mhurhangee/ep-ind-claims huggingface dataset:
A light effect system for forming a light beam, said light effect system comprises a base support rotatable supporting a light effect support, said light effect support comprises: o light forming means, said light forming means being adapted to form at least a part of said light beam; o at least one actuator adapted to move said light forming means in relation to said light beam; wherein said light effect system comprises rotatable electric connecting means, said rotatable electric connecting enables transferring of electric energy between said light effect support and said base support during rotation of said light effect support in relation to said base support characterized in that ∘ said light forming means comprises at least one light beam diffractor, said light beam diffractor is positioned at least partially in said light beam; said light beam diffractor is adapted to diffract at least a part of said light beam; said light beam diffractor comprises a first diffractor section diffracting a first part of said light beam and a second diffractor section diffracting a second part of said light beam; o that a first actuator is adapted to move said first diffractor section in relation to said light beam and a second actuator is adapted to move said second diffractor section in relation to said light beam and in that said first actuator and said second actuator is independently controlled by at least one processor. o light forming means, said light forming means being adapted to form at least a part of said light beam; o at least one actuator adapted to move said light forming means in relation to said light beam; ∘ said light forming means comprises at least one light beam diffractor, said light beam diffractor is positioned at least partially in said light beam; said light beam diffractor is adapted to diffract at least a part of said light beam; said light beam diffractor comprises a first diffractor section diffracting a first part of said light beam and a second diffractor section diffracting a second part of said light beam; o that a first actuator is adapted to move said first diffractor section in relation to said light beam and a second actuator is adapted to move said second diffractor section in relation to said light beam and in that said first actuator and said second actuator is independently controlled by at least one processor.
A compound of Formula or a pharmaceutically acceptable salt thereon, wherein R 1 is selected from the group consisting of alkylcarbonylalkyl, alkylthioalkyl, arylalkyl, azidoalkyl, cycloalkylalkyl, haloalkyl, heteroarylalkyl, heterocyclealkyl, heterocyclealkylcarbonyl, hydroxyalkyl, mercaptoalkyl, (NR A R B)carbonylalkyl, (NR A R B)sulfonylalkyl, (NR C R D)alkyl, and -LOR 2; L is alkylene: R 2 is selected from the group consisting of alkylcarbonyl, arylalkyl, and carboxyalkenylcarbonyl; R 3 is selected from the group consisting of hydrogen and alkyl, wherein the alkyl is methyl; R 4 is cyclopropyl, wherein the cyclopropyl is substituted with 1,2,3, or 4 substituents selected from the group consisting of alkyl and halogen; R 5, R 6, R 7, and R 8 are independently selected from the group consisting of hydrogen, alkoxy, alkoxyalkyl, alkoxycarbonyl, alkoxycarbonylalkoxy, alkyl, alkylsulfonyl, arylalkoxy, carboxy, carboxyalkenylcarbonyloxy, carboxyalkylcarbonyloxy, cyano, haloalkoxy, haloalkyl, halogen, heterocyclealkoxycarbonyl, hydroxy, hydroxyalkoxy, hydroxyalkyl, nitro,-NR J R K, (NR J R K)alkoxy, (NR J R K)alkyl, and (NR M R N)carbonyl; R A, R B, R M, and R N are independently selected from the group consisting of hydrogen, alkoxycarbonylalkyl, alkyl, and hydroxyalkyl; and R C, R D, R J, R K, are independently selected from the group consisting of hydrogen, alkoxycarbonyl, alkyl, and alkylsulfonyl. R 1 is selected from the group consisting of alkylcarbonylalkyl, alkylthioalkyl, arylalkyl, azidoalkyl, cycloalkylalkyl, haloalkyl, heteroarylalkyl, heterocyclealkyl, heterocyclealkylcarbonyl, hydroxyalkyl, mercaptoalkyl, (NR A R B)carbonylalkyl, (NR A R B)sulfonylalkyl, (NR C R D)alkyl, and -LOR 2; L is alkylene: R 2 is selected from the group consisting of alkylcarbonyl, arylalkyl, and carboxyalkenylcarbonyl; R 3 is selected from the group consisting of hydrogen and alkyl, wherein the alkyl is methyl; R 4 is cyclopropyl, wherein the cyclopropyl is substituted with 1,2,3, or 4 substituents selected from the group consisting of alkyl and halogen; R 5, R 6, R 7, and R 8 are independently selected from the group consisting of hydrogen, alkoxy, alkoxyalkyl, alkoxycarbonyl, alkoxycarbonylalkoxy, alkyl, alkylsulfonyl, arylalkoxy, carboxy, carboxyalkenylcarbonyloxy, carboxyalkylcarbonyloxy, cyano, haloalkoxy, haloalkyl, halogen, heterocyclealkoxycarbonyl, hydroxy, hydroxyalkoxy, hydroxyalkyl, nitro,-NR J R K, (NR J R K)alkoxy, (NR J R K)alkyl, and (NR M R N)carbonyl; R A, R B, R M, and R N are independently selected from the group consisting of hydrogen, alkoxycarbonylalkyl, alkyl, and hydroxyalkyl; and R C, R D, R J, R K, are independently selected from the group consisting of hydrogen, alkoxycarbonyl, alkyl, and alkylsulfonyl.
An implantable leadless pacemaker configured to provide antibradycardia pacing of a human or animal heart, comprising: - an electrical energy source, - a sensor configured to sense intracardiac potentials of the heart, - a pulse generator configured to generate electrical pacing pulses, - a control unit for controlling the pulse generator, wherein the control unit is configured to inhibit generation of an electrical pacing pulse when an intracardiac potential is sensed, wherein the control unit is further configured to permanently switch off the pulse generator after passing of a predetermined timespan and/or after a pre-defined event detected by the pacemaker, - an electrode pole (220, 250) for electrical stimulation and sensing intracardiac potentials, - at least one fastening element (230, 260) for fastening the pacemaker to heart tissue, wherein - the implantable leadless pacemaker is adapted such that a lifetime of the implantable leadless pacemaker is smaller than one year, or smaller than one month, or smaller than two weeks. - an electrical energy source, - a sensor configured to sense intracardiac potentials of the heart, - a pulse generator configured to generate electrical pacing pulses, - a control unit for controlling the pulse generator, wherein the control unit is configured to inhibit generation of an electrical pacing pulse when an intracardiac potential is sensed, wherein the control unit is further configured to permanently switch off the pulse generator after passing of a predetermined timespan and/or after a pre-defined event detected by the pacemaker, - an electrode pole (220, 250) for electrical stimulation and sensing intracardiac potentials, - at least one fastening element (230, 260) for fastening the pacemaker to heart tissue, wherein - the implantable leadless pacemaker is adapted such that a lifetime of the implantable leadless pacemaker is smaller than one year, or smaller than one month, or smaller than two weeks.
A gel composition comprising: a) a carboxy polymethylene polymer; b) glycine; c) a source of calcium ions; and d) water, wherein the concentration of carboxy polymethylene polymer is from 20 to 50 g dry weight per litre of gel; wherein the concentration of glycine is from 50 to 200 g dry weight per litre of gel; and wherein the concentration of calcium ions is from 20 to 100 mg per litre of gel. a) a carboxy polymethylene polymer; b) glycine; c) a source of calcium ions; and d) water, wherein the concentration of carboxy polymethylene polymer is from 20 to 50 g dry weight per litre of gel; wherein the concentration of glycine is from 50 to 200 g dry weight per litre of gel; and wherein the concentration of calcium ions is from 20 to 100 mg per litre of gel.
Method for supercooling liquid carbon dioxide, in which the liquid carbon dioxide is transported from a tank to a heat exchanger, arranged in a thermally insulated container, where it is brought into thermal contact with a cooling bath arranged in the container and thus cooled, characterized in that the cooling bath consists of a cooling mixture of solid carbon dioxide and a carrier medium and, upon exchange of heat with the liquid carbon dioxide that is to be supercooled, at least part of the solid carbon dioxide in the cooling bath sublimes and is subsequently removed, then a part stream of the liquid carbon dioxide is removed and expanded at an expansion nozzle arranged in the container, and the resulting solid carbon dioxide is supplied to the cooling bath.
An electrochemical energy conversion device comprising a stack of solid oxide electrochemical cells alternating with gas separators, wherein each electrochemical cell comprises a layer of solid oxide electrolyte, a negative electrode-side structure on one side of the electrolyte layer and comprising one or more porous layers including a functional layer of negative electrode material having an interface with the one side of the electrolyte layer, and a positive electrode-side structure on the opposite side of the electrolyte layer and comprising one or more porous layers including a layer of positive electrode material having an interface with the opposite side of the electrolyte layer, wherein said electrochemical cell and a first of the gas separators on the negative electrode side of the electrochemical cell at least partly form therebetween a negative electrode- side chamber and said electrochemical cell and a second of the gas separators on the positive electrode side of the electrochemical cell at least partly form therebetween a positive electrode -side chamber, and wherein chemically unbound material selected from one or both of free alkali metal oxygen-containing compounds and free alkaline earth metal oxygen-containing compounds is provided in or on one or more of the negative electrode- side structure, the first gas separator and any other structure of the electrochemical energy conversion device forming the negative electrode-side chamber, the chemically unbound material acting to reduce degradation of electrochemical performance on the negative electrode side of the electrochemical energy conversion device during use of the device, and wherein if the chemically unbound material is provided in the functional layer of negative electrode material there is no chemically unbound material present at the interface of that layer with the electrolyte layer.
Method for producing digestible, partly hydrolyzed keratinaceous material, preferably from feathers, hair, wool, hooves or nails, comprising the steps of hydrolyzing keratinaceous material in the presence of water, in a hydrolyser with heat and at a pressure between 2 bar and 100 bar, and concurrently drying and grinding the resultant partly hydrolyzed keratinaceous material in an air turbulence mill at about atmospheric pressure such that the drop in pepsin and/or ileal digestibility is less than 10%, and/or the pepsin and ileal digestibility remain higher than respectively 75% and 80%, wherein the resultant keratinaceous material comprises at least partly insoluble material, and wherein the average particle size of the dry product leaving the air turbulence mill measured as d50 in volume fraction, as measured with laser diffraction using a dry powder Beckman Coulter particle size analyzer, is between about 20 μm and about 0.7 mm and the d90, as measured with laser diffraction using a dry powder Beckman Coulter particle size analyzer, is below about 1 mm.
A dry, solid composition in the form of particles or powder comprising a covalently immobilized enzyme and having enzymatic activity, the composition comprising a reaction product of (i) an enzyme which is urease in a crude or raw form in Jack Bean Meal,, (ii) at least one polymer, wherein the polymer is branched poly(ethylenimine) and (iii) a crosslinker which is ethylene glycol diglycidyl ether, in a formation of covalently bound macromolecules, and wherein the enzyme retains greater than 90% enzymatic activity when stored in a dry state, at ambient temperature and pressure, for at least 90 days, compared to enzymatic activity on day of preparation, wherein said composition has a crosslink density of from 5% to 15% with respect to the % of the available functional groups on the polymer; said composition further comprising activated carbon.
A process for the production of a sterilizing filter comprising a plurality of hollow fiber membranes, comprising a) producing a continuous hollow fiber membrane filament having an inner diameter of from 2.8 to 4.0 mm and an outer diameter larger than 3 mm and smaller than 4.5 mm by a continuous solvent phase inversion spinning process; b) cutting the continuous hollow fiber filament into segments having a predefined length by a rotating blade while the hollow fiber membrane is still wet; c) collecting the hollow fiber membrane segments, transferring them into a rinsing tube, and rinsing them with purified water to remove residual leachable constituents; d) optionally, centrifuging the membranes within the rinsing tube; e) drying the hollow fiber membrane segments within the rinsing tube; f) optionally, cutting the hollow fiber membrane segments to a predefined final length; g) sealing one end of the hollow fiber membrane segments; h) transferring a number of hollow fiber membrane segments required for the sterilizing filter to a disc having the corresponding number of bores with a diameter matching the outer diameter of the hollow fiber membranes, threading the open ends of the hollow fiber membrane segments into the bores of the disc and welding them to the wall of the bores by heat welding; i) transferring the disc comprising the hollow fiber membranes into a housing which comprises a header component with a fluid inlet and a tubular component with a fluid outlet; j) joining the disc and the housing by Laser welding with an IR Laser and sealing the housing. a) producing a continuous hollow fiber membrane filament having an inner diameter of from 2.8 to 4.0 mm and an outer diameter larger than 3 mm and smaller than 4.5 mm by a continuous solvent phase inversion spinning process; b) cutting the continuous hollow fiber filament into segments having a predefined length by a rotating blade while the hollow fiber membrane is still wet; c) collecting the hollow fiber membrane segments, transferring them into a rinsing tube, and rinsing them with purified water to remove residual leachable constituents; d) optionally, centrifuging the membranes within the rinsing tube; e) drying the hollow fiber membrane segments within the rinsing tube; f) optionally, cutting the hollow fiber membrane segments to a predefined final length; g) sealing one end of the hollow fiber membrane segments; h) transferring a number of hollow fiber membrane segments required for the sterilizing filter to a disc having the corresponding number of bores with a diameter matching the outer diameter of the hollow fiber membranes, threading the open ends of the hollow fiber membrane segments into the bores of the disc and welding them to the wall of the bores by heat welding; i) transferring the disc comprising the hollow fiber membranes into a housing which comprises a header component with a fluid inlet and a tubular component with a fluid outlet; j) joining the disc and the housing by Laser welding with an IR Laser and sealing the housing.
A sliding component comprising: a pair of sliding parts (3, 5) sliding relative to each other, the pair of sliding parts each having a sliding face, on both sides of which a first fluid and a second fluid of different kinds are present, wherein the sliding face of at least one of the sliding parts is provided with a first fluid-side negative pressure generation mechanism comprising a first negative pressure generation groove, and is provided with a second fluid-side negative pressure generation mechanism comprising a second negative pressure generation groove located on the second-fluid side of the first fluid-side negative pressure generation mechanism, and is further provided with a dynamic pressure generation mechanism comprising dynamic pressure generation grooves on at least one of the first-fluid side and the second-fluid side of the first fluid-side negative pressure generation mechanism and the second fluid-side negative pressure generation mechanism, and the second negative pressure generation groove is isolated from the first-fluid side by a land, and characterised in that the first negative pressure generation groove is isolated from the second-fluid side by a land. a pair of sliding parts (3, 5) sliding relative to each other, the pair of sliding parts each having a sliding face, on both sides of which a first fluid and a second fluid of different kinds are present, wherein the sliding face of at least one of the sliding parts is provided with a first fluid-side negative pressure generation mechanism comprising a first negative pressure generation groove, and is provided with a second fluid-side negative pressure generation mechanism comprising a second negative pressure generation groove located on the second-fluid side of the first fluid-side negative pressure generation mechanism, and is further provided with a dynamic pressure generation mechanism comprising dynamic pressure generation grooves on at least one of the first-fluid side and the second-fluid side of the first fluid-side negative pressure generation mechanism and the second fluid-side negative pressure generation mechanism, and the second negative pressure generation groove is isolated from the first-fluid side by a land, and characterised in that the first negative pressure generation groove is isolated from the second-fluid side by a land.
Liquefied gas lighter with non-adjustable flame height, of the type comprising a liquefied gas reservoir, a burner provided with a chimney through which a gas flow from said reservoir is sent outside and a gas flow rate limiting device consisting of a microporous membrane gripped between a first seating body and a second seating body, said first and second seating bodies delimitating a passage area (Ap) in said membrane; wherein: - said first seating body comprises at least one through hole that comes out, on one side directly into said microporous membrane and on the other side into said reservoir, said at least one through hole defining in said microporous membrane a first area coinciding with said at least one through hole; - said second seating body comprises a seating surface in contact with said microporous membrane, a groove formed in said seating surface, an outlet duct towards said chimney and at least one linking passage that connects said groove to said outlet duct, said groove defining in said microporous membrane a second area coinciding with said groove; characterized in that: - said first seating body and said second seating body are shaped so that, when they are assembled one against the other gripping said microporous membrane between them, each of said at least one through hole on first seating body is facing, partially and through said microporous membrane, said groove of the second seating body, so that said second area defines with each of said first areas an intersection (In), said passage area (Ap) being thus defined by said intersection (In) or the sum of said intersections (In); - and so that one part of said microporous membrane, corresponding to a part of said first area which does not face said groove, rests on said seating surface of the second seating body. - said first seating body comprises at least one through hole that comes out, on one side directly into said microporous membrane and on the other side into said reservoir, said at least one through hole defining in said microporous membrane a first area coinciding with said at least one through hole; - said second seating body comprises a seating surface in contact with said microporous membrane, a groove formed in said seating surface, an outlet duct towards said chimney and at least one linking passage that connects said groove to said outlet duct, said groove defining in said microporous membrane a second area coinciding with said groove; - said first seating body and said second seating body are shaped so that, when they are assembled one against the other gripping said microporous membrane between them, each of said at least one through hole on first seating body is facing, partially and through said microporous membrane, said groove of the second seating body, so that said second area defines with each of said first areas an intersection (In), said passage area (Ap) being thus defined by said intersection (In) or the sum of said intersections (In); - and so that one part of said microporous membrane, corresponding to a part of said first area which does not face said groove, rests on said seating surface of the second seating body.
An apparatus, comprising: an audio encoder configured to encode audio data; and a video encoder configured to: encode video data associated with the audio data, wherein the video data and the audio data are recorded by a camera including a microphone; analyze the video data associated with the audio data by detecting changes of successive frames of the video data to look for characteristics that suggest a particular audio encoding, said characteristics including indications of scene change in the video data; and provide an indication of the scene change to an audio encoder mode selector; and the audio encoder mode selector, the audio encoder mode selector being operable to receive the indication from the video encoder and adjust the encoding mode of the audio encoder to the particular audio encoding mode based on characteristics inferred from the analysis of the video data, and with respect to the indication of scene change. an audio encoder configured to encode audio data; and a video encoder configured to: encode video data associated with the audio data, wherein the video data and the audio data are recorded by a camera including a microphone; analyze the video data associated with the audio data by detecting changes of successive frames of the video data to look for characteristics that suggest a particular audio encoding, said characteristics including indications of scene change in the video data; and provide an indication of the scene change to an audio encoder mode selector; and the audio encoder mode selector, the audio encoder mode selector being operable to receive the indication from the video encoder and adjust the encoding mode of the audio encoder to the particular audio encoding mode based on characteristics inferred from the analysis of the video data, and with respect to the indication of scene change. encode video data associated with the audio data, wherein the video data and the audio data are recorded by a camera including a microphone; analyze the video data associated with the audio data by detecting changes of successive frames of the video data to look for characteristics that suggest a particular audio encoding, said characteristics including indications of scene change in the video data; and provide an indication of the scene change to an audio encoder mode selector; and the audio encoder mode selector, the audio encoder mode selector being operable to receive the indication from the video encoder and adjust the encoding mode of the audio encoder to the particular audio encoding mode based on characteristics inferred from the analysis of the video data, and with respect to the indication of scene change.