mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: producing a model (150, 160) of a sample, the sample having a pattern on a layer (104, 102), the pattern comprising a conductive material (1041, 1021) and an at least partially transparent material (104s, 102s), wherein producing a model (150, 160) of the sample comprises: modeling the pattern based on the effect that the pattern has on incident light (120 TE, 120 TM) that is TE polarized with respect to the pattern, wherein the pattern is modeled as a first uniform film (154e, 162e) that combines the optical properties of the conductive material (1041, 1021) and the at least partially transparent material (104s, 102s) of the pattern, and a second uniform film (154m, 162m) of the conductive material (1041, 1021) of the pattern, the second uniform film (154m, 162m) underlying the first uniform film (154e, 162e); wherein producing a model (150, 160) of the sample further comprises storing the model (150, 160) of the sample in a computer-readable storage medium. producing a model (150, 160) of a sample, the sample having a pattern on a layer (104, 102), the pattern comprising a conductive material (1041, 1021) and an at least partially transparent material (104s, 102s), wherein producing a model (150, 160) of the sample comprises: modeling the pattern based on the effect that the pattern has on incident light (120 TE, 120 TM) that is TE polarized with respect to the pattern, wherein the pattern is modeled as a first uniform film (154e, 162e) that combines the optical properties of the conductive material (1041, 1021) and the at least partially transparent material (104s, 102s) of the pattern, and a second uniform film (154m, 162m) of the conductive material (1041, 1021) of the pattern, the second uniform film (154m, 162m) underlying the first uniform film (154e, 162e); wherein producing a model (150, 160) of the sample further comprises storing the model (150, 160) of the sample in a computer-readable storage medium. modeling the pattern based on the effect that the pattern has on incident light (120 TE, 120 TM) that is TE polarized with respect to the pattern, wherein the pattern is modeled as a first uniform film (154e, 162e) that combines the optical properties of the conductive material (1041, 1021) and the at least partially transparent material (104s, 102s) of the pattern, and a second uniform film (154m, 162m) of the conductive material (1041, 1021) of the pattern, the second uniform film (154m, 162m) underlying the first uniform film (154e, 162e); wherein producing a model (150, 160) of the sample further comprises storing the model (150, 160) of the sample in a computer-readable storage medium.
A mold for forming a temporary prosthesis comprising: at least two mold members (12,14) being at least partially separable from each other, the at least two mold members cooperatively defining a generally enclosed interior cavity for forming the temporary prosthesis; wherein the mold further comprises an initially separate securement structure detachably mounted on the at least two mold members (12,14) for securing the at least two mold members to each other during the forming of the temporary prosthesis, the securement structure being removable from the at least two mold members (12,14) by hand, and without the use of a tool; and wherein the at least two mold members (12,14) includes a first mold and a second mold secured together by the securement structure to cooperatively define the interior cavity therebetween, characterized in that the securement structure is a non-threaded securement structure and in that the first mold and second mold are configured to be secured at one of a plurality of alternative positions relative to each other to provide alternative dimensions for the interior cavity. at least two mold members (12,14) being at least partially separable from each other, the at least two mold members cooperatively defining a generally enclosed interior cavity for forming the temporary prosthesis; wherein the mold further comprises an initially separate securement structure detachably mounted on the at least two mold members (12,14) for securing the at least two mold members to each other during the forming of the temporary prosthesis, the securement structure being removable from the at least two mold members (12,14) by hand, and without the use of a tool; and wherein the at least two mold members (12,14) includes a first mold and a second mold secured together by the securement structure to cooperatively define the interior cavity therebetween, characterized in that the securement structure is a non-threaded securement structure and in that the first mold and second mold are configured to be secured at one of a plurality of alternative positions relative to each other to provide alternative dimensions for the interior cavity.
A solid dispersion comprising a compound represented by General Formula: wherein R 1 is an unsubstituted phenyl group or a phenyl group substituted with a substituent, the substituent being at least one group selected from the group consisting of an alkyl group having 1 to 8 carbon atoms, an alkyl group having 1 to 8 carbon atoms substituted with a halogen atom, an alkoxy group having 1 to 8 carbon atoms, an alkoxycarbonyl group having 2 to 8 carbon atoms, a formyl group, a carboxyl group, a halogen atom, a phenyl group and a phenoxy group, R 2 is a cyano group or a nitro group, R 3 is a hydroxyl group, X is an oxygen atom or -S n -, n is an integer of 0 to 2, and Y is an oxygen atom or a sulfur atom, or a pharmaceutically acceptable salt thereof and a hypromellose derivative, wherein the hypromellose derivative is hypromellose acetate succinate or hypromellose phthalate.
A combination of a bone plate for fixing fractures of a bone having a terminal fragment and an impacting instrument for holding the bone plate and for impacting at least a portion of the bone plate into the bone, the combination comprising: a bone plate having a flared region configured for placement adjacent an outer surface of the bone and a prong region configured for placement adjacent the terminal fragment, the prong region having at least one tooth member (284, 285) for impacting into the terminal fragment, the at least one tooth member having a predominantly longitudinal axis and an arcuate portion having an apex joining the at least one tooth member to the flared region; and an impacting instrument having an elongated shaft having a striking surface and a bottom surface, the bottom surface of the elongated shaft having an arcuate surface contour region; being characterised in that the impacting instrument is securely attachable to the bone plate at said apex and in that, upon attachment of the impacting instrument to the bone plate, at least a portion of the arcuate surface contour region of the bottom surface of the impacting instrument is arranged to overlay and rest atop the apex joining the at least one tooth member (284, 285) of the bone plate to the flared region of the bone plate, a longitudinal axis of the elongated shaft being disposed substantially collinearly to the longitudinal axis of the at least one tooth member (284, 285). a bone plate having a flared region configured for placement adjacent an outer surface of the bone and a prong region configured for placement adjacent the terminal fragment, the prong region having at least one tooth member (284, 285) for impacting into the terminal fragment, the at least one tooth member having a predominantly longitudinal axis and an arcuate portion having an apex joining the at least one tooth member to the flared region; and an impacting instrument having an elongated shaft having a striking surface and a bottom surface, the bottom surface of the elongated shaft having an arcuate surface contour region; being characterised in that the impacting instrument is securely attachable to the bone plate at said apex and in that, upon attachment of the impacting instrument to the bone plate, at least a portion of the arcuate surface contour region of the bottom surface of the impacting instrument is arranged to overlay and rest atop the apex joining the at least one tooth member (284, 285) of the bone plate to the flared region of the bone plate, a longitudinal axis of the elongated shaft being disposed substantially collinearly to the longitudinal axis of the at least one tooth member (284, 285).
A method in a network node for scheduling a downlink data transmission to a User Equipment, UE, currently connected to the network node, the network node being employed in a wireless communication system, the method comprising: - determining to schedule data transmission to the UE using at least one resource element reserved for transmitting Cell-specific Reference Signals, CRSs, during at least one subframe, and - transmitting data to the UE using the at least one resource element reserved for transmitting the at least one CRS during the at least one subframe, and - signalling to the UE that the at least one resource element reserved for transmitting the at least one CRS, comprises data intended for the UE during the at least one subframe, further comprising ramping the transmission power of CRS up or down between two predetermined transmission power values, the ramp lasting at least two subframes. - determining to schedule data transmission to the UE using at least one resource element reserved for transmitting Cell-specific Reference Signals, CRSs, during at least one subframe, and - transmitting data to the UE using the at least one resource element reserved for transmitting the at least one CRS during the at least one subframe, and - signalling to the UE that the at least one resource element reserved for transmitting the at least one CRS, comprises data intended for the UE during the at least one subframe,
A method of preconditioning for the detection of contaminants in a refrigerant sensor comprising a housing, a membrane electrode assembly disposed in the housing, the membrane electrode assembly comprising a sensing electrode comprising a first catalyst comprising noble metal nanoparticles that are unsupported or are supported on a non-carbon black support, a counter electrode comprising a second catalyst comprising noble metal nanoparticles, and a solid polymer electrolyte disposed between the sensing electrode and the counter electrode, a first current collector in electrical contact with the sensing electrode, a second current collector in electrical contact with the counter electrode, a first flow field in fluid communication with a first opening in the housing to direct test refrigerant to flow by or through the sensing electrode, the housing including a chamber to which the counter electrode is exposed, and an electrical circuit connecting the sensing electrode and the counter electrode, the method comprising applying a positive voltage bias to the sensing electrode and exposing the sensor to a preconditioning gas comprising the contaminant(s) or their precursors or derivatives.
An artificial ground freezing system comprising a coolant apparatus which cools and supplies the coolant to a coolant circulation pipe, the coolant circulation pipe comprising a first coolant circulation pipe (2A, 2A1, 3C) characterised in that the coolant circulating in the coolant circulation pipe is carbon dioxide; a plugging member connects to a tip portion of the first coolant circulation pipe (2A, 2A1, 3C); the first coolant circulation pipe (2A, 2A1, 3C;) is a micro channel structure having a plurality of micro-coolant passages (2A δ) formed inside thereof, the micro channel structure being thermally conductive; the plurality of micro-coolant passages (2A δ) form a coolant supply side and a coolant return side, and the coolant supply side and the coolant return side of the micro-coolant passages (2A δ) are communicated with each other in the plugging member connected to the tip portion of the first coolant circulation pipe (2A, 2A1, 3C).
A fastener arrangement for establishing a screw-connection comprising - a main body with a central axis having o a head and o a shaft protruding from the lower side of the head in direction of the central axis, and having at its end facing away from the head a thread, - a driving element penetrated by the shaft and abutting with an upper end against the lower side of the head, wherein the driving element positively engages with the main body in a rotational direction around the central axis in screw-in direction of the thread, and wherein the positive engagement between the main body and the driving element is designed such that if a first shaft section of the main body that penetrates the driving element lengthens to a certain extent in the indented use of the fastener arrangement, the positive engagement is released. - a main body with a central axis having o a head and o a shaft protruding from the lower side of the head in direction of the central axis, and having at its end facing away from the head a thread, o a head and o a shaft protruding from the lower side of the head in direction of the central axis, and having at its end facing away from the head a thread, - a driving element penetrated by the shaft and abutting with an upper end against the lower side of the head, wherein the driving element positively engages with the main body in a rotational direction around the central axis in screw-in direction of the thread, and wherein the positive engagement between the main body and the driving element is designed such that if a first shaft section of the main body that penetrates the driving element lengthens to a certain extent in the indented use of the fastener arrangement, the positive engagement is released. wherein the driving element positively engages with the main body in a rotational direction around the central axis in screw-in direction of the thread, and wherein the positive engagement between the main body and the driving element is designed such that if a first shaft section of the main body that penetrates the driving element lengthens to a certain extent in the indented use of the fastener arrangement, the positive engagement is released.
A method of acquiring data of a matrix touch sensor comprising a matrix array of cells arranged according to a set of rows and columns, comprising the following steps: - activating the cells arranged according to a column of at least one subset of columns of the matrix touch sensor by connection to an electrical power source; - taking an overall measurement of an overall electrical characteristic on all the rows of at least one subset of rows of the matrix touch sensor; - taking a sequential measurement, if the overall electrical characteristic has a value representative of a contact, on at least one of those cells arranged according to the column, of an electrical characteristic, successively in each row of said at least one subset of rows; and - repeating the overall measurement and a sequential measurement steps after activating the cells arranged according to another column of said at least one subset of columns of the matrix touch sensor by connection to said electrical power source. - activating the cells arranged according to a column of at least one subset of columns of the matrix touch sensor by connection to an electrical power source; - taking an overall measurement of an overall electrical characteristic on all the rows of at least one subset of rows of the matrix touch sensor; - taking a sequential measurement, if - repeating the overall measurement and a sequential measurement steps after activating the cells arranged according to another column of said at least one subset of columns of the matrix touch sensor by connection to said electrical power source.
Apparatus for mixing, in particular dispersing, comprising: - a housing with at least one inlet, - a first process area for mixing and in particular dispersing supplied substances, wherein the substances can be introduced into the first process area through the at least one inlet, - a second process area for discharging the mixture to an outlet, - a first gap-forming element associated with the first process area and comprising openings, wherein the first gap-forming element is a rotor, - a second gap-forming element which is assigned to the second process area and corresponds to the first gap-forming element, the second gap-forming element comprising openings, the second gap-forming element being designed as a static separating device, - wherein the rotor is designed to be rotatable about an axis of rotation relative to the other gap-forming element, wherein the openings of the first gap-forming element and the openings of the second gap-forming element are arranged in such a way that they do not overlap and that a mixture of the supplied materials is fed through the openings (8, 10) in the two gap-forming elements (7, 9) can be conducted from the first into the second process area, whereby material transfer from the openings of the first gap-forming element to the openings of the second gap-forming element is only possible through a gap between the openings, and wherein grinding tools are arranged on the first gap-forming element and/or on the housing, which grinding tools are designed for dispersion of the introduced substances in the first process area, characterised in that the openings of the gap-forming elements extend over a length of at least 50% of the first gap-forming element in the first process area. - a housing with at least one inlet, - a first process area for mixing and in particular dispersing supplied substances, wherein the substances can be introduced into the first process area through the at least one inlet, - a second process area for discharging the mixture to an outlet, - a first gap-forming element associated with the first process area and comprising openings, wherein the first gap-forming element is a rotor, - a second gap-forming element which is assigned to the second process area and corresponds to the first gap-forming element, the second gap-forming element comprising openings, the second gap-forming element being designed as a static separating device, - wherein the rotor is designed to be rotatable about an axis of rotation relative to the other gap-forming element,
A slurry comprising: stucco; Class C fly ash; magnesium oxide; and an emulsion of siloxane and water, wherein the ratio of said fly ash to said magnesium oxide is from 2:1 to 3:1. stucco; Class C fly ash; magnesium oxide; and an emulsion of siloxane and water, wherein the ratio of said fly ash to said magnesium oxide is from 2:1 to 3:1.
A method for reducing the viscosity of a condensation resin, which comprises reacting a substantially fully reacted condensation resin, synthesized from at least one, preferably precisely one, urea, formaldehyde, and at least one, preferably precisely one, CH-acidic aldehyde in a molar ratio of 1:2 to 15:2 to 15, with at least one monofunctional alcohol in the presence of at least one Bronsted acid.
A reservoir lid for a continuous ink jet printer, including a so-called upper surface (33 1), a so-called lower surface (33 2), between which are included an upper part and a lower part of the lid, at least the latter being delimited sideways by a peripheral surface (S e), and: - at least one 1 st duct (331, 431, 432), which passes through at least one part of the lid, for leading a 1 st fluid from said upper part to said lower part and direct it, at least partly, sideways, to said peripheral surface (S e), - at least one 1 st chamber (333, 343) delimited by an internal surface into which said duct opens, and by said peripheral surface (S e), and means (338, 438) for flowing a liquid contained in this chamber along said peripheral surface. - at least one 1 st duct (331, 431, 432), which passes through at least one part of the lid, for leading a 1 st fluid from said upper part to said lower part and direct it, at least partly, sideways, to said peripheral surface (S e), - at least one 1 st chamber (333, 343) delimited by an internal surface into which said duct opens, and by said peripheral surface (S e), and means (338, 438) for flowing a liquid contained in this chamber along said peripheral surface.
A method for the anonymisation of measurement data, wherein the measurement data were acquired using a smart meter, wherein the method comprises a permutation of the measurement data, wherein the granularity is retained and the permutation increases the anonymity of the measurement data.
A method for producing a crystal of a uracil compound represented by formula characterized in that the method comprises dissolving a composition comprising the uracil compound in organic solvents consisting of a C3-C6 alcohol solvent and an aromatic solvent to obtain a solution, and precipitating a crystal of the uracil compound from the solution, wherein the crystal of the uracil compound is precipitated by cooling a solution of a crude composition, the C3-C6 alcohol solvent is a solvent selected from the group consisting of 1-propanol, 2-propanol, 1-butanol, 2-butanol, 2-methyl-1-propanol, 2-methyl-2-propanol, 1-pentanol, 3-methyl-1-butanol, and 2-methyl-2-butanol, or a mixture of two or more of them, the aromatic solvent is a solvent selected from the group consisting of toluene, o-xylene, m-xylene, p-xylene, ethylbenzene, and chlorobenzene, or a mixture of two or more of them, and a weight ratio of the C3-C6 alcohol solvent to the aromatic solvent is 50:50 to 98:2. the uracil compound in organic solvents consisting of a C3-C6 alcohol solvent and an aromatic solvent to obtain a solution, and precipitating a crystal of the uracil compound from the solution, wherein the crystal of the uracil compound is precipitated by cooling a solution of a crude composition, the C3-C6 alcohol solvent is a solvent selected from the group consisting of 1-propanol, 2-propanol, 1-butanol, 2-butanol, 2-methyl-1-propanol, 2-methyl-2-propanol, 1-pentanol, 3-methyl-1-butanol, and 2-methyl-2-butanol, or a mixture of two or more of them, the aromatic solvent is a solvent selected from the group consisting of toluene, o-xylene, m-xylene, p-xylene, ethylbenzene, and chlorobenzene, or a mixture of two or more of them, and a weight ratio of the C3-C6 alcohol solvent to the aromatic solvent is 50:50 to 98:2.
A method for producing a trim part for vehicles using an injection mold comprising the steps: a. Creating a carrier substrate in a tool cavity of the injection mold from a first plastic material; b. Injection molding a lost seal from a second plastic material along an edge section of the carrier substrate positioned at a distance to an edge of the carrier substrate, such that the edge of the carrier substrate is exposed, wherein the second plastic material is different from the first plastic material and is designed to form a detachable bond with the first plastic material; c. Generating a sealing cavity between the carrier substrate and a tool component of the injection mold; d. Inserting a surface cover layer into the sealing cavity on the carrier substrate, said cover layer reaching behind the edge of said substrate; e. Opening the injection mold and removing the trim part, wherein the lost seal is removed from the carrier substrate. a. Creating a carrier substrate in a tool cavity of the injection mold from a first plastic material; b. Injection molding a lost seal from a second plastic material along an edge section of the carrier substrate positioned at a distance to an edge of the carrier substrate, such that the edge of the carrier substrate is exposed, wherein the second plastic material is different from the first plastic material and is designed to form a detachable bond with the first plastic material; c. Generating a sealing cavity between the carrier substrate and a tool component of the injection mold; d. Inserting a surface cover layer into the sealing cavity on the carrier substrate, said cover layer reaching behind the edge of said substrate; e. Opening the injection mold and removing the trim part, wherein the lost seal is removed from the carrier substrate.