mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument system, configured to transect tissue, comprising: (a) a surgical instrument (10, 50, 101, 159) comprising: (i) a body operable to communicate with different kinds of end effector assemblies (16, 80, 150, 180), (ii) a modular end effector assembly removably coupled with the body, (iii) a power source (14, 28, 198) operable to drive the end effector, the power source comprising a generator, and (iv) a sensor, wherein the sensor is configured to receive power from the generator and, upon receipt of the power, is configured to transmit procedure data associated with the end effector to the generator; and (b) a storage device, characterised in that the storage device is operable to receive the procedure data from the power source, wherein the generator is configured to transmit data to the storage device, wherein the procedure data comprises electrical characteristics and/or operating parameters of the generator associated with use of the surgical instrument during a procedure, and wherein the storage device is configured to indicate a type of tissue transected during a procedure based on the procedure data. (a) a surgical instrument (10, 50, 101, 159) comprising: (i) a body operable to communicate with different kinds of end effector assemblies (16, 80, 150, 180), (ii) a modular end effector assembly removably coupled with the body, (iii) a power source (14, 28, 198) operable to drive the end effector, the power source comprising a generator, and (iv) a sensor, wherein the sensor is configured to receive power from the generator and, upon receipt of the power, is configured to transmit procedure data associated with the end effector to the generator; and (i) a body operable to communicate with different kinds of end effector assemblies (16, 80, 150, 180), (ii) a modular end effector assembly removably coupled with the body, (iii) a power source (14, 28, 198) operable to drive the end effector, the power source comprising a generator, and (iv) a sensor, wherein the sensor is configured to receive power from the generator and, upon receipt of the power, is configured to transmit procedure data associated with the end effector to the generator; and (b) a storage device, characterised in that the storage device is operable to receive the procedure data from the power source, wherein the generator is configured to transmit data to the storage device, wherein the procedure data comprises electrical characteristics and/or operating parameters of the generator associated with use of the surgical instrument during a procedure, and wherein the storage device is configured to indicate a type of tissue transected during a procedure based on the procedure data.
A pharmaceutical foam formulation comprising a therapeutically effective amount of imiquimod present in an amount of 0,1% to 8% by weight based on the total weight of the formulation, isostearic acid in an amount of 1% to 40% by weight based on the total weight of the formulation, a preservative system selected from the group consisting of methylparaben and propylparaben, in an amount of 0,01% to 3% by weight based on the total weight of the formulation, sorbitan monostearate in an amount of 2.5% to 10% by weight based on the total weight of the formulation a 50:50 combination of propane and butane propellant in an amount of 10% to 25% by weight based on the total weight of the formulation.
Support element for a timepiece sensor, said support element being made in 3D/MID, so that the support element has a three-dimensional shape and integrated electrical connection paths, and further including a first rigid connection interface, characterized in that the support element includes a second, flexible connection interface formed by bent wire springs assembled to said support, or by flexible finger-pieces on which are arranged said electrical connection paths.
A method of controlling uplink transmission of a user equipment in a soft handover mode in a wireless communication system, the method comprising: - communicating with a serving network and a non-serving network, at a first transmission mode comprising a first transmission power level and a first data rate; - receiving a first change command from the non-serving network to change the first transmission mode to a second transmission mode comprising a second transmission power level and a second data rate; - entering the second transmission mode; and - receiving a second change command from the serving network to increase a transmission power level and a data rate of the user equipment, - wherein the user equipment maintains the second transmission mode for a predetermined time period regardless of a second change command if the second change command is received before expiration of the predetermined time period, - wherein the user equipment increases the transmission power level and the data rate of the user equipment according to the second change command if the second change command is received after expiration of the predetermined time period. - communicating with a serving network and a non-serving network, at a first transmission mode comprising a first transmission power level and a first data rate; - receiving a first change command from the non-serving network to change the first transmission mode to a second transmission mode comprising a second transmission power level and a second data rate; - entering the second transmission mode; and - receiving a second change command from the serving network to increase a transmission power level and a data rate of the user equipment, - wherein the user equipment maintains the second transmission mode for a predetermined time period regardless of a second change command if the second change command is received before expiration of the predetermined time period, - wherein the user equipment increases the transmission power level and the data rate of the user equipment according to the second change command if the second change command is received after expiration of the predetermined time period.
A boat for servicing shallow waters like canals, lakes, and rivers configured for extracting, cutting, grinding, and casting off plant waste, solid waste, or agricultural plantation harvest and sending what is harvested to shore, and characterized in that it comprises: a front saw configured for cutting plants below the shallow water surface, wherein the front saw can be raised and lowered from a front part of the boat to about a meter below the shallow water surface at a discretion of an operator; and an extractor belt; a grinding mill; a drive turbine; an height-adjustable stack; whereby said extractor belt is configured for extracting the plant waste previously cut by the front saw which is deposited on said horizontal conveyor belt to said grinding mill, wherein the extractor belt is formed by a body supporting two rollers, a lower roller, and an upper roller, said extractor belt being configured to be raised and lowered at a discretion of an operator; wherein the grinding mill is arranged to grind and fragment the plant waste received from the horizontal conveyor belt through the action of a rotor; and wherein the grinded and fragmented plant waste is collected into said drive turbine which is arranged to suction and cast the grinded and fragmented plant waste towards said height-adjustable stack able to rotate 360° to a zone where the grinded and fragmented plant waste is to be deposited. a front saw configured for cutting plants below the shallow water surface, wherein the front saw can be raised and lowered from a front part of the boat to about a meter below the shallow water surface at a discretion of an operator; and an extractor belt; a grinding mill; a drive turbine; an height-adjustable stack; whereby said extractor belt is configured for extracting the plant waste previously cut by the front saw which is deposited on said horizontal conveyor belt to said grinding mill, wherein the extractor belt is formed by a body supporting two rollers, a lower roller, and an upper roller, said extractor belt being configured to be raised and lowered at a discretion of an operator; wherein the grinding mill is arranged to grind and fragment the plant waste received from the horizontal conveyor belt through the action of a rotor; and wherein the grinded and fragmented plant waste is collected into said drive turbine which is arranged to suction and cast the grinded and fragmented plant waste towards said height-adjustable stack able to rotate 360° to a zone where the grinded and fragmented plant waste is to be deposited.
A method to produce a reduced aggregating variant of a protein for which a high-resolution crystallographic structure is available and said protein comprises at least two beta-aggregation regions, said method comprising the following steps a) determining the beta-aggregation regions in said protein with the TANGO algorithm, b) generating a list of variant proteins by performing a systematic mutation screen to aggregation gatekeeper residues R, K, E, D and P of all amino acids belonging to a determined beta-aggregation region wherein each variant protein has on at least one amino acid position in said beta-aggregation region a changed amino acid to either R, K, E, D or P, c) calculating for each of said variants the predicted aggregation score and the predicted change in thermodynamic stability with respect to the wild type protein, d) producing a reduced aggregating variant, which is derived from said list, wherein said variant has at the same time a maximally reduced aggregation score and a maximal preservation of thermodynamic stability and eliminate mutations that thermodynamically destabilize the native structure with the use of the FoldX atomic force field algorithm. a) determining the beta-aggregation regions in said protein with the TANGO algorithm, b) generating a list of variant proteins by performing a systematic mutation screen to aggregation gatekeeper residues R, K, E, D and P of all amino acids belonging to a determined beta-aggregation region wherein each variant protein has on at least one amino acid position in said beta-aggregation region a changed amino acid to either R, K, E, D or P, c) calculating for each of said variants the predicted aggregation score and the predicted change in thermodynamic stability with respect to the wild type protein, d) producing a reduced aggregating variant, which is derived from said list, wherein said variant has at the same time a maximally reduced aggregation score and a maximal preservation of thermodynamic stability and eliminate mutations that thermodynamically destabilize the native structure with the use of the FoldX atomic force field algorithm.
Engine comprising a crankcase with a number of at least one cylinders, for an internal combustion engine, further comprising: - a cylinder liner arranged within a cylinder interior of the cylinder, and - a cylinder head of the cylinder that closes the cylinder interior of the cylinder, wherein the cylinder head has a receiving means for a device or component that extends into the cylinder, and - a cooling system that conducts a coolant flow with a cooling chamber, - a distribution system arranged in the crankcase, for separating the coolant flow into a primary partial flow and at least one secondary partial flow (K2, K2.1, K2.2, K2.3, K2.4), wherein - the cooling system has a feed passage for feeding the coolant flow along the receiving means onto a flame deck of the cylinder head in such a way that an impingement flow arises on the flame deck, and characterised in that - the distribution system is arranged after the cylinder head in the direction of flow, wherein - for the primary partial flow, a main channel is arranged, and for the secondary partial flow (K2, K2.1, K2.2, K2.3, K2.4) a branching-off passage (146, 146.1, 146.2, 146.3, 146.4) arranged transversely to the main channel and branching off from the main channel is arranged in the crankcase, and wherein - the distribution system is designed to supply the at least one secondary partial flow (K2, K2.1, K2.2, K2.3, K2.4) to a top liner region of the cylinder liner that is closer to the cylinder head, and the primary partial flow to a remaining region of the cylinder liner that is further away from the cylinder head. - a cylinder liner arranged within a cylinder interior of the cylinder, and - a cylinder head of the cylinder that closes the cylinder interior of the cylinder, wherein the cylinder head has a receiving means for a device or component that extends into the cylinder, and - a cooling system that conducts a coolant flow with a cooling chamber, - a distribution system arranged in the crankcase, for separating the coolant flow into a primary partial flow and at least one secondary partial flow (K2, K2.1, K2.2, K2.3, K2.4), wherein - the cooling system has a feed passage for feeding the coolant flow along the receiving means onto a flame deck of the cylinder head in such a way that an impingement flow arises on the flame deck, and characterised in that - the distribution system is arranged after the cylinder head in the direction of flow, wherein - for the primary partial flow, a main channel is arranged, and for the secondary partial flow (K2, K2.1, K2.2, K2.3, K2.4) a branching-off passage (146, 146.1, 146.2, 146.3, 146.4) arranged transversely to the main channel and branching off from the main channel is arranged in the crankcase, and wherein - the distribution system is designed to supply the at least one secondary partial flow (K2, K2.1, K2.2, K2.3, K2.4) to a top liner region of the cylinder liner that is closer to the cylinder head, and the primary partial flow to a remaining region of the cylinder liner that is further away from the cylinder head.
A method for acquisition of small RNA having 5 to 200 nt, said method comprising contacting a carrier, which comprises a substance having affinity to a small RNA-binding Argonaute-family protein immobilized on its surface, with a complex of the Argonaute-family protein and the small RNA (Argonaute-family protein-RNA complex) to bind the Argonaute-family protein-RNA complex to the aforementioned carrier, and releasing the small RNA by heating the carrier bound with the aforementioned Argonaute-family protein-RNA complex at 70°C to 100°C for 30 to 600 s in water or in a buffer solution of pH 3.0 to pH 8.0.
An overhead change method applied in a network element of an embedded optical transport subnet, comprising: detecting that a fault occurs, and the fault triggering the embedded optical transport subnet and an outer subnet with the embedded optical transport subnet embedded therein which has a protection switching function to perform protection switching; changing a value of an overhead which will trigger protection switching of the outer subnet in a signal to be transmitted to a downstream network element to a value which will not trigger protection switching of the outer subnet, and not changing an overhead which will trigger the protection switching of the embedded optical transport subnet; and cancelling the change after the change lasts for a period of time, wherein the period of time is less than or equal to a set change lasting time. detecting that a fault occurs, and the fault triggering the embedded optical transport subnet and an outer subnet with the embedded optical transport subnet embedded therein which has a protection switching function to perform protection switching; changing a value of an overhead which will trigger protection switching of the outer subnet in a signal to be transmitted to a downstream network element to a value which will not trigger protection switching of the outer subnet, and not changing an overhead which will trigger the protection switching of the embedded optical transport subnet; and cancelling the change after the change lasts for a period of time, wherein the period of time is less than or equal to a set change lasting time.
A method of applying a stream of an adhesive composition to a substrate, the method comprising spraying a bead at a distance from a nozzle to the substrate of 3 to 10 mm, using a pressure of 50 to 300 bar, a speed of 200 to 500 mm/s, an application temperature of from 20 to 65°C and a nozzle diameter of 0.5 to 1.5 mm, the adhesive composition comprising: A. one or more epoxy resins; B. one or more rubber modified epoxy resins; C. one or more toughening compositions comprising the reaction product of one or more isocyanate terminated prepolymers and one or more capping compounds having one or more bisphenolic, phenolic, benzyl alcohol, aminophenyl or, benzylamino moieties wherein the reaction product is terminated with the capping compound, wherein the capping compound is a phenolic compound which contains one aromatic moiety and one aliphatic substituent on the aromatic ring which does not interfere in the reaction of the hydroxyl group with an isocyanate group and wherein the capping compound and the prepolymer are contacted in a reaction mixture cooled to a temperature of 90°C or less and for a time of 120 minutes or less; D. one or more curing agents and one or more catalysts for epoxy resins which initiates cure at a temperature of about 100°C or greater; and E. optionally; fillers, adhesion promoters, wetting agents and rheological additives useful in epoxy adhesive compositions. A. one or more epoxy resins; B. one or more rubber modified epoxy resins; C. one or more toughening compositions comprising the reaction product of one or more isocyanate terminated prepolymers and one or more capping compounds having one or more bisphenolic, phenolic, benzyl alcohol, aminophenyl or, benzylamino moieties wherein the reaction product is terminated with the capping compound, wherein the capping compound is a phenolic compound which contains one aromatic moiety and one aliphatic substituent on the aromatic ring which does not interfere in the reaction of the hydroxyl group with an isocyanate group and wherein the capping compound and the prepolymer are contacted in a reaction mixture cooled to a temperature of 90°C or less and for a time of 120 minutes or less; D. one or more curing agents and one or more catalysts for epoxy resins which initiates cure at a temperature of about 100°C or greater; and E. optionally; fillers, adhesion promoters, wetting agents and rheological additives useful in epoxy adhesive compositions.
A method of estimating the reverberations in an audio signal (y) comprising a direct part (d) and a reverberations part (r), the method comprising the step of providing an estimate ( R̂) of the frequency spectrum of the reverberations part (r) using a first parameter (α), and the frequency spectrum of the signal (y), wherein the first parameter (α) is indicative of the decay of the reverberations part (r) over time, and the method being characterised by the estimate ( R̂) of the frequency spectrum of the reverberations part (r) further being determined in response to a second parameter (β) indicative of the amplitude of the direct part (d) relative to the reverberations part (r) of the signal (y).
A repair seal that is used for a decorative panel including at least one undercoat layer (1b, 1c), a colored layer, and a clear layer stacked in this order on a substrate, the repair seal comprising: a repair multilayer body including a transparent or translucent resin base material sheet to be flexible, a repair colored layer disposed on a front side of the base material sheet and formed from the same paint as the colored layer, and a repair clear layer disposed on a front side of the repair colored layer and formed from the same paint as the clear layer; and a transparent or translucent adhesive layer disposed on a back side of the base material sheet, wherein a color of the colored layer of the decorative panel is visible through the resin base material sheet and the adhesive layer when obliquely observed, and wherein the resin base material sheet comprises an aromatic polyimide. a repair multilayer body including a transparent or translucent resin base material sheet to be flexible, a repair colored layer disposed on a front side of the base material sheet and formed from the same paint as the colored layer, and a repair clear layer disposed on a front side of the repair colored layer and formed from the same paint as the clear layer; and a transparent or translucent adhesive layer disposed on a back side of the base material sheet, wherein a color of the colored layer of the decorative panel is visible through the resin base material sheet and the adhesive layer when obliquely observed, and wherein the resin base material sheet comprises an aromatic polyimide.
An apparatus for manufacturing a compound film layer on a substrate, the compound film layer satisfying predefined properties, in particular being predefined values for thickness, overall composition and compositional profile, the latter being defined as a composition as a function of a position on or in the compound film layer, the apparatus comprising: - means for depositing at least two chemical elements (A, B) on the substrate using deposition sources, - means for maintaining depositing of the at least two chemical elements (A, B) while the substrate and the deposition sources are being moved relative to each other, - means for measuring the compound film layer properties, being compound film layer thickness, compound film layer overall composition, and compound film layer composition in one or several positions of the compound film layer, said means being a measurement device comprising an X-ray detector and an excitation source in the form of an electron source or an X-ray source, - means for comparing the predefined values for the compound film layer properties to the measured compound film layer properties, and - means for adjusting the deposition of the at least two chemical elements (A, B) in case the measured compound film layer properties do not match the predefined compound film layer properties, characterized in that at least a part of the measurement device is arranged opposite to the deposition sources with regard to the substrate. - means for depositing at least two chemical elements (A, B) on the substrate using deposition sources, - means for maintaining depositing of the at least two chemical elements (A, B) while the substrate and the deposition sources are being moved relative to each other, - means for measuring the compound film layer properties, being compound film layer thickness, compound film layer overall composition, and compound film layer composition in one or several positions of the compound film layer, said means being a measurement device comprising an X-ray detector and an excitation source in the form of an electron source or an X-ray source, - means for comparing the predefined values for the compound film layer properties to the measured compound film layer properties, and - means for adjusting the deposition of the at least two chemical elements (A, B) in case the measured compound film layer properties do not match the predefined compound film layer properties,