mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a partitioned column segment, comprising: • a first sheet metal segment, a second sheet metal segment, and a third sheet metal segment, wherein said first sheet metal segment comprises a first edge, and a second edge, wherein said second sheet metal segment comprises a third edge, and a fourth edge, wherein said third sheet metal segment comprises a fifth edge, and an sixth edge, wherein said second edge is attached to said third edge, wherein said fourth edge is attached to said fifth edge, • forming said first segment into a first arcuate bend in a first direction, wherein adjacent to said first edge comprises a first distal region, • forming said second segment into a z-shaped bend, wherein said z-shape consists of a first proximate region, a central region, and a second proximate region, • forming said third segment into a second arcuate bend in a second direction, wherein adjacent to said sixth edge comprises a second distal region, • attaching said first distal region to said second proximate region, thereby producing a first approximately cylindrical segment, said first approximately cylindrical segment having an approximately semi-circular cross-section, and • attaching said second distal region to said first proximate region, thereby producing a second approximately cylindrical segment, said second approximately cylindrical segment having an approximately semi-circular cross-section. • a first sheet metal segment, a second sheet metal segment, and a third sheet metal segment, wherein said first sheet metal segment comprises a first edge, and a second edge, wherein said second sheet metal segment comprises a third edge, and a fourth edge, wherein said third sheet metal segment comprises a fifth edge, and an sixth edge, wherein said second edge is attached to said third edge, wherein said fourth edge is attached to said fifth edge, wherein said first sheet metal segment comprises a first edge, and a second edge, wherein said second sheet metal segment comprises a third edge, and a fourth edge, wherein said third sheet metal segment comprises a fifth edge, and an sixth edge, wherein said second edge is attached to said third edge, wherein said fourth edge is attached to said fifth edge, • forming said first segment into a first arcuate bend in a first direction, wherein adjacent to said first edge comprises a first distal region, • forming said second segment into a z-shaped bend, wherein said z-shape consists of a first proximate region, a central region, and a second proximate region, • forming said third segment into a second arcuate bend in a second direction, wherein adjacent to said sixth edge comprises a second distal region, • attaching said first distal region to said second proximate region, thereby producing a first approximately cylindrical segment, said first approximately cylindrical segment having an approximately semi-circular cross-section, and • attaching said second distal region to said first proximate region, thereby producing a second approximately cylindrical segment, said second approximately cylindrical segment having an approximately semi-circular cross-section.
A vector, comprising: a MYC1 transcription factor encoding gene promoter; and a gene, the gene being functionally linked to the promoter, wherein the gene is at least one gene selected from the group consisting of a gene encoding farnesyl diphosphate synthase, a gene encoding geranylgeranyl diphosphate synthase, a gene encoding 3-hydroxy-3-methylglutaryl CoA reductase, a gene encoding isopentenyl diphosphate isomerase, a gene encoding cis-prenyltransferase, a gene encoding Small Rubber Particle Protein, and a gene encoding Rubber Elongation Factor, wherein the MYC1 transcription factor encoding gene promoter comprises any one of the following DNAs: a DNA comprising the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1; a DNA hybridizing to a DNA comprising a base sequence complementary to the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1 under stringent conditions, and having a promoter activity for laticifer-specific gene expression; and a DNA comprising a base sequence having 80% or more sequence identity with the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1, and having a promoter activity for laticifer-specific gene expression. a MYC1 transcription factor encoding gene promoter; and a gene, the gene being functionally linked to the promoter, wherein the gene is at least one gene selected from the group consisting of a gene encoding farnesyl diphosphate synthase, a gene encoding geranylgeranyl diphosphate synthase, a gene encoding 3-hydroxy-3-methylglutaryl CoA reductase, a gene encoding isopentenyl diphosphate isomerase, a gene encoding cis-prenyltransferase, a gene encoding Small Rubber Particle Protein, and a gene encoding Rubber Elongation Factor, wherein the MYC1 transcription factor encoding gene promoter comprises any one of the following DNAs: a DNA comprising the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1; a DNA hybridizing to a DNA comprising a base sequence complementary to the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1 under stringent conditions, and having a promoter activity for laticifer-specific gene expression; and a DNA comprising a base sequence having 80% or more sequence identity with the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1, and having a promoter activity for laticifer-specific gene expression. a DNA comprising the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1; a DNA hybridizing to a DNA comprising a base sequence complementary to the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1 under stringent conditions, and having a promoter activity for laticifer-specific gene expression; and a DNA comprising a base sequence having 80% or more sequence identity with the base sequence of base numbers 1 to 1610 represented by SEQ ID NO: 1, and having a promoter activity for laticifer-specific gene expression.
A process for preparing a product that comprises a physical component and a Silica Documentation, the physical component including diatomite, wherein a crystalline silica content of the physical component by weight is greater as measured according to Traditional Methods than as measured according to an LH Method as described in the description, wherein Traditional Methods is x-ray diffraction analysis that treats opal-C as cristobalite when measuring and quantifying crystalline silica phases, the Silica Documentation disclosing the crystalline silica content present in the physical component as measured according to the LH Method, the process for preparing the product comprising: manufacturing the physical component of the product from a selected diatomite ore, optionally with a fluxing additive; analyzing the physical component of the product for the crystalline silica content using the LH Method to determine a cristobalite content, and preparing the Silica Documentation based on a result of the analyzing of the physical component of the product for the crystalline silica content using the LH Method to determine the cristobalite content. the physical component including diatomite, wherein a crystalline silica content of the physical component by weight is greater as measured according to Traditional Methods than as measured according to an LH Method as described in the description, wherein Traditional Methods is x-ray diffraction analysis that treats opal-C as cristobalite when measuring and quantifying crystalline silica phases, the Silica Documentation disclosing the crystalline silica content present in the physical component as measured according to the LH Method, the process for preparing the product comprising: manufacturing the physical component of the product from a selected diatomite ore, optionally with a fluxing additive; analyzing the physical component of the product for the crystalline silica content using the LH Method to determine a cristobalite content, and preparing the Silica Documentation based on a result of the analyzing of the physical component of the product for the crystalline silica content using the LH Method to determine the cristobalite content. manufacturing the physical component of the product from a selected diatomite ore, optionally with a fluxing additive; analyzing the physical component of the product for the crystalline silica content using the LH Method to determine a cristobalite content, and preparing the Silica Documentation based on a result of the analyzing of the physical component of the product for the crystalline silica content using the LH Method to determine the cristobalite content.
Laminated packaging material for use in packaging of products sensitive to oxygen and other gases, comprising a barrier sheet or film (10a; 10b; 20a; 20b), having a gas barrier layer (14; 18) comprising cellulose nanofibrils, the laminated packaging material further comprising a bulk layer of paper or paperboard or other cellulose-based material, a first outermost liquid tight, heat sealable polyolefin layer, a second innermost liquid tight, heat sealable polyolefin layer and arranged on the inner side of the bulk layer of paper or paperboard or other cellulose-based material, between the bulk layer and the innermost layer, said barrier sheet or film, wherein the gas barrier layer is coated on at least one side with a vapour deposition barrier coating of an amorphous diamond-like carbon (16; 20), wherein the gas barrier layer comprises CNF and up to 25 weight-% of a plasticizer compound, based on the dry weight of the layer, the plasticizer compound being selected from the group consisting of polyols, saccharides, polysaccharides, cellulose derivatives, polyethylene glycols and polyvinyl alcohols, and wherein said vapour deposition barrier coating (16; 20) of a DLC is arranged between said gas barrier layer (14; 18) and said innermost heat sealable polyolefin layer, the vapour deposition barrier coating having water vapour barrier properties, whereby the film provides gas barrier properties also at high humidity conditions in the laminated packaging material.
An apparatus for producing sound in a first electronic device being adapted for making communication with a second electronic device, the apparatus comprising: a first mixer (16, 301) being adapted to mix sound transmitted from a sound source of the first electronic device with voices transmitted between the first electronic device and second electronic device during communication with each other; and a controller being adapted to control production of sound from the sound source; and the controller being adapted to control the sound production in accordance with control data indicative of what sound is output from the sound source and how that sound is output; characterized in that the controller is adapted to control the sound production in accordance with control data received from the second electronic device during communication with the first electronic device. a first mixer (16, 301) being adapted to mix sound transmitted from a sound source of the first electronic device with voices transmitted between the first electronic device and second electronic device during communication with each other; and a controller being adapted to control production of sound from the sound source; and the controller being adapted to control the sound production in accordance with control data indicative of what sound is output from the sound source and how that sound is output; characterized in that the controller is adapted to control the sound production in accordance with control data received from the second electronic device during communication with the first electronic device.
A method of forming a weld joint, comprising: arc welding at least a portion of an aluminum alloy base metal and a filler metal to form the weld joint, wherein the filler metal is an alloy of silicon in a weight percent of between 5.0 % and 6.0 %, magnesium in a weight percent of between 0.31 % and 0.50 %, and a remainder of aluminum and trace elements, wherein said trace elements comprise up to and including 0,40 weight percent of iron, up to and including 0,10 weight percent of copper, up to and including 0,05 weight percent of manganese, up to and including 0,10 weight percent of zinc, up to and including 0,15 weight percent of titanium, up to and including 0,0003 weight percent of beryllium, as well as zirconium, scandium and/or chromium, each limited to 0,05 weight percent and a total of 0,15 weight percent, the method further comprising a heat treating step with a temperature in a range of 590,6°C and 615,6°C (1095°F and 1140°F), wherein the weld joint comprises less than 20% of the base metal. arc welding at least a portion of an aluminum alloy base metal and a filler metal to form the weld joint, wherein the filler metal is an alloy of silicon in a weight percent of between 5.0 % and 6.0 %, magnesium in a weight percent of between 0.31 % and 0.50 %, and a remainder of aluminum and trace elements, wherein said trace elements comprise up to and including 0,40 weight percent of iron, up to and including 0,10 weight percent of copper, up to and including 0,05 weight percent of manganese, up to and including 0,10 weight percent of zinc, up to and including 0,15 weight percent of titanium, up to and including 0,0003 weight percent of beryllium, as well as zirconium, scandium and/or chromium, each limited to 0,05 weight percent and a total of 0,15 weight percent, the method further comprising a heat treating step with a temperature in a range of 590,6°C and 615,6°C (1095°F and 1140°F), wherein the weld joint comprises less than 20% of the base metal.
Power device based on alkali-water reaction, characterized in that it comprises - a reaction chamber configured to carry out a chemical reaction between water and an alkali element, comprising in turn - an exhaust nozzle configured to exhaust the chemical reaction products generated in the reaction chamber, - a siphon tube inside the reaction chamber, connected to the exhaust nozzle - a nozzle shutter plate sealing the exhaust nozzle and configured to be broken at a predetermined pressure, - and an external pressure inlet configured to transmit pressure to the interior of the reaction chamber, - a water reservoir configured to store water, and transfer said water to the reaction chamber, - an alkali reservoir configured to store an alkali element, and transfer said alkali element to the reaction chamber, - and transfer means connecting the reaction chamber to both reservoirs (2,3) and configured to transmit pressure generated in the reaction chamber to said reservoirs (2,3), providing the transfer of the water and the alkali element from both reservoirs (2,3) to the reaction chamber. - a reaction chamber configured to carry out a chemical reaction between water and an alkali element, comprising in turn - an exhaust nozzle configured to exhaust the chemical reaction products generated in the reaction chamber, - a siphon tube inside the reaction chamber, connected to the exhaust nozzle - a nozzle shutter plate sealing the exhaust nozzle and configured to be broken at a predetermined pressure, - and an external pressure inlet configured to transmit pressure to the interior of the reaction chamber, - an exhaust nozzle configured to exhaust the chemical reaction products generated in the reaction chamber, - a siphon tube inside the reaction chamber, connected to the exhaust nozzle - a nozzle shutter plate sealing the exhaust nozzle and configured to be broken at a predetermined pressure, - and an external pressure inlet configured to transmit pressure to the interior of the reaction chamber, - a water reservoir configured to store water, and transfer said water to the reaction chamber, - an alkali reservoir configured to store an alkali element, and transfer said alkali element to the reaction chamber, - and transfer means connecting the reaction chamber to both reservoirs (2,3) and configured to transmit pressure generated in the reaction chamber to said reservoirs (2,3), providing the transfer of the water and the alkali element from both reservoirs (2,3) to the reaction chamber.
A balloon control device configured to control an expansion and contraction of a balloon (42, 72) fixed to one of an insertion unit of endoscope and an insertion adapter by supplying and suctioning of gas to the balloon (42, 72), characterized by comprising: a main body of the balloon control device; a tube (64, 80) connecting the balloon control device to the balloon (42, 72); a coupling (191, 193) for connecting the tube (64, 80) and the main body; and a gas/liquid separator (150, 180, 200) which is set to the coupling and is configured to make gas pass without passing the fluid in order that the fluid flowed in from the side of the balloon is prevented from flowing to the side of the balloon control device. a main body of the balloon control device; a tube (64, 80) connecting the balloon control device to the balloon (42, 72); a coupling (191, 193) for connecting the tube (64, 80) and the main body; and a gas/liquid separator (150, 180, 200) which is set to the coupling and is configured to make gas pass without passing the fluid in order that the fluid flowed in from the side of the balloon is prevented from flowing to the side of the balloon control device.
A method for manufacturing a semiconductor device, comprising the steps of: preparing a substrate made of silicon carbide and having a first conductivity type region (14, 17) formed to include one main surface; forming a second conductivity type region (15, 16) in a region including said main surface; forming an oxide film on said main surface across said first conductivity type region (14, 17) and said second conductivity type region (15, 16), by heating said substrate having said second conductivity type region (15, 16) formed therein at a temperature of 1250°C or more; heating said substrate having said oxide film formed thereon in a nitrogen-containing atmosphere; depositing a second oxide film on said oxide film after the step of heating said substrate in a nitrogen-containing atmosphere; removing said oxide film and said second oxide film to expose a part of said main surface including a part of said first conductivity type region and at least a part of said second conductivity type region (15, 16); and forming a Schottky electrode in contact with said second oxide film and said main surface that has been exposed by removing said oxide film and said second oxide film, said Schottky electrode extending on said second oxide film. preparing a substrate made of silicon carbide and having a first conductivity type region (14, 17) formed to include one main surface; forming a second conductivity type region (15, 16) in a region including said main surface; forming an oxide film on said main surface across said first conductivity type region (14, 17) and said second conductivity type region (15, 16), by heating said substrate having said second conductivity type region (15, 16) formed therein at a temperature of 1250°C or more; heating said substrate having said oxide film formed thereon in a nitrogen-containing atmosphere; depositing a second oxide film on said oxide film after the step of heating said substrate in a nitrogen-containing atmosphere; removing said oxide film and said second oxide film to expose a part of said main surface including a part of said first conductivity type region and at least a part of said second conductivity type region (15, 16); and forming a Schottky electrode in contact with said second oxide film and said main surface that has been exposed by removing said oxide film and said second oxide film, said Schottky electrode extending on said second oxide film.
A computer implemented method for providing a model of a superstructure joining a denture and a corresponding dental arch, the method comprising the steps of: - obtaining a first 3D representation of at least a part of a preliminary model of the denture (1001; 1101), - obtaining a second 3D representation of at least a part of the dental arch (1002; 1102) comprising dental implants, - generating a model of a superstructure based on the first 3D representation (1001; 1101), the second 3D representation (1002;1102), dental implant positions and dental implant orientations, - combining the first (1001; 1101) and second 3D representations (1002;1102)to provide a third 3D representation of at least part of the preliminary model of the denture where the gingival side of the third 3D representation corresponds to the second 3D representation (1002;1102), and - virtually modelling the final denture based on the virtual model of the superstructure, the second 3D representation (1002;1102) and the third 3D representation. - obtaining a first 3D representation of at least a part of a preliminary model of the denture (1001; 1101), - obtaining a second 3D representation of at least a part of the dental arch (1002; 1102) comprising dental implants, - generating a model of a superstructure based on the first 3D representation (1001; 1101), the second 3D representation (1002;1102), dental implant positions and dental implant orientations, - combining the first (1001; 1101) and second 3D representations (1002;1102)to provide a third 3D representation of at least part of the preliminary model of the denture where the gingival side of the third 3D representation corresponds to the second 3D representation (1002;1102), and - virtually modelling the final denture based on the virtual model of the superstructure, the second 3D representation (1002;1102) and the third 3D representation.
A system for Dynamic Bandwidth Assignment, DBA, Virtualization comprising a Passive Optical Network with an Optical Line Termination, OLT, point and a plurality of Optical Network Units, ONU, and a plurality of Virtual Network Operators, VNO, sharing the Passive Optical Network, PON, wherein each VNO is configured with one or more virtual Dynamic Bandwidth Assignment module to schedule a bandwidth assignment independently of other VNOs of said plurality of VNOs; said system comprising a merging engine adapted to communicate a buffer report or report frames from the OLT point to each virtual Dynamic Bandwidth assignment module of each VNO, and adapted to receive a virtual bandwidth map for every frame from each virtual Dynamic Bandwidth assignment module of each VNO, wherein the merging engine is configured to merge the virtual bandwidth maps received from each VNO for a frame into a single coherent physical bandwidth map allocation for the frame scheduled to the plurality of Optical Network Units to implement a bandwidth scheduling allocation over the shared Passive Optical Network; wherein the Passive Optical Network is a multi-wavelength operated system; and wherein at least one VNO is adapted to operate without information on the physical allocation of wavelengths by the merging engine and generate Dynamic Bandwidth assignment and provide Bandwidth Maps. a merging engine adapted to communicate a buffer report or report frames from the OLT point to each virtual Dynamic Bandwidth assignment module of each VNO, and adapted to receive a virtual bandwidth map for every frame from each virtual Dynamic Bandwidth assignment module of each VNO, wherein the merging engine is configured to merge the virtual bandwidth maps received from each VNO for a frame into a single coherent physical bandwidth map allocation for the frame scheduled to the plurality of Optical Network Units to implement a bandwidth scheduling allocation over the shared Passive Optical Network; wherein the Passive Optical Network is a multi-wavelength operated system; and wherein at least one VNO is adapted to operate without information on the physical allocation of wavelengths by the merging engine and generate Dynamic Bandwidth assignment and provide Bandwidth Maps.