mhurhangee/ep-ind-claims huggingface dataset:
Lamination machine for laminating a functional film onto an optical article, said lamination machine comprising: - a film support for receiving a functional film to be laminated, - an article support configured to receive and position the optical article in a predetermined orientation, and - an actuating member configured to move the film support and the article support toward each other at least along a longitudinal lamination axis for laminating at a predetermined pressure the functional film received in the film support onto the optical article received within the article support, wherein said article support is a blocker support configured to receive a surfacing blocker onto which the optical article is to be disposed for lamination, said article support being further configured to transmit laminating forces induced by said predetermined pressure to the lamination machine during a lamination operation, said surfacing blocker having at least one bearing surface for the transmission of surfacing forces to a surfacing machine during a surfacing operation, wherein said article support comprises at least one supporting surface comprising protrusions and/or recesses and configured to contact said at least one bearing surface when a surfacing blocker is received in the blocker support to transmit laminating forces induced by said predetermined pressure. - a film support for receiving a functional film to be laminated, - an article support configured to receive and position the optical article in a predetermined orientation, and - an actuating member configured to move the film support and the article support toward each other at least along a longitudinal lamination axis for laminating at a predetermined pressure the functional film received in the film support onto the optical article received within the article support, wherein said article support is a blocker support configured to receive a surfacing blocker onto which the optical article is to be disposed for lamination, said article support being further configured to transmit laminating forces induced by said predetermined pressure to the lamination machine during a lamination operation, said surfacing blocker having at least one bearing surface for the transmission of surfacing forces to a surfacing machine during a surfacing operation, wherein said article support comprises at least one supporting surface comprising protrusions and/or recesses and configured to contact said at least one bearing surface when a surfacing blocker is received in the blocker support to transmit laminating forces induced by said predetermined pressure.
A composition comprising (a) a polynucleotide encoding a low density lipoprotein receptor (LDLR) mutant having one or more amino acids substituted such that the LDLR mutant is deficient in proprotein convertase subtilisin/kexin type 9 (PCSK9) binding, and (b) a polynucleotide encoding cholesterol 7 alpha-hydroxylase (CYP7A1), in an acceptable diluent or carrier. (a) a polynucleotide encoding a low density lipoprotein receptor (LDLR) mutant having one or more amino acids substituted such that the LDLR mutant is deficient in proprotein convertase subtilisin/kexin type 9 (PCSK9) binding, and (b) a polynucleotide encoding cholesterol 7 alpha-hydroxylase (CYP7A1), in an acceptable diluent or carrier.
A radiation curable composition, characterised in that the composition comprises: a) 51-100 wt% of a cationic curable resin, further comprising a1) a cycloaliphatic epoxide, a2) at least one vinyl compound, selected from the group consisting of methyl vinyl glycolate, vinyl glycolic acid and an ester or polyester of MVG or of VGA, and a3) a cationic photoinitiator, and optionally a4) a monooxetane compound, having one oxetane group, and/or a5) a polyoxetane compound, having at least two oxetane groups, and optionally b) 0-49 wt% of a free-radical curable resin, further comprising b1) a (meth)acrylate monomer or oligomer, and b2) a free-radical photoinitiator, wherein the weight percent is based on the total weight of the radiation curable composition. a) 51-100 wt% of a cationic curable resin, further comprising a1) a cycloaliphatic epoxide, a2) at least one vinyl compound, selected from the group consisting of methyl vinyl glycolate, vinyl glycolic acid and an ester or polyester of MVG or of VGA, and a3) a cationic photoinitiator, and optionally a4) a monooxetane compound, having one oxetane group, and/or a5) a polyoxetane compound, having at least two oxetane groups, and optionally a1) a cycloaliphatic epoxide, a2) at least one vinyl compound, selected from the group consisting of methyl vinyl glycolate, vinyl glycolic acid and an ester or polyester of MVG or of VGA, and a3) a cationic photoinitiator, and optionally a4) a monooxetane compound, having one oxetane group, and/or a5) a polyoxetane compound, having at least two oxetane groups, b) 0-49 wt% of a free-radical curable resin, further comprising b1) a (meth)acrylate monomer or oligomer, and b2) a free-radical photoinitiator, b1) a (meth)acrylate monomer or oligomer, and b2) a free-radical photoinitiator,
An induction sealing device for heat sealing packaging material for producing sealed packages of pourable food products, said sealing device comprising: - an inductor device (20, 21) which interacts with said packaging material by means of at least one active surface (25, 26); - a flux-concentrating insert; and - a supporting body comprising heat-conducting material and housing said inductor device (20, 21) and said flux-concentrating insert; wherein - said flux concentrating insert comprises a magnetic compound of a polymer and soft magnetic particles; and characterized in that said flux concentrating insert interacts with said packaging material via at least one interactive surface; and said supporting body is housing said inductor device (20, 21) in at least one cavity, wherein said at least one cavity is adapted and shaped as a mould for viscous non-cured magnetic compound so that said flux-concentrating insert may be moulded directly into said supporting body surrounding said inductor device (20, 21) in a flux concentrating fashion without covering said at least one active surface (25, 26). - an inductor device (20, 21) which interacts with said packaging material by means of at least one active surface (25, 26); - a flux-concentrating insert; and - a supporting body comprising heat-conducting material and housing said inductor device (20, 21) and said flux-concentrating insert; wherein - said flux concentrating insert comprises a magnetic compound of a polymer and soft magnetic particles; and characterized in that said flux concentrating insert interacts with said packaging material via at least one interactive surface; and said supporting body is housing said inductor device (20, 21) in at least one cavity, wherein said at least one cavity is adapted and shaped as a mould for viscous non-cured magnetic compound so that said flux-concentrating insert may be moulded directly into said supporting body surrounding said inductor device (20, 21) in a flux concentrating fashion without covering said at least one active surface (25, 26).
A semiconductor device, comprising: a semiconductor base (31, 32) of a first conductivity type being an N conductivity type silicon carbide semiconductor; a hetero semiconductor region in contact with one main surface of the semiconductor base, the hetero semiconductor region having a band gap width different from that of the semiconductor base; a first electrode connected to the hetero semiconductor region; and a second electrode connected to the semiconductor base, wherein the hetero semiconductor region comprises a structure for reducing leakage current generated during reverse operation, wherein the hetero semiconductor region is formed of a laminated hetero semiconductor region in which a plurality of semiconductor polysilicon layers (33,35) are superposed on one another, wherein an uppermost P+ conductivity type semiconductor layer of the laminated hetero semiconductor region is connected to the first electrode and in direct contact with the semiconductor base, and a lowest P- conductivity type layer of the laminated hetero semiconductor region is in direct contact with the semiconductor base, and wherein the semiconductor device is a diode, wherein the uppermost semiconductor layer is of P+ type and the lowest layer is of P-type, wherein the semiconductor base (31, 32) includes a N+ type substrate region and an N-type epitaxial region, the N-type epitaxial region is formed on the N+ type substrate region. a semiconductor base (31, 32) of a first conductivity type being an N conductivity type silicon carbide semiconductor; a hetero semiconductor region in contact with one main surface of the semiconductor base, the hetero semiconductor region having a band gap width different from that of the semiconductor base; a first electrode connected to the hetero semiconductor region; and a second electrode connected to the semiconductor base, wherein the hetero semiconductor region comprises a structure for reducing leakage current generated during reverse operation, wherein the hetero semiconductor region is formed of a laminated hetero semiconductor region in which a plurality of semiconductor polysilicon layers (33,35) are superposed on one another, wherein an uppermost P+ conductivity type semiconductor layer of the laminated hetero semiconductor region is connected to the first electrode and in direct contact with the semiconductor base, and a lowest P- conductivity type layer of the laminated hetero semiconductor region is in direct contact with the semiconductor base, and wherein the semiconductor device is a diode, wherein the uppermost semiconductor layer is of P+ type and the lowest layer is of P-type, wherein the semiconductor base (31, 32) includes a N+ type substrate region and an N-type epitaxial region, the N-type epitaxial region is formed on the N+ type substrate region.
A food preparation apparatus, comprising: a food preparation chamber; a movable carriage comprising a cup holder arranged for holding a cup; a boring blade coupled to a drive shaft; and a cup lid weight through which the drive shaft passes and arranged to rest on top of a cup when raised by the movable carriage into the chamber, characterised in that the cup lid weight rests on a support pin attached to the drive shaft with its centre of gravity above the support pin so as to tilt relative to the drive shaft when it is initially not resting on top of a cup. a food preparation chamber; a movable carriage comprising a cup holder arranged for holding a cup; a boring blade coupled to a drive shaft; and a cup lid weight through which the drive shaft passes and arranged to rest on top of a cup when raised by the movable carriage into the chamber, characterised in that the cup lid weight rests on a support pin attached to the drive shaft with its centre of gravity above the support pin so as to tilt relative to the drive shaft when it is initially not resting on top of a cup.
A multi-modality imaging medical device for assessing a tissue of a subject, the device comprising: a coherent light source configured to illuminate the subject's body area of interest with an illumination wavelength; an optical coherent imaging system comprising an optical coherence imaging, OCI, image sensor configured to perform optical coherent imaging representing a first imaging modality; a fluorescence imaging system comprising a fluorescence image sensor configured to perform fluorescence imaging representing a second imaging modality; a screen configured to display a result from the first modality and the second modality; a first processor configured to calculate an OCI perfusion map from OCI data acquired using the first imaging modality, and a second processor configured to calculate a fluorescence map from data acquired using the second imaging modality; and a processing unit coupled to the optical coherent imaging system and the fluorescence imaging system, the device being characterized in that the processing unit is configured to compare the OCI perfusion map and the fluorescence map of a common body area of interest to determine reliability information for the perfusion data of the mapped areas of the common body area of interest, and in that the processing unit is configured to create an additional map containing the reliability information for the mapped areas. a coherent light source configured to illuminate the subject's body area of interest with an illumination wavelength; an optical coherent imaging system comprising an optical coherence imaging, OCI, image sensor configured to perform optical coherent imaging representing a first imaging modality; a fluorescence imaging system comprising a fluorescence image sensor configured to perform fluorescence imaging representing a second imaging modality; a screen configured to display a result from the first modality and the second modality; a first processor configured to calculate an OCI perfusion map from OCI data acquired using the first imaging modality, and a second processor configured to calculate a fluorescence map from data acquired using the second imaging modality; and a processing unit coupled to the optical coherent imaging system and the fluorescence imaging system, the device being characterized in that the processing unit is configured to compare the OCI perfusion map and the fluorescence map of a common body area of interest to determine reliability information for the perfusion data of the mapped areas of the common body area of interest, and in that the processing unit is configured to create an additional map containing the reliability information for the mapped areas.
A photodetector comprising a plurality of channels each having a plurality of SPAD units, each SPAD unit having an avalanche photodiode, the photodetector being controlled and supplied with a second selection signal by a control circuit to select the channels, wherein the photodetector being controlled to be capable of selecting outputting or non-outputting of the channels, each of the SPAD units further includes an active quenching circuit (43, 44) which performs active quenching of the avalanche photodiode, the control circuit brings the active quenching circuit (43, 44), which corresponds to the channel where non-outputting is selected, into an operable state by the first selection signal from the control circuit, and the photodetector further includes a selection-signal generator (14B, 14C) which generates and outputs, to the plurality of SPAD units, the second selection signal obtained by taking a logical product of a first selection signal and a signal that turns to a logical value of zero upon power-on, so as not to bring the avalanche photodiodes of the plurality of SPAD units into an ON state at a time until a start signal is inputted. the photodetector being controlled to be capable of selecting outputting or non-outputting of the channels, each of the SPAD units further includes an active quenching circuit (43, 44) which performs active quenching of the avalanche photodiode, the control circuit brings the active quenching circuit (43, 44), which corresponds to the channel where non-outputting is selected, into an operable state by the first selection signal from the control circuit, and the photodetector further includes a selection-signal generator (14B, 14C) which generates and outputs, to the plurality of SPAD units, the second selection signal obtained by taking a logical product of a first selection signal and a signal that turns to a logical value of zero upon power-on, so as not to bring the avalanche photodiodes of the plurality of SPAD units into an ON state at a time until a start signal is inputted.
Pressure reducer for surgical aspiration systems, comprising at least a substantially elongated tubular body having at least a first end connectable to at least a surgical aspirating unit and at least a second end connectable to at least an end aspirating element, said tubular body comprises at least a hole for regulating the aspirating pressure, and said reducer comprises at least a closing element movable between a closed position of said regulating hole and an opened position of said regulating hole, characterized by the fact that it comprises a plurality of regulating holes and a plurality of respective closing elements.
- A system for producing/storing electrical energy (1; 100; 200; 300; 400; 500), wherein electricity storage results in ice formation in a cold source and electricity production results in ice consumption in the cold source, comprising a thermally insulated chamber containing a first closed circuitry in which circulates a first working fluid, a hot source through which a first leg of the first circuitry passes for a heat exchange between the first working fluid and the hot source, a cold source through which a second leg of the first circuitry passes for a heat exchange between the first working fluid and the cold source, the hot and cold sources being thermally insulated from each other, the first circuitry further comprising third and fourth legs connecting in series the first and second legs, the third leg comprising a first member for circulating the first liquid working fluid and the fourth leg comprising a second member for circulating the first gas working fluid, the second circulating member being a reversible turbine, the cold source being composed of an ice slurry with a temperature lower than or equal to -40°C, characterized by the fact that the first fluid circulating member is a reversible pump, that the hot source is composed of a pure water ice slurry at 0°C, and that the system for producing/storing electrical energy (1; 100; 200; 300; 400; 500) further comprises a second circuitry of working fluid for circulating a second working fluid between the hot source and a thermodynamic thermostat constituted of a system at constant temperature adapted to exchange heat, wherein the second working fluid is circulated between said thermodynamic thermostat and the hot source by an auxiliary expansion valve and an auxiliary compressor, and is caused to exchange heat therewith to maintain the hot source at 0°C.
An active energy ray-curable coating composition, comprising the following components,,, and: urethane (meth)acrylate having a polycarbonate skeleton and three or more polymerizable unsaturated groups in one molecule and having a weight average molecular weight in a range of 10,000 to 40,000; urethane (meth)acrylate having a weight average molecular weight in a range of 1,000 or more and less than 10,000; at least one compound selected from the group consisting of: a polymerizable unsaturated compound having three or more polymerizable unsaturated groups in one molecule and having a weight average molecular weight in a range of 280 or more and less than 1,000; a polymerizable unsaturated compound having an alicyclic structure and one or two polymerizable unsaturated groups in one molecule and having a weight average molecular weight in a range of 200 or more and less than 1,000; and a (meth)acrylamide compound having a weight average molecular weight in a range of 110 or more and less than 1,000; and a photopolymerization initiator, and wherein the weight average molecular weight is determined as described in the description. urethane (meth)acrylate having a polycarbonate skeleton and three or more polymerizable unsaturated groups in one molecule and having a weight average molecular weight in a range of 10,000 to 40,000; urethane (meth)acrylate having a weight average molecular weight in a range of 1,000 or more and less than 10,000; at least one compound selected from the group consisting of: a polymerizable unsaturated compound having three or more polymerizable unsaturated groups in one molecule and having a weight average molecular weight in a range of 280 or more and less than 1,000; a polymerizable unsaturated compound having an alicyclic structure and one or two polymerizable unsaturated groups in one molecule and having a weight average molecular weight in a range of 200 or more and less than 1,000; and a (meth)acrylamide compound having a weight average molecular weight in a range of 110 or more and less than 1,000; and a photopolymerization initiator, and wherein
A steel sheet characterized by having a chemical composition consisting of C, Si, Mn, P, S, sol. Al, N, Bi, Ti, Nb, V, Cr, Mo, Ni, Ca, Mg, REM, Zr, and B, in which the content in mass percent is C: 0.03 - 0.20 %, Si: 0.005 - 2.0 %, Mn: 1.2 - 3.5 %, P is at least 0.003 % and P ≤ 0.1 %, S: ≤ 0.01 %, sol. Al: 0.001 - 1.0 %, N: ≤ 0.01 %, Bi: 0.0001 - 0.05 %, Ti: 0 - 0.3 %, Nb: 0 - 0.3 %, V: 0 - 0.3 %, Cr: 0 - 1 %, Mo: 0 - 1 %, Ni: 0 - 1 %, Ca: 0 - 0.01 %, Mg: 0 - 0.01 %, REM: 0 - 0.01 %, Zr: 0 - 0.01 %, and B: 0 - 0.01 %, the remainder being Fe and impurities, and by the Mn segregation ratio (Mn max /Mn av) calculated from the average Mn concentration (Mn av) and the maximum Mn concentration (Mn max) at a depth of 1/20 of the sheet thickness from the surface of the steel sheet being less than 1.30.
Process for manufacturing decorative, rigid, heat-resistant products, comprising: preparing a layer of fabric obtained from textile fibre yarns having different colour and/or titre and/or wettability, representing a decorative texture resulting from their interweaving, obtaining a deformable composite laminate by coupling the textile fibre fabric layer between a layer of fibreglass weighing in the range between 400 g/m2 and 1000 g/m2, and a surface layer made of micronized glass powder arranged on one side of the laminate, impregnating said layers and/or said composite laminate with a transparent fireproof matrix, preferably a thermosetting epoxy matrix; heat-hardening and deforming the laminate in a desired final shape; whereby said layer of textile fibre fabric weighing in the range between 150 g/m2 and 400 g/m2 and said glass surface layer made of a micronized glass powder weighing in the range between 10 g/m2 and 150 g/m2. preparing a layer of fabric obtained from textile fibre yarns having different colour and/or titre and/or wettability, representing a decorative texture resulting from their interweaving, obtaining a deformable composite laminate by coupling the textile fibre fabric layer between a layer of fibreglass weighing in the range between 400 g/m2 and 1000 g/m2, and a surface layer made of micronized glass powder arranged on one side of the laminate, impregnating said layers and/or said composite laminate with a transparent fireproof matrix, preferably a thermosetting epoxy matrix; heat-hardening and deforming the laminate in a desired final shape; whereby said layer of textile fibre fabric weighing in the range between 150 g/m2 and 400 g/m2 and said glass surface layer made of a micronized glass powder weighing in the range between 10 g/m2 and 150 g/m2.