mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method performed by a computerized device, comprising: receiving an indication for an identification method selected from a group of identification methods for identifying an action-requiring element comprised in a frame rendered during a game, wherein the identification method is a least resource-consuming method from the group of identification methods applicable for the frame; activating the identification method for recognizing whether the element is comprised in a frame to be rendered; and responsive to the element being comprised in the frame, taking an action corresponding to the action requiring element, wherein the group of identification methods comprises: pattern matching, per-pixel pattern matching, Application Program Interface sequence identifying; and using a modified version of a geometry shader function executed by a graphic processor pipeline; wherein per-pixel pattern matching comprises matching in dependence on a variance threshold assigned to each pixel in a pattern, with each variance threshold indicating the allowed level of variance in a pixel; and wherein the taken action includes any of adding a second element for hiding the element, adding a second element, displaying a different graphic element that hides the element, displaying a message that an option is not supported, blocking an action, hiding a mouse cursor, simulating a button push and adding text notifying that an option is unavailable. receiving an indication for an identification method selected from a group of identification methods for identifying an action-requiring element comprised in a frame rendered during a game, wherein the identification method is a least resource-consuming method from the group of identification methods applicable for the frame; activating the identification method for recognizing whether the element is comprised in a frame to be rendered; and responsive to the element being comprised in the frame, taking an action corresponding to the action requiring element, wherein the group of identification methods comprises: pattern matching, per-pixel pattern matching, Application Program Interface sequence identifying; and using a modified version of a geometry shader function executed by a graphic processor pipeline; wherein per-pixel pattern matching comprises matching in dependence on a variance threshold assigned to each pixel in a pattern, with each variance threshold indicating the allowed level of variance in a pixel; and wherein the taken action includes any of adding a second element for hiding the element, adding a second element, displaying a different graphic element that hides the element, displaying a message that an option is not supported, blocking an action, hiding a mouse cursor, simulating a button push and adding text notifying that an option is unavailable.
A hydraulic spool valve (42, 46), comprising: a drive lever; and, a spool, the spool comprising: a pressure chamber for connecting a pressure line to a hydraulic cylinder; at least one return chamber (24, 25) for connecting the hydraulic cylinder to a reservoir; and an actuator slot receiving the drive lever, wherein the actuator slot comprises a wall; characterised in that the spool further comprises a fluid path connecting said pressure chamber to said actuator slot and a pressure plate movably mounted in the slot such that in use it is disposed between the fluid path (27, 28) and the drive lever so as to maintain contact with the drive lever and to maintain contact between the drive lever and the wall of the slot opposite to the pressure plate. a drive lever; and, a spool, the spool comprising: a pressure chamber for connecting a pressure line to a hydraulic cylinder; at least one return chamber (24, 25) for connecting the hydraulic cylinder to a reservoir; and an actuator slot receiving the drive lever, wherein the actuator slot comprises a wall; characterised in that the spool further comprises a fluid path connecting said pressure chamber to said actuator slot and a pressure plate movably mounted in the slot such that in use it is disposed between the fluid path (27, 28) and the drive lever so as to maintain contact with the drive lever and to maintain contact between the drive lever and the wall of the slot opposite to the pressure plate. a pressure chamber for connecting a pressure line to a hydraulic cylinder; at least one return chamber (24, 25) for connecting the hydraulic cylinder to a reservoir; and an actuator slot receiving the drive lever, wherein the actuator slot comprises a wall;
A compound represented by the following Chemical Formula 1, or a pharmaceutically acceptable salt thereof: wherein, in Chemical Formula 1, X 1 is N-R 1, O, or S, X 2 is CH, or N, R 1 is ethyl, propyl, isopropyl, butyl, isobutyl, pentyl, isopentyl, neopentyl, cyclopropyl, cyclobutyl, cyclopentyl, cyclohexyl, or 2-((tert-butoxycarbonyl)amino)ethyl, R 2 is hydrogen, C 1-5 alkyl, or halogen, and R 3 is hydrogen or C 1-5 alkyl. X 1 is N-R 1, O, or S, X 2 is CH, or N, R 1 is ethyl, propyl, isopropyl, butyl, isobutyl, pentyl, isopentyl, neopentyl, cyclopropyl, cyclobutyl, cyclopentyl, cyclohexyl, or 2-((tert-butoxycarbonyl)amino)ethyl, R 2 is hydrogen, C 1-5 alkyl, or halogen, and R 3 is hydrogen or C 1-5 alkyl.
A medical system comprising: a flexible device including a shape sensor; a memory storing anatomical data describing a patient anatomy; and a processor configured for generating a first model of a plurality of branched anatomical passageways from the stored anatomical data describing the patient anatomy; receiving information from the shape sensor to determine a shape of the device positioned within the branched anatomical passageways; said processor being characterized in that it is further configured for determining a set of deformation forces based on the determined shape of the device; and generating a second model of the plurality of branched anatomical passageways by deforming the first model, wherein deforming the first model includes adjusting the first model in response to the set of deformation forces. a flexible device including a shape sensor; a memory storing anatomical data describing a patient anatomy; and a processor configured for generating a first model of a plurality of branched anatomical passageways from the stored anatomical data describing the patient anatomy; receiving information from the shape sensor to determine a shape of the device positioned within the branched anatomical passageways; said processor being characterized in that it is further configured for determining a set of deformation forces based on the determined shape of the device; and generating a second model of the plurality of branched anatomical passageways by deforming the first model, wherein deforming the first model includes adjusting the first model in response to the set of deformation forces. generating a first model of a plurality of branched anatomical passageways from the stored anatomical data describing the patient anatomy; receiving information from the shape sensor to determine a shape of the device positioned within the branched anatomical passageways; said processor being characterized in that it is further configured for determining a set of deformation forces based on the determined shape of the device; and generating a second model of the plurality of branched anatomical passageways by deforming the first model, wherein deforming the first model includes adjusting the first model in response to the set of deformation forces.
An optical-sample module for use in a system for measuring whole-blood hemoglobin parameters or whole-blood bilirubin parameters, the optical-sample module comprising a light-emitting module comprising: an LED light source capable of emitting light wherein the light is directed thereby defining an optical path; and a plurality of optical components disposed within the optical path, the plurality of optical components comprising: a collimating lens proximal to the LED light source; a first optical diffuser positioned after the collimating lens; a circular polarizer positioned after the first optical diffuser; and a focusing lens positioned after the circular polarizer, and the optical-sample module further comprising a cuvette assembly adjacent the light-emitting module having a sample receiving chamber disposed in the optical path for receiving light from the light-emitting module and adapted for receiving a whole-blood sample. an LED light source capable of emitting light wherein the light is directed thereby defining an optical path; and a plurality of optical components disposed within the optical path, the plurality of optical components comprising: a collimating lens proximal to the LED light source; a first optical diffuser positioned after the collimating lens; a circular polarizer positioned after the first optical diffuser; and a focusing lens positioned after the circular polarizer, a collimating lens proximal to the LED light source; a first optical diffuser positioned after the collimating lens; a circular polarizer positioned after the first optical diffuser; and a focusing lens positioned after the circular polarizer, and the optical-sample module further comprising a cuvette assembly adjacent the light-emitting module having a sample receiving chamber disposed in the optical path for receiving light from the light-emitting module and adapted for receiving a whole-blood sample.
Lighting means comprising a lighting body having an electrodeless discharge chamber which comprises an outer wall and into which microwaves are coupled, and thermal stabilisation means comprising a chamber that is separated from the discharge chamber by a partition, at least partially surrounded by the discharge chamber and central with respect to the discharge chamber, characterised in that outer electrodes are provided at the outer wall of the discharge chamber configured to couple microwaves into the discharge chamber through its outer wall and the chamber, which is at least partially surrounded by the discharge chamber, is a closed vacuum chamber or is filled with solid material so as to reduce heat dissipation from the discharge chamber through the partition defining the discharge chamber. an electrodeless discharge chamber which comprises an outer wall and into which microwaves are coupled, and thermal stabilisation means comprising a chamber that is separated from the discharge chamber by a partition, at least partially surrounded by the discharge chamber and central with respect to the discharge chamber, separated from the discharge chamber by a partition, at least partially surrounded by the discharge chamber and central with respect to the discharge chamber, outer electrodes are provided at the outer wall of the discharge chamber configured to couple microwaves into the discharge chamber through its outer wall and the chamber, which is at least partially surrounded by the discharge chamber, is a closed vacuum chamber or is filled with solid material so as to reduce heat dissipation from the discharge chamber through the partition defining the discharge chamber.
Plant for exploiting wave power, particularly for the production of electrical energy, comprising a float connected with the movable lower component of a pumping unit which runs axially in a fixed body that draws from the sea and is designed to suck in water after lowering of the float and which, simultaneously with the raising of said float by the wave, pumps water and conveys it to operating equipment, for example hydroelectric conversion means (20,22) wherein said float moves, guided laterally, in a guide tube (1,1') with its lower end immersed in the sea and the other end facing upwards, fixed to any suitable support means and provided laterally with at least one window positioned at sea level, in which said float is normally located and through which the wave enters to raise and lower the same float, said float being axially integral with a movable duct which extends downwards to draw water from the sea through suction valve means and which axially crosses said float to allow entry into the same of a fixed pumping duct which, via discharge valve means, is connected at the top to a fixed pipe positioned on the upper end of said guide tube (1,1') for delivery of the water pumped by said system of fixed and movable ducts (11,14) operated by the float and provided with said valve means (12,15), it being provided that said fixed pipe be shaped with an elbow shape, and that said pipe and/or said fixed duct be sustained by a supporting structure (3,10) positioned in the upper surfaced part of said guide tube (1,1'), so that by easily acting on said supporting structure (3,10) the pump-float assembly can be removed for maintenance and the inside of said guide tube (1,1') can be accessed for all maintenance and/or cleaning requirements.
Ion sensor based on differential measurement that comprises: • connection tracks (9, 37), • a first ion-selective field effect transistor and at least one second ion-selective field effect transistor, electrically connected by the connection tracks (9, 37) to an ion measurement system; • an electrode (10, 36) that is able to be in contact with a solution to measure; • at least one chip (21, 22) on the surface whereof are integrated the ion-selective field effect transistors (1, 2); and • a substrate (8, 35) whereon is integrated the at least one chip, the connection tracks and the electrode; wherein the ion sensor comprises: • a structure adhered on the first ion-selective field effect transistor configured to create a microreservoir (6, 18, 31) on one gate of the first ion-selective field effect transistor, wherein the microreservoir is filled with a reference solution, so the first ion-selective field effect transistor is in contact with the reference solution and the at least one second ion-selective field effect transistor is in contact with the solution to measure; • at least one microchannel (7, 19, 30) which connects the microreservoir with the exterior, the at least one microchannel filled with the reference solution; and, • an encapsulating material (11, 39) which completely insulates the connection tracks and partially insulates the first and the at least one second ion-selective field effect transistors of the solution to measure, wherein the gates (4, 13) of the first and the at least one second ion-selective field effect transistors and the outlet of the at least one microchannel are uncovered. • connection tracks (9, 37), • a first ion-selective field effect transistor and at least one second ion-selective field effect transistor, electrically connected by the connection tracks (9, 37) to an ion measurement system; • an electrode (10, 36) that is able to be in contact with a solution to measure; • at least one chip (21, 22) on the surface whereof are integrated the ion-selective field effect transistors (1, 2); and • a substrate (8, 35) whereon is integrated the at least one chip, the connection tracks and the electrode; • a structure adhered on the first ion-selective field effect transistor configured to create a microreservoir (6, 18, 31) on one gate of the first ion-selective field effect transistor, wherein the microreservoir is filled with a reference solution, so the first ion-selective field effect transistor is in contact with the reference solution and the at least one second ion-selective field effect transistor is in contact with the solution to measure; • at least one microchannel (7, 19, 30) which connects the microreservoir with the exterior, the at least one microchannel filled with the reference solution; and, • an encapsulating material (11, 39) which completely insulates the connection tracks and partially insulates the first and the at least one second ion-selective field effect transistors of the solution to measure, wherein the gates (4, 13) of the first and the at least one second ion-selective field effect transistors and the outlet of the at least one microchannel are uncovered.
A method for oligomerizing olefins, the method comprising the steps of: introducing an oligomerization transition metal catalyst, a cocatalyst, an olefin monomer, and a solvent into a reactor to perform an olefin oligomerization reaction; and introducing a catalyst inactivator, which includes an oxygen-containing inorganic material in a gas phase, to a reaction product of the oligomerization reaction, wherein the transition metal catalyst is represented by ML 1 (L 2) p q or M 2 X 1 2 L 1 2 (L 2) y z, wherein M is a transition metal, L 1 is a heteroligand, L 2 is an organic ligand, X and X 1 are each independently a halogen, p is an integer of 0 or 1 or more, q is an integer of (oxidation number of M - p), y is an integer of 2 or more, and z is an integer of (2 x oxidation number of M) - y, and wherein the heteroligand L 1 has a P-C-C-P backbone structure represented by the following Formula 3: wherein R 51 to R 54 are each independently a hydrocarbyl, a substituted hydrocarbyl, a heterohydrocarbyl, or a subst ituted heterohydrocarbyl; R 55 and R 56 are each independently a hydrocarbyl or a substituted hydrocarbyl, or R 55 and R 56 may be taken together via hydrocarbylene, substituted hydrocarbylene, heterohydrocarbylene, or substituted heterohydrocarbylene to form a ring. introducing an oligomerization transition metal catalyst, a cocatalyst, an olefin monomer, and a solvent into a reactor to perform an olefin oligomerization reaction; and introducing a catalyst inactivator, which includes an oxygen-containing inorganic material in a gas phase, to a reaction product of the oligomerization reaction, wherein the transition metal catalyst is represented by ML 1 (L 2) p q or M 2 X 1 2 L 1 2 (L 2) y z, wherein M is a transition metal, L 1 is a heteroligand, L 2 is an organic ligand, X and X 1 are each independently a halogen, p is an integer of 0 or 1 or more, q is an integer of (oxidation number of M - p), y is an integer of 2 or more, and z is an integer of (2 x oxidation number of M) - y, and wherein the heteroligand L 1 has a P-C-C-P backbone structure represented by the following Formula 3: wherein R 51 to R 54 are each independently a hydrocarbyl, a substituted hydrocarbyl, a heterohydrocarbyl, or a subst ituted heterohydrocarbyl; R 55 and R 56 are each independently a hydrocarbyl or a substituted hydrocarbyl, or R 55 and R 56 may be taken together via hydrocarbylene, substituted hydrocarbylene, heterohydrocarbylene, or substituted heterohydrocarbylene to form a ring.
A stable, single-phase emulsifiable concentrate, comprising (a) a pesticide mixture comprising a major amount of at least one water-insoluble pesticide selected from an ester of fluroxypyr and an ester of bromoxynil, and a minor amount of at least one water-soluble pesticidal salt which is the sodium, potassium, ammonia, dimethylamine, diethylamine, triethylamine, monoethanolamine, diethanolamine, 2-hydroxyethylammonium, aminoethoxyethanol, triisopropanolamine, tris(2-hydroxypropyl)amine, aminopropylmorpholine or triethanolamine salt of dicamba; (b) a solvent system comprising (i) a major amount of a solvent comprising at least one non aqueous polar solvent; (ii) a minor amount of water, wherein the minor amount of water is less than the major amount of the at least one non aqueous polar solvent; and (iii) at least one aromatic hydrocarbon; and, (c) an emulsifying surfactant system enabling an oil in water emulsion to be formed when the emulsifiable concentrate is added to water, wherein the emulsifying surfactant system comprises at least one of an alkyl polyglycoside surfactant and an alkylene oxide surfactant. (a) a pesticide mixture comprising a major amount of at least one water-insoluble pesticide selected from an ester of fluroxypyr and an ester of bromoxynil, and a minor amount of at least one water-soluble pesticidal salt which is the sodium, potassium, ammonia, dimethylamine, diethylamine, triethylamine, monoethanolamine, diethanolamine, 2-hydroxyethylammonium, aminoethoxyethanol, triisopropanolamine, tris(2-hydroxypropyl)amine, aminopropylmorpholine or triethanolamine salt of dicamba; a major amount of at least one water-insoluble pesticide selected from an ester of fluroxypyr and an ester of bromoxynil, and a minor amount of at least one water-soluble pesticidal salt which is the sodium, potassium, ammonia, dimethylamine, diethylamine, triethylamine, monoethanolamine, diethanolamine, 2-hydroxyethylammonium, aminoethoxyethanol, triisopropanolamine, tris(2-hydroxypropyl)amine, aminopropylmorpholine or triethanolamine salt of dicamba; (b) a solvent system comprising (i) a major amount of a solvent comprising at least one non aqueous polar solvent; (ii) a minor amount of water, wherein the minor amount of water is less than the major amount of the at least one non aqueous polar solvent; and (iii) at least one aromatic hydrocarbon; and, (c) an emulsifying surfactant system enabling an oil in water emulsion to be formed when the emulsifiable concentrate is added to water, wherein the emulsifying surfactant system comprises at least one of an alkyl polyglycoside surfactant and an alkylene oxide surfactant.
A wound dressing positioned on a tissue site comprising: a contact layer comprising walls defining a plurality of perforations; and a debriding matrix in contact with the tissue site and between the contact layer and the tissue site, the debriding matrix comprising a polymer and at least one debriding agent, wherein the debriding matrix is coupled to the contact layer and covering the plurality of perforations, wherein the debriding matrix is a solid sheet. a contact layer comprising walls defining a plurality of perforations; and a debriding matrix in contact with the tissue site and between the contact layer and the tissue site, the debriding matrix comprising a polymer and at least one debriding agent, wherein the debriding matrix is coupled to the contact layer and covering the plurality of perforations, wherein the debriding matrix is a solid sheet.
A solids flow control valve comprising: a standpipe; a shoe; a transport pipe; wherein the standpipe is in operative communication with the shoe and lies upstream of the shoe; the standpipe comprising a first end and a second end, where the first end is connectable to a source that contains disposable solids and the second end is in fluid contact with the shoe; the shoe being operative to restrict the flow of the disposable solids; the transport pipe being disposed downstream of the shoe to receive and transport the solids from the shoe, ports for supplying pressurized air into the shoe, a controller for controlling the pressurized air flow through the ports, wherein the shoes comprises a heel, a base and a toe, where the heel, the base and the toe each contact one another, at least one of the ports is located at the base of the shoe, at least one of the ports is located at the heel, characterized in that the toe is inclined to the base at an internal angle that is greater than 90 degrees, within a range of 105 to 135 degrees, preferably 135 degrees. a standpipe; a shoe; a transport pipe; wherein the standpipe is in operative communication with the shoe and lies upstream of the shoe; the standpipe comprising a first end and a second end, where the first end is connectable to a source that contains disposable solids and the second end is in fluid contact with the shoe; the shoe being operative to restrict the flow of the disposable solids; the transport pipe being disposed downstream of the shoe to receive and transport the solids from the shoe, ports for supplying pressurized air into the shoe, a controller for controlling the pressurized air flow through the ports, wherein the shoes comprises a heel, a base and a toe, where the heel, the base and the toe each contact one another, at least one of the ports is located at the base of the shoe, at least one of the ports is located at the heel, characterized in that the toe is inclined to the base at an internal angle that is greater than 90 degrees, within a range of 105 to 135 degrees, preferably 135 degrees.