mhurhangee/ep-ind-claims huggingface dataset:
A method for executing a function by an electronic device using voice recognition, the method comprising: displaying a user function execution screen including a plurality of image components; in response to a request for executing voice recognition, determining a plurality of functions associated with a voice input and the displayed user function execution screen, and, for each of the determined functions, detecting a voice command associated with that function from among registered voice commands thereby providing detected voice commands; displaying the detected voice commands on the displayed user function execution screen; performing voice recognition on a voice input received through a microphone of the electronic device, and in response to determining that the request for executing the voice recognition stops, recognizing that the voice input matches one of the displayed voice commands; and executing the function associated with the one of the displayed voice commands, in response to recognizing that the voice input matches the one of the displayed voice commands; wherein the method is characterised by: testing for similarity of the detected voice commands; and changing at least one of similar voice commands, according to a result of the testing, before displaying the voice commands. displaying a user function execution screen including a plurality of image components; in response to a request for executing voice recognition, determining a plurality of functions associated with a voice input and the displayed user function execution screen, and, for each of the determined functions, detecting a voice command associated with that function from among registered voice commands thereby providing detected voice commands; displaying the detected voice commands on the displayed user function execution screen; performing voice recognition on a voice input received through a microphone of the electronic device, and in response to determining that the request for executing the voice recognition stops, recognizing that the voice input matches one of the displayed voice commands; and executing the function associated with the one of the displayed voice commands, in response to recognizing that the voice input matches the one of the displayed voice commands; wherein the method is characterised by: testing for similarity of the detected voice commands; and changing at least one of similar voice commands, according to a result of the testing, before displaying the voice commands. testing for similarity of the detected voice commands; and changing at least one of similar voice commands, according to a result of the testing, before displaying the voice commands.
A process for making phenol and/or cyclohexanone, the process comprising: providing a feed comprising cyclohexylbenzene hydroperoxide; contacting the feed with a catalyst under cleavage reaction conditions effective to produce a cleavage effluent comprising phenol and cyclohexanone, the catalyst having a collidine uptake of at least 20 μ mol per gram of the catalyst and comprising a crystalline aluminosilicate molecular sieve of the FAU-type, an oxide binder, a clay as a filler, and amorphous alumina as a matrix; wherein the catalyst meets at least one of the following requirements: comprising vanadium in a range from 0.05 wt% to 1.0 wt%, comprising nickel in a range from 0.01 wt% to 0.5 wt%, and comprising iron in a range from 0.05 wt% to 1.0 wt%, where all percentages are based on the total weight of the catalyst, wherein collidine uptake is measured on a TA Instruments Q5000 model TGA machine with a modified gas and vapor delivery system, by a method comprising the steps of: (i) drying a catalyst sample of 10 to 50 mg under flowing N 2 (90 cm 3 /min) at 200°C for 60 minutes or until a stable weight is achieved; then (ii) flowing a N 2 stream (90 cm 3 /min) through a reservoir of collidine (2,4,6-trimethylpyridine, held at 35°C) and a condenser (held at 26°C); wherein the partial pressure of collidine is set by the temperature of the condenser and the N 2 flow rate; then (iii) delivering the N 2 stream of (ii) to the sample; then (iv) delivering the sparged collidine of (ii) over the sample for 60 minutes, followed by 60 minutes of stripping with flowing N 2; wherein the increase in sample weight indicates adsorption of collidine. providing a feed comprising cyclohexylbenzene hydroperoxide; contacting the feed with a catalyst under cleavage reaction conditions effective to produce a cleavage effluent comprising phenol and cyclohexanone, the catalyst having a collidine uptake of at least 20 μ mol per gram of the catalyst and comprising a crystalline aluminosilicate molecular sieve of the FAU-type, an oxide binder, a clay as a filler, and amorphous alumina as a matrix; comprising vanadium in a range from 0.05 wt% to 1.0 wt%, comprising nickel in a range from 0.01 wt% to 0.5 wt%, and comprising iron in a range from 0.05 wt% to 1.0 wt%, (i) drying a catalyst sample of 10 to 50 mg under flowing N 2 (90 cm 3 /min) at 200°C for 60 minutes or until a stable weight is achieved; then (ii) flowing a N 2 stream (90 cm 3 /min) through a reservoir of collidine (2,4,6-trimethylpyridine, held at 35°C) and a condenser (held at 26°C); wherein the partial pressure of collidine is set by the temperature of the condenser and the N 2 flow rate; then (iii) delivering the N 2 stream of (ii) to the sample; then (iv) delivering the sparged collidine of (ii) over the sample for 60 minutes, followed by 60 minutes of stripping with flowing N 2;
A propeller system for an aircraft comprising a propeller assembly rotatable about a central axis, the propeller system comprising: a reduction gearbox operably connected to the propeller assembly via a propeller shaft; and an electrical power transfer system positioned such that the gearbox is located axially between the electrical power transfer system and the propeller assembly, said electrical power transfer system including: a slip ring assembly operably connected to an oil transfer tube extending to the propeller assembly; and a brush block interactive with the slip ring assembly to transfer electrical power to a plurality of lead wires extending from the slip ring assembly to the propeller assembly, the brush block positioned such that brush block tips of the brush block extend toward the slip ring assembly in a substantially radial direction relative to the central axis. a reduction gearbox operably connected to the propeller assembly via a propeller shaft; and an electrical power transfer system positioned such that the gearbox is located axially between the electrical power transfer system and the propeller assembly, said electrical power transfer system including: a slip ring assembly operably connected to an oil transfer tube extending to the propeller assembly; and a brush block interactive with the slip ring assembly to transfer electrical power to a plurality of lead wires extending from the slip ring assembly to the propeller assembly, the brush block positioned such that brush block tips of the brush block extend toward the slip ring assembly in a substantially radial direction relative to the central axis. a slip ring assembly operably connected to an oil transfer tube extending to the propeller assembly; and a brush block interactive with the slip ring assembly to transfer electrical power to a plurality of lead wires extending from the slip ring assembly to the propeller assembly, the brush block positioned such that brush block tips of the brush block extend toward the slip ring assembly in a substantially radial direction relative to the central axis.
A system of injection-moulding machine closing units comprising two closing units, wherein each of the two closing units is constructed as a toggle lever closing unit, wherein each of the two closing units has a fixed platen, a movable platen (2a, 2b), a support plate (3a, 3b), a crosshead (5a, 5b) movable by means of a drive along the axis of symmetry of the closing unit, and at least one toggle lever mechanism (6a, 6b, 7a, 7b) able to be actuated by means of the crosshead (5a, 5b), arranged between support plate (3a, 3b) and movable platen (2a, 2b) and articulatedly connected with these plates, wherein each of the two closing units is constructed according to a first closing force F1, wherein one of the two closing units is equipped with platens of a first size and constitutes a closing unit of the first kind, wherein the other of the two closing units is equipped with platens of a second size and constitutes a closing unit of the second kind, wherein the platens of the closing unit of the second kind are larger than the platens of the closing unit of the first kind, in particular with respect to the tool clamping area, wherein the articulated levers (8a, 9a, 10a) of the toggle lever mechanism (6a, 7a) of the closing unit of the first kind and the articulated levers (8b, 9b, 10b) of the toggle lever mechanism (6b, 7b) of the closing unit of the second kind are constructed identically at least with respect to the length between the respective articulation points (P1, P2, P3, P4, P5) with articulated levers corresponding to one another with respect to their spatial arrangement in the respective closing unit, wherein the articulated levers (8b, 9b, 10b) of the toggle lever mechanism (6b, 7b) of the closing unit of the second kind are articulated at a greater distance to the axis of symmetry at support plate and movable platen than the articulated levers (8a, 9a, 10a) of the toggle lever mechanism (6a, 7a) of the closing unit of the first kind, and wherein the crosshead of the closing unit of the second kind is constructed larger in the direction of the articulated levers (8b, 9b, 10b) of the toggle lever mechanism (6b, 7b) than the crosshead of the closing unit of the first kind, such that the toggle lever mechanisms of the two closing units have the same kinematics.
Elastic bracelet with links comprising two rows of lateral links (4a, 4b), each link of a row of lateral links being connected to a link of the other row of lateral links by two rods arranged perpendicularly to the longitudinal direction of the bracelet, and comprising at least one row of central links each articulated on two rods connected to different lateral links (4a, 4b), the central links each comprising a tubular sleeve which is orientated parallel to the rods and which is closed on one side at least by an insert (2a, 2b), at least one passage being arranged in the insert so as to permit the two rods on which the central link is articulated to pass through the insert, at least one of the two rods on which the central link is articulated being further urged in the direction of the other rod by at least one elastic element housed in the tubular sleeve; characterised in that the insert (2a, 2b) comprises two passages each arranged to receive and guide one of the two rods on which the central link is articulated, at least one of the two passages being dimensioned to receive and guide said rod with a certain clearance in the longitudinal direction of the bracelet, the two passages being separated from each other by an intermediate section comprising two abutment surfaces orientated back to back and arranged to serve as stops for the two rods which pass through the insert (2a, 2b), so as to keep these two rods spaced apart from each other, and in that said at least one elastic element is prestressed so that at least one of the two rods which pass through the insert (2a, 2b) is biased against one of the two abutment surfaces with a force at least equal to half the total weight of the bracelet.
A fire-resistant geopolymer coating, that is free of Portland cement, and which is configured to be sprayable or trowel applied, and having a predetermined equilibrium density within the range from about 240-962 kg/m 3 (15-60 pounds per cubic foot) and a compressive strength within the range of about 1.4 - 20.7 MPa, the coating comprising ingredients, the ingredients comprising: 15-50 wt% of at least one lightweight aggregate having a bulk specific gravity of less than 1.0 and a diameter ranging from about 0.025 mm to about 12.5 mm, and in the case of sprayable coatings the at least one lightweight aggregate includes at least two different sizes of aggregates; 5-60 wt% of at least one alkali-activated cementitious material; 2-15 wt% of at least one activator for the alkali-activated cementitious material, other than a liquid alkali metal hydroxide; 0-15 wt% of at least one set-time retardant; 0.05-5 wt% of at least one from the group consisting of protein or synthetic protein material; 0.01-5 wt% of at least one alkali-resistant fiber; 0.0001-0.5 wt% of magnesium oxide in an amount sufficient to control shrinkage in the mixture when cured 0-4 wt% of a water reducer; 0-4 wt% of a rheology enhancer; and water, wherein the materials are expressed as mass percentage of a particular constituent over the mass of the entire mixture, including water. 15-50 wt% of at least one lightweight aggregate having a bulk specific gravity of less than 1.0 and a diameter ranging from about 0.025 mm to about 12.5 mm, and in the case of sprayable coatings the at least one lightweight aggregate includes at least two different sizes of aggregates; 5-60 wt% of at least one alkali-activated cementitious material; 2-15 wt% of at least one activator for the alkali-activated cementitious material, other than a liquid alkali metal hydroxide; 0-15 wt% of at least one set-time retardant; 0.05-5 wt% of at least one from the group consisting of protein or synthetic protein material; 0.01-5 wt% of at least one alkali-resistant fiber; 0.0001-0.5 wt% of magnesium oxide in an amount sufficient to control shrinkage in the mixture when cured 0-4 wt% of a water reducer; 0-4 wt% of a rheology enhancer; and water, wherein the materials are expressed as mass percentage of a particular constituent over the mass of the entire mixture, including water.
A blower, comprising: a case comprising a first surface, a second surface opposite the first surface, and a side wall extending between portions of the first surface and the second surface, wherein the side wall comprises an air inlet and an air outlet; an impeller disposed in the case and rotatable about an axis of rotation extending through a hub, wherein the impeller comprises a plurality of blades which define a gap with the hub; wherein portions of the side wall are disposed at least a first distance from the axis of rotation and the impeller is to define a circumferential airflow path within the case; wherein the impeller is to create an airflow in the circumferential airflow path between the air inlet and the air outlet; and a feature disposed in the gap extending from a location corresponding to an inner edge of the air outlet to a location corresponding to an inner edge of the air inlet to impede recirculation of air in the case, characterized in that a motor is positioned within the blower case within the radius of the impeller with a portion of the entire radius of the motor overlapping with a portion or the entire radius of the impeller or with the motor entirely located inside the radius of the impeller. a case comprising a first surface, a second surface opposite the first surface, and a side wall extending between portions of the first surface and the second surface, wherein the side wall comprises an air inlet and an air outlet; an impeller disposed in the case and rotatable about an axis of rotation extending through a hub, wherein the impeller comprises a plurality of blades which define a gap with the hub; wherein portions of the side wall are disposed at least a first distance from the axis of rotation and the impeller is to define a circumferential airflow path within the case; wherein the impeller is to create an airflow in the circumferential airflow path between the air inlet and the air outlet; and a feature disposed in the gap extending from a location corresponding to an inner edge of the air outlet to a location corresponding to an inner edge of the air inlet to impede recirculation of air in the case, characterized in that a motor is positioned within the blower case within the radius of the impeller with a portion of the entire radius of the motor overlapping with a portion or the entire radius of the impeller or with the motor entirely located inside the radius of the impeller.
Capsule for the preparation of a beverage by centrifugation in a beverage preparation device; the capsule being characterized in that it comprises: - a generally concave outer wall and a generally concave inner wall; each wall having a peripheral portion (4, 5) extending substantially revolutionary around a central axis and a bottom portion (6, 7); - a lid extending transversally to said central axis and covering said outer and inner walls (2, 3); and forming with said inner wall an inner cavity containing beverage ingredients, - an outer cavity positioned between the inner and outer walls (2, 3), wherein beverage outlets or outlet precursors are positioned on the peripheral portion of the inner wall to enable the beverage to be displaced from the inner cavity to the outer cavity under the effect of centrifugal pressure, said outer cavity thereby collecting the beverage coming from the inner cavity. - a generally concave outer wall and a generally concave inner wall; each wall having a peripheral portion (4, 5) extending substantially revolutionary around a central axis and a bottom portion (6, 7); - a lid extending transversally to said central axis and covering said outer and inner walls (2, 3); and forming with said inner wall an inner cavity containing beverage ingredients, - an outer cavity positioned between the inner and outer walls (2, 3),
A reflector system (100, 200), comprising: a hoop assembly comprising a plurality of link members extending between a plurality of hinge bodies, the hoop assembly configured to automatically, passively expand between a collapsed configuration wherein the link members extend substantially parallel to one another and an expanded configuration wherein the link members define a circumferential hoop; a collapsible mesh reflector surface secured to the hoop assembly such that when the hoop assembly is in the collapsed configuration, the reflector surface is collapsed within the hoop assembly and when the hoop assembly is in the expanded configuration, the reflector surface is expanded to a predetermined shape that is intended to concentrate RF energy in a desired pattern; and a mast assembly including an extendible boom, wherein the hoop assembly is secured by a plurality of hoop positioning cords relative to a top portion of the boom, by a plurality of primary catenary cords to a bottom portion of the boom and by a plurality of secondary catenary cords, each respectively extending from an intermediate portion of the extendible boom to a corresponding primary catenary cord, such that upon extension of the boom to a deployed condition, the hoop assembly is supported by the boom, wherein a central axis of the hoop assembly is substantially parallel or forms a slight angle to the central axis of the extendible boom and is offset in position relative to a central axis of the extendible boom. a hoop assembly comprising a plurality of link members extending between a plurality of hinge bodies, the hoop assembly configured to automatically, passively expand between a collapsed configuration wherein the link members extend substantially parallel to one another and an expanded configuration wherein the link members define a circumferential hoop; a collapsible mesh reflector surface secured to the hoop assembly such that when the hoop assembly is in the collapsed configuration, the reflector surface is collapsed within the hoop assembly and when the hoop assembly is in the expanded configuration, the reflector surface is expanded to a predetermined shape that is intended to concentrate RF energy in a desired pattern; and a mast assembly including an extendible boom, wherein the hoop assembly is secured by a plurality of hoop positioning cords relative to a top portion of the boom, by a plurality of primary catenary cords to a bottom portion of the boom and by a plurality of secondary catenary cords, each respectively extending from an intermediate portion of the extendible boom to a corresponding primary catenary cord, such that upon extension of the boom to a deployed condition, the hoop assembly is supported by the boom, wherein a central axis of the hoop assembly is substantially parallel or forms a slight angle to the central axis of the extendible boom and is offset in position relative to a central axis of the extendible boom.
A method for predicting an anthracycline treatment outcome in a patient with breast cancer; said method comprising: a) establishing a reference methylation signature comprises determining the methylation status of the INA RASSF1, SEMA3B, KLHL6, and PTPRCAP genes in a test sample from a responder or non-responder to anthracycline treatment, thereby producing a reference methylation signature of a responder or non-responder to anthracycline treatment; b) assaying in a test sample from the patient the methylation status of the SEMA3B, PTPRCAP, INA, KLHL6, and RASSF1 gene; c) calculating a methylation signature of the test sample based on the methylation status obtained in step b); and d) comparing said test sample methylation signature with the reference methylation signature of a responder or non-responder obtained in step a), thereby preidicting the anthracycline treatment outcome in said patient. a) establishing a reference methylation signature comprises determining the methylation status of the INA RASSF1, SEMA3B, KLHL6, and PTPRCAP genes in a test sample from a responder or non-responder to anthracycline treatment, thereby producing a reference methylation signature of a responder or non-responder to anthracycline treatment; b) assaying in a test sample from the patient the methylation status of the SEMA3B, PTPRCAP, INA, KLHL6, and RASSF1 gene; c) calculating a methylation signature of the test sample based on the methylation status obtained in step b); and d) comparing said test sample methylation signature with the reference methylation signature of a responder or non-responder obtained in step a), thereby preidicting the anthracycline treatment outcome in said patient.
A method of securing communication for a user application installed on a user accessory device of a hearing system comprising a hearing device, a server device, and the user accessory device, wherein securing communication for the user application comprises: - obtaining challenge data in the server device; - transmitting the challenge data from the server device to the user application installed on the user accessory device; - transmitting a challenge request comprising the challenge data from the user application to the hearing device; - receiving a challenge response comprising response data from the hearing device; - forwarding the response data from the user application to the server device; - verifying the response data in the server device based on the challenge data; and - approving the user application in the server device if verifying the response data is successful. - obtaining challenge data in the server device; - transmitting the challenge data from the server device to the user application installed on the user accessory device; - transmitting a challenge request comprising the challenge data from the user application to the hearing device; - receiving a challenge response comprising response data from the hearing device; - forwarding the response data from the user application to the server device; - verifying the response data in the server device based on the challenge data; and - approving the user application in the server device if verifying the response data is successful.