque state without voltage applied, wherein the PDLC layer comprises a liquid crystal polymer layer arranged between two PET (Polyethylene terephthalate) plastic layers, which plastic layers comprise a ITO (Indium tin oxide) conductive coating, wherein the substrate layer is a glass layer or a transparent plastic layer, wherein the adhesive is a methacrylic ester based adhesive; wherein the method comprises, prior to curing, a step of applying pressure in the through thickness direction to the layup of the substrate layer and electrically switchable layer. (a) bonding a substrate layer to an electrically switchable layer by applying a UV curable adhesive to the substrate layer and/or the electrically switchable layer, placing the layers together, and curing the adhesive, by means of a UV source, to thereby bond the substrate layer and electrically switchable layer together;
A wet disperser configured to disperse particulates in a mixture containing at least a dispersing medium and at least one kind of particulates selected from a group consisting of a primary particle and an aggregate, the wet disperser comprising: a through channel having an inflow port and an outflow port configured to serve as a through channel of the mixture and configured to extend from the inflow port to the outflow port ; a mixture-passing plate provided in a middle of the through channel and having at least one passing hole defined, and a holding recess at a position opposite to the passing hole of the mixture-passing plate , wherein the through channel includes, on a downstream side of the through channel from a position provided with the mixture-passing plate , a dispersion part having a vibration body , which has a spherical vibration element , provided such that vibration causes the spherical vibration element to come into contact with at least a part of an opening periphery of the passing hole , and an inside surface defining the passing hole of the mixture-passing plate , and wherein the spherical vibration element is sandwiched between the holding recess and the inside surface of the mixture-passing plate . a through channel having an inflow port and an outflow port configured to serve as a through channel of the mixture and configured to extend from the inflow port to the outflow port ; a mixture-passing plate provided in a middle of the through channel and having at least one passing hole defined, and a holding recess at a position opposite to the passing hole of the mixture-passing plate , wherein the through channel includes, on a downstream side of the through channel from a position provided with the mixture-passing plate , a dispersion part having a vibration body , which has a spherical vibration element , provided such that vibration causes the spherical vibration element to come into contact with at least a part of an opening periphery of the passing hole , and an inside surface defining the passing hole of the mixture-passing plate , and wherein the spherical vibration element is sandwiched between the holding recess and the inside surface of the mixture-passing plate .
A vehicle communication method, wherein the method comprises: - a step (S210) of receiving, by a network side device, a connection establishment request transmitted by user equipment, wherein the connection establishment request carries identification information of a plurality of network slices; the method being characterized by further comprising: - a step (S220) of determining, by the network side device, whether the plurality of network slices correspond to a same vehicle communication service according to the identification information of the plurality of network slices; - a step (S230) of establishing, by the network side device in a case that the plurality of network slices are determined to correspond to the same vehicle communication service, a PDU session with the user equipment; - a step of configuring, by the network side device, wireless transmission resource pools for different network slices, so that the user equipment uses different wireless transmission resources for different network slices, wherein a priority of the wireless transmission resource pool has a positive correlation with a priority of the network slice corresponding to the wireless transmission resource pool, and a size of the wireless transmission resource pool has a positive correlation with the priority of the network slice corresponding to the wireless transmission resource pool; and - a step of isolating, by the network side device, different QoS flows in the PDU session by using a GPRS tunnel protocol user plane, GTP-U, wherein each QoS flow corresponds to a different network slice; wherein PDU stands for protocol data unit. - a step (S210) of receiving, by a network side device, a connection establishment request transmitted by user equipment, wherein the connection establishment request carries identification information of a plurality of network slices; the method being characterized by further comprising: - a step (S220) of determining, by the network side device, whether the plurality of network slices correspond to a same vehicle communication service according to the identification information of the plurality of network slices; - a step (S230) of establishing, by the network side device in a case that the plurality of network slices are determined to correspond to the same vehicle communication service, a PDU session with the user equipment; - a step of configuring, by the network side device, wireless transmission resource pools for different network slices, so that the user equipment uses different wireless transmission resources for different network slices, wherein a priority of the wireless transmission resource pool has a positive correlation with a priority of the network slice corresponding to the wireless transmission resource pool, and a size of the wireless transmission resource pool has a positive correlation with the priority of the network slice corresponding to the wireless transmission resource pool; and - a step of isolating, by the network side device, different QoS flows in the PDU session by using a GPRS tunnel protocol user plane, GTP-U, wherein each QoS flow corresponds to a different network slice;
Calibration tool for calibrating a laser-triangulation measuring system, wherein the calibration tool comprises a tool body that is rotatable relative tc the measuring system about a rotation axis (S1) perpendicular tc a reference plane (P), wherein the tool body is provided with one or more calibration surfaces that define a pattern (G), in particular a radial grid, of calibration positions (K), wherein the pattern comprises at least three columns (A1-A10) extending in a radial direction (R) away from the rotation axis and at least three rows (B1-B5) extending in a circumferential direction (C) about the rotation axis, wherein for each column the calibration positions within said respective column vary in height relative to the reference plane in a height direction (H) perpendicular to said reference plane and wherein for each row the calibration positions within the respective row vary in height in the height direction relative to the reference plane.
Vessel comprising a topside lifting arrangement which comprises at least one topside lifting device , the topside lifting device including: a lifting actuator provided as a linear actuator having a first end and a second end , wherein the second end is engageable with a support portion of a topside and is configured to rotate about the first end around at least one axis including an axis other than the lifting actuator's actuating axis; and at least one positioning actuator provided as a linear actuator connected at its one end to the lifting actuator, wherein rotation of the lifting actuator about its first end is effectable by the at least one positioning actuator , wherein the other end of each at least one positioning actuator is connected to the vessel via a respective attachment portion, wherein the first end is connected to a wall of the vessel via a further respective attachment portion. a lifting actuator provided as a linear actuator having a first end and a second end , wherein the second end is engageable with a support portion of a topside and is configured to rotate about the first end around at least one axis including an axis other than the lifting actuator's actuating axis; and at least one positioning actuator provided as a linear actuator connected at its one end to the lifting actuator, wherein rotation of the lifting actuator about its first end is effectable by the at least one positioning actuator , wherein the other end of each at least one positioning actuator is connected to the vessel via a respective attachment portion, wherein the first end is connected to a wall of the vessel via a further respective attachment portion.
An aqueous coating material composition comprising at least (A) at least one polymer employable as binder, as component (A), and (B) aluminum oxide hydroxide particles, as component (B), where the aqueous coating material composition has a pH ≥7.5, characterized in that the coating material composition comprises component (B) in an amount of at least 0.1 wt%, based on the solids content of the coating material composition, and the surface of the aluminum oxide hydroxide particles employed as component (B) is at least partly modified with at least one organic acid. (A) at least one polymer employable as binder, as component (A), and (B) aluminum oxide hydroxide particles, as component (B), where the aqueous coating material composition has a pH ≥7.5, characterized in that the coating material composition comprises component (B) in an amount of at least 0.1 wt%, based on the solids content of the coating material composition, and the surface of the aluminum oxide hydroxide particles employed as component (B) is at least partly modified with at least one organic acid. where the aqueous coating material composition has a pH ≥7.5, characterized in that the coating material composition comprises component (B) in an amount of at least 0.1 wt%, based on the solids content of the coating material composition, and the surface of the aluminum oxide hydroxide particles employed as component (B) is at least partly modified with at least one organic acid.
A healing composition in the form of an oil-in-water emulsion, characterized in that it comprises an aqueous phase, an oil phase comprising vegetable oil, in that it comprises as emulsifying agents a water-soluble thermo-gelling polymer and propylene glycol alginate, and in that it comprises as healing agents zinc gluconate and manganese gluconate.
A pegylated peptide comprising a cationic KL4 peptide and a monodisperse linear PEG comprising 6-24 units, which peptide is PEG 6-24 KL4.
A method for producing herb cheese, in particular hard cheese, in which raw cheese mass with the whey approximately 80% drained is poured into cheese moulds , which are preferably arranged in a trough of a compartmented press , and then pressed, characterised in that herbs, spices are uniformly introduced into the cheese moulds at the same time or parallel with the raw cheese mass.
A mixture comprising a) at least one polyisocyanate, b) at least one reaction product of at least one polyisocyanate b1 with at least one compound b2) comprising at least one hydrophilic group which is not reactive toward isocyanate (group A) and precisely one group which is reactive toward isocyanate (group B) and c) dioxolane. a) at least one polyisocyanate, b) at least one reaction product of at least one polyisocyanate b1 with at least one compound b2) comprising at least one hydrophilic group which is not reactive toward isocyanate (group A) and precisely one group which is reactive toward isocyanate (group B) and c) dioxolane.
A friction welding tool having a main body and: a first clamp for gripping a first weld component and a second clamp for gripping a second weld component , at least one of the clamps being movable with respect to the other to effect friction welding of the respective weld components ; a vibration damper arranged to absorb vibrations of the first weld component during the friction welding; and characterized in that the friction welding tool further comprises an anchor element arranged to couple the damper to the main body and to be under tension between the damper and the main body of the friction welding tool to transfer absorbed vibrations to the main body . a first clamp for gripping a first weld component and a second clamp for gripping a second weld component , at least one of the clamps being movable with respect to the other to effect friction welding of the respective weld components ; a vibration damper arranged to absorb vibrations of the first weld component during the friction welding; and characterized in that the friction welding tool further comprises an anchor element arranged to couple the damper to the main body and to be under tension between the damper and the main body of the friction welding tool to transfer absorbed vibrations to the main body .
A voltage regulator, comprising: an input arranged to receive a trim signal used to specify a target voltage at an output of the regulator; a comparator arranged to compare a voltage derived from the trim signal to the voltage at the output of the regulator; a filter arranged to filter an output of the comparator; characterized by comprising: a checksum module comprising first and second portions arranged to calculate first and second checksums respectively from a plurality of states associated with the voltage regulator and to provide an error signal equal to the difference between the first and second checksums; and an adjustment module arranged to receive the error signal and adjust one or more of the plurality of states if the error signal is non-zero; and wherein the plurality of states (S0,S1,S2) associated with the voltage regulator comprises one or more states of the filter , and the voltage at the output of the regulator . an input arranged to receive a trim signal used to specify a target voltage at an output of the regulator; a comparator arranged to compare a voltage derived from the trim signal to the voltage at the output of the regulator; a filter arranged to filter an output of the comparator; characterized by comprising: a checksum module comprising first and second portions arranged to calculate first and second checksums respectively from a plurality of states associated with the voltage regulator and to provide an error signal equal to the difference between the first and second checksums; and an adjustment module arranged to receive the error signal and adjust one or more of the plurality of states if the error signal is non-zero; and wherein the plurality of states (S0,S1,S2) associated with the voltage regulator comprises one or more states of the filter , and the voltage at the output of the regulator . a checksum module comprising first and second portions arranged to calculate first and second checksums respectively from a plurality of states associated with the voltage regulator and to provide an error signal equal to the difference between the first and second checksums; and an adjustment module arranged to receive the error signal and adjust one or more of the plurality of states if the error signal is non-zero; and wherein the plurality of states (S0,S1,S2) associated with the voltage regulator comprises one or more states of the filter , and the voltage at the output of the regulator .
A system for surgically repairing a rib of a patient, the system comprising: a first rib bracket configured to be fixedly attached to a first side of the rib that faces a thoracic cavity of the patient; one or more fasteners configured to fixedly attach the first rib bracket to the rib; a driver having an end effector configured to drive the one or more fasteners into the rib; and a caddy configured to retain the one or more fasteners and deliver the one or more fasteners to a position adjacent the rib whereby the end effector is configured to engage the one or more fasteners to drive the one or more fasteners from the caddy and into the rib to fixedly attach the first rib bracket to the first side of the rib. a first rib bracket configured to be fixedly attached to a first side of the rib that faces a thoracic cavity of the patient; one or more fasteners configured to fixedly attach the first rib bracket to the rib; a driver having an end effector configured to drive the one or more fasteners into the rib; and a caddy configured to retain the one or more fasteners and deliver the one or more fasteners to a position adjacent the rib whereby the end effector is configured to engage the one or more fasteners to drive the one or more fasteners from the caddy and into the rib to fixedly attach the first rib bracket to the first side of the rib.
A portable device to check the tightness of means (MC) for connecting a glass (V) to a wall (P), comprising: - a supporting body having an elongate shape and a first upper end and a second lower end , said supporting body being configured to be positioned with both said ends on the wall (P); - a first gripping unit and a second gripping unit operatively connected to said supporting body and interposed between said first upper end and said second lower end of said body , said first and said second gripping unit being configured to be positioned and constrained on said glass (V); - at least one actuator operatively connected at one of said first upper end and optionally another actuator at said second lower end to said supporting body and configured to apply a traction stress to said glass (V) imparting a predetermined force (F) acting on said supporting body close to said connecting means (MC), in such a way that a predetermined reaction compressive force (F') acts on the wall (P) when said force (F) acting is a traction force of said supporting body , - a position sensor operatively connected to said supporting body to measure the deviation (D) between said wall (P) and said glass (V) when said wall (P) and said glass (V) are subjected, respectively, to said predetermined compression (F') and traction (FT) forces, whereby that said first gripping unit defines the fulcrum of a second class lever for said second gripping unit and said actuator . - a supporting body having an elongate shape and a first upper end and a second lower end , said supporting body being configured to be positioned with both said ends on the wall (P); - a first gripping unit and a second gripping unit operatively connected to said supporting body and interposed between said first upper end and said second lower end of said body , said first and said second gripping unit being configured to be positioned and constrained on said glass (V); - at least one actuator operatively connected at one of said first upper end and optionally another actuator at said second lower end to said supporting body and configured to apply a traction stress to said glass (V) imparting a predetermined force (F) acting on said supporting body close to said connecting means (MC), in such a way that a predetermined reaction compressive force (F') acts on the wall (P) when said force (F) acting is a traction force of said supporting body , - a position sensor operatively connected to said supporting body to measure the deviation (D) between said wall (P) and said glass (V) when said wall (P) and said glass (V) are subjected, respectively, to said predetermined compression (F') and traction (FT) forces, whereby that said first gripping unit defines the fulcrum of a second class lever for said second gripping unit and said actuator .
A hybrid aircraft propulsion system comprising: a gas turbine engine comprising a compressor , a combustor , one or more turbines , a shaft coupled to one of the turbines , and a bypass fan mechanically driven by the shaft ; an electrical generator mechanically coupled to the shaft ; an auxiliary propulsor mechanically coupled to an electric motor electrically coupled to the electric generator ; wherein, in use, the engine comprises a fan bypass ratio of between 4:1 and 13:1, and the generator is configured to absorb between 10% and 60% of the mechanical power generated by the turbine, characterised in that the gas turbine engine is configured to produce a turbine entry temperature at maximum power between 1800 Kelvin and 2000 Kelvin, and in that , in use, the turbine has a pressure ratio that is greater than about 5. a gas turbine engine comprising a compressor , a combustor , one or more turbines , a shaft coupled to one of the turbines , and a bypass fan mechanically driven by the shaft ; an electrical generator mechanically coupled to the shaft ; an auxiliary propulsor mechanically coupled to an electric motor electrically coupled to the electric generator ; wherein, in use, the engine comprises a fan bypass ratio of between 4:1 and 13:1, and the generator is configured to absorb between 10% and 60% of the mechanical power generated by the turbine, characterised in that the gas turbine engine is configured to produce a turbine entry temperature at maximum power between 1800 Kelvin and 2000 Kelvin, and in that , in use, the turbine has a pressure ratio that is greater than about 5.
A method for producing a semifluorinated alkane compound represented by the formula comprising subjecting a compound of the formula to reductive dehalogenation reaction in the presence of a Urushibara metal catalyst, and a reducing agent, wherein in the formula and n is an integer from 2 to 12; R 1 , R 2 and R 3 are the same or different and are independently from each other one selected from hydrogen and a C 1-10 linear or branched alkyl group; X is a halogen atom selected from chlorine, bromine and iodine. n is an integer from 2 to 12; R 1 , R 2 and R 3 are the same or different and are independently from each other one selected from hydrogen and a C 1-10 linear or branched alkyl group; X is a halogen atom selected from chlorine, bromine and iodine.