mhurhangee/ep-ind-claims huggingface dataset:
A multi-pass method of sequencing a target sequence using nanopore sequencing, the method comprising: i) providing a non-naturally occurring concatemer nucleic acid molecule comprising monomeric units that comprise (a) the target sequence, and (b) a non-target sync sequence having a predetermined sequence, wherein copies of the target sequence are separated by non-target sync sequences that demarcate a target sequence boundary, wherein the concatemer comprises a plurality of copies of the target sequence and a plurality of copies of the sync sequence; and then ii) nanopore sequencing at least three copies of the target sequence in the concatemer, thereby obtaining a multi-pass sequence dataset, wherein the multi-pass sequence dataset comprises target sequence datasets for the at least three copies of the target sequence; and iii) using the multi-pass sequence dataset to determine the target sequence wherein the non-target sync sequences are used to align the target sequences in the multi-pass sequence dataset. i) providing a non-naturally occurring concatemer nucleic acid molecule comprising monomeric units that comprise (a) the target sequence, and (b) a non-target sync sequence having a predetermined sequence, wherein copies of the target sequence are separated by non-target sync sequences that demarcate a target sequence boundary, wherein the concatemer comprises a plurality of copies of the target sequence and a plurality of copies of the sync sequence; and then ii) nanopore sequencing at least three copies of the target sequence in the concatemer, thereby obtaining a multi-pass sequence dataset, wherein the multi-pass sequence dataset comprises target sequence datasets for the at least three copies of the target sequence; and iii) using the multi-pass sequence dataset to determine the target sequence wherein the non-target sync sequences are used to align the target sequences in the multi-pass sequence dataset.
Vending machine, comprising a sealed housing having an interior space for storing vending products, comprising a camera device (20; 30) arranged in the interior space and directed towards the vending products stored in the interior space and provided for sale in such a way that at least a portion of the stored vending products can be captured by the camera device (20; 30), comprising a screen coupled to the camera device (20; 30), so as to output one or more images of the vending products captured by the camera device (20; 30) and provided for sale, and attached to the housing in such a way that images, outputted by the screen, of the vending products stored in the interior space of the sealed housing are still visible to a person standing in front of the vending machine, wherein the camera device (20; 30) has at least one camera and at least one mirror, the camera being directed towards the mirror and the mirror being attached to the housing in such a way that the camera directed towards the mirror can indirectly capture the vending products stored in the interior space, wherein a device for image processing is provided, which is configured to undo distortion of the image due to the mirror and/or the camera (20; 30). comprising a sealed housing having an interior space for storing vending products, comprising a camera device (20; 30) arranged in the interior space and directed towards the vending products stored in the interior space and provided for sale in such a way that at least a portion of the stored vending products can be captured by the camera device (20; 30), comprising a screen coupled to the camera device (20; 30), so as to output one or more images of the vending products captured by the camera device (20; 30) and provided for sale, and attached to the housing in such a way that images, outputted by the screen, of the vending products stored in the interior space of the sealed housing are still visible to a person standing in front of the vending machine, wherein the camera device (20; 30) has at least one camera and at least one mirror, the camera being directed towards the mirror and the mirror being attached to the housing in such a way that the camera directed towards the mirror can indirectly capture the vending products stored in the interior space, wherein a device for image processing is provided, which is configured to undo distortion of the image due to the mirror and/or the camera (20; 30).
A curing apparatus comprising: a housing having a sidewall with an inlet spaced apart from an outlet along an axis, the housing defining an interior chamber; at least one ultraviolet radiation source operative for transmitting ultraviolet radiation into the interior chamber; and at least one nozzle in flow communication with the interior chamber, characterized by an open slot extending through the sidewall continuously from the inlet to the outlet of the housing. a housing having a sidewall with an inlet spaced apart from an outlet along an axis, the housing defining an interior chamber; at least one ultraviolet radiation source operative for transmitting ultraviolet radiation into the interior chamber; and at least one nozzle in flow communication with the interior chamber, characterized by an open slot extending through the sidewall continuously from the inlet to the outlet of the housing.
A secondary battery comprising: an electrode assembly; a case for accommodating the electrode assembly; and a cap assembly coupled to the top of the case, wherein the cap assembly comprises a cap-up, a safety vent (150, 250) provided below the cap-up, a cap-down provided below the safety vent (150, 250) and having a through hole and a gas discharge hole, an insulator provided between the safety vent (150, 250) and the cap-down, a sub-plate provided below the cap-down, and a solder member for electrically connecting the safety vent (150, 250) and the sub-plate, and the safety vent (150, 250) and the sub-plate are electrically connected by means of soldering wherein the safety vent (150, 250) includes a fixing portion (151, 251) installed to make close contact with an edge portion of the cap-up, and a deforming portion (152, 252) positioned at an inner side of the fixing portion (151, 251) and downwardly protruding, and the deforming portion (152, 252) includes a first region (153, 253) extending from the fixing portion (151, 251) and having a notch (153a, 253a) formed therein, and a second region (154, 254) positioned at an inner side of the first region (153, 253), having a coupling portion (155, 255) having a center hole (155a, 255a) formed therein, and downwardly protruding, wherein a hook bent toward an outer side of the safety vent is provided at an end of the coupling portion. an electrode assembly; a case for accommodating the electrode assembly; and a cap assembly coupled to the top of the case, wherein the cap assembly comprises a cap-up, a safety vent (150, 250) provided below the cap-up, a cap-down provided below the safety vent (150, 250) and having a through hole and a gas discharge hole, an insulator provided between the safety vent (150, 250) and the cap-down, a sub-plate provided below the cap-down, and a solder member for electrically connecting the safety vent (150, 250) and the sub-plate, and the safety vent (150, 250) and the sub-plate are electrically connected by means of soldering wherein the safety vent (150, 250) includes a fixing portion (151, 251) installed to make close contact with an edge portion of the cap-up, and a deforming portion (152, 252) positioned at an inner side of the fixing portion (151, 251) and downwardly protruding, and the deforming portion (152, 252) includes a first region (153, 253) extending from the fixing portion (151, 251) and having a notch (153a, 253a) formed therein, and a second region (154, 254) positioned at an inner side of the first region (153, 253), having a coupling portion (155, 255) having a center hole (155a, 255a) formed therein, and downwardly protruding, wherein a hook bent toward an outer side of the safety vent is provided at an end of the coupling portion.
A wood pulping process comprising: pulping wood and producing a liquor; pre-concentrating the liquor in one or more evaporators to produce a concentrated liquor, a contaminated condensate, and a non-contaminated condensate; directing the concentrated liquor to a multiple effect train including a series of forced circulation solids concentrators that further concentrate the concentrated liquor to form a highly concentrated liquor; directing the contaminated condensate to a gas stripping unit; steam stripping the contaminated condensate in the gas stripping unit and producing a vapor stream having contaminants stripped from the contaminated condensate; directing the vapor stream from the gas stripping unit to one of the effects of the multiple effect train and heating the concentrated liquor passing through the effect by transferring heat from the vapor stream to the concentrated liquor and employing the thermal energy associated with a vapor stream to power one or more of the other effects of the of the multiple effect train and to heat the concentrate liquor passing therethrough; and burning the highly concentrated liquor produced by the multiple effect train in an incinerator or boiler. pulping wood and producing a liquor; pre-concentrating the liquor in one or more evaporators to produce a concentrated liquor, a contaminated condensate, and a non-contaminated condensate; directing the concentrated liquor to a multiple effect train including a series of forced circulation solids concentrators that further concentrate the concentrated liquor to form a highly concentrated liquor; directing the contaminated condensate to a gas stripping unit; steam stripping the contaminated condensate in the gas stripping unit and producing a vapor stream having contaminants stripped from the contaminated condensate; directing the vapor stream from the gas stripping unit to one of the effects of the multiple effect train and heating the concentrated liquor passing through the effect by transferring heat from the vapor stream to the concentrated liquor and employing the thermal energy associated with a vapor stream to power one or more of the other effects of the of the multiple effect train and to heat the concentrate liquor passing therethrough; and burning the highly concentrated liquor produced by the multiple effect train in an incinerator or boiler.
A rubber composition for conveyor belts, which contains, relative to 100 parts by mass of a rubber component therein containing from 100 to 70 parts by mass of styrene-butadiene rubber and from 0 to 30 parts by mass of at least one selected from butadiene rubber and natural rubber, from 5 to 20 parts by mass of silica, from 10 to 25 parts by mass of resin, and from 40 to 70 parts by mass of carbon black having a nitrogen adsorption specific surface area, which is measured according to JIS K 6217-2:2001, of 100 m 2 /g or more, and wherein the styrene-butadiene rubber is a styrene-butadiene rubber mixture having a mean styrene content of from 28 to 35% by mass, which contains one or more types of styrene-butadiene rubber having a styrene content of from 20 to 25% by mass and one or more types of styrene-butadiene rubber having a styrene content of from more than 25 to 50% by mass.
Air mass flowmeter having a sensor element which is of microelectromechanical design and has a heating element and at least one temperature sensor element (7, 8), wherein the temperature sensor element (7, 8) is in the form of a thermal element, wherein the thermal element comprises a large number of thermocouples (29, 31, 32, 33) which are connected in series and through which an electric current flows in succession, and wherein a thermocouple (29, 31, 32, 33) comprises a first metal conductor and a second metal conductor which are connected to one another in each case at an end by a connecting point, and wherein the first metal conductor and the second metal conductor are formed from different metals, characterized in that the first thermocouple or the first thermocouples and the last thermocouple or the last thermocouples of the thermal element are polarized in such a way that the electric current in each case initially flows through the second metal conductor and then the first metal conductor, wherein the remaining thermocouples of the thermal element, which remaining thermocouples are arranged between the first thermocouple or the first thermocouples and the last thermocouple or the last thermocouples, are polarized in such a way that the electric current in each case initially flows through the first metal conductor and then the second metal conductor.
Lid for a beverage can or the like comprising a lid surface and a closure unit for opening and reclosing arranged in the region of the lid surface, which closure unit optionally uncovers or closes a drinking opening in the lid surface, wherein the lid, when in use, has an inner side pointing to the inside of the can and an outer side pointing to the environment, wherein on the outer side of the lid a foil is arranged which on the outer side of the lid completely covers the closure unit, characterised in that the foil is tightly joined to the lid surface around the closure unit over the whole area by means of an adhesive or sealing layer such that by means of the connection between the foil and the lid surface the infiltration of moisture is prevented or at least substantially prevented, wherein the foil is multi-layered and includes at least one metal layer and one plastic layer and the adhesive or sealing layer.
A back side emitting light source array device comprising: a substrate; an array of vertical cavity surface emitting lasers, VCSELs, configured to emit light toward the substrate; a distributed Bragg reflector, DBR, provided on a first surface of the substrate; a plurality of gain layers which are provided on the DBR, the plurality of gain layers being spaced apart from one another, and each of the plurality of gain layers being configured to individually generate light; and a plurality of nanostructure reflectors provided respectively on the plurality of gain layers opposite to the DBR, each nanostructure reflector comprising a plurality of nanostructures having a sub-wavelength shape dimension, wherein the DBR, the plurality of gain layers and the plurality of nanostructure reflectors constitute the VCSELs of the array of VCSELs, wherein a respective nanostructure reflector is provided on each of the plurality of gain layers, wherein a reflectivity of the DBR is less than a reflectivity of each nanostructure reflector such that the light generated is emitted through the substrate and characterized in that the DBR is provided as a common mirror layer for the plurality of gain layers which are provided in an array. a substrate; an array of vertical cavity surface emitting lasers, VCSELs, configured to emit light toward the substrate; a distributed Bragg reflector, DBR, provided on a first surface of the substrate; a plurality of gain layers which are provided on the DBR, the plurality of gain layers being spaced apart from one another, and each of the plurality of gain layers being configured to individually generate light; and a plurality of nanostructure reflectors provided respectively on the plurality of gain layers opposite to the DBR, each nanostructure reflector comprising a plurality of nanostructures having a sub-wavelength shape dimension, wherein the DBR, the plurality of gain layers and the plurality of nanostructure reflectors constitute the VCSELs of the array of VCSELs, wherein a respective nanostructure reflector is provided on each of the plurality of gain layers, wherein a reflectivity of the DBR is less than a reflectivity of each nanostructure reflector such that the light generated is emitted through the substrate and characterized in that the DBR is provided as a common mirror layer for the plurality of gain layers which are provided in an array.
Compound according to the general formula: wherein the radicals R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12 are each independently selected from: -H, - (C 1 -C 12) -alkyl, -O-(C 1 -C 12) -alkyl, -(C 6 -C 20)-aryl, -O-(C 6 -C 20)-aryl, -halogen.
A contact unit for a tap changer comprising: - a contact ring having a central axis, - a plurality of fixed contacts (4; 4a-b) arranged at a distance from the contact ring in different radial directions, and - a moving contact arranged rotatable about the central axis of the contact ring and adapted to electrically connect the fixed contacts one at a time with the contact ring, and the moving contact comprises two elongated contact elements (8a-b), each of the contact elements comprises a first contact area (14a-b) for providing electrical contact with the fixed contacts and a second contact area (16a-b) for providing electrical contact with the contact ring, and the moving contact is designed so that an electric path is formed between the first and second contact area, characterized in that the first contact area (14a-b) and the second contact area (16a-b) of each of the contact elements are positioned on opposite sides of a plane orthogonal to a longitudinal axis of the moving contact and including the central axis of the contact ring. - a contact ring having a central axis, - a plurality of fixed contacts (4; 4a-b) arranged at a distance from the contact ring in different radial directions, and - a moving contact arranged rotatable about the central axis of the contact ring and adapted to electrically connect the fixed contacts one at a time with the contact ring, and the moving contact comprises two elongated contact elements (8a-b), each of the contact elements comprises a first contact area (14a-b) for providing electrical contact with the fixed contacts and a second contact area (16a-b) for providing electrical contact with the contact ring, and the moving contact is designed so that an electric path is formed between the first and second contact area, characterized in that the first contact area (14a-b) and the second contact area (16a-b) of each of the contact elements are positioned on opposite sides of a plane orthogonal to a longitudinal axis of the moving contact and including the central axis of the contact ring.
A plurality of optical modules, wherein each module comprises: a substrate composed of a material that is transparent to light of a particular wavelength or range of wavelengths; a plurality of lens systems (80; 218) attached over a first side of the substrate, wherein each lens system (80; 218) has a respective optical axis (41; 204) that intersects the substrate and corresponds to a respective optical channel in the module; a plurality of optical filters (90; 92; 206; 212; 214), wherein the optical axis (41; 204) of each lens system (80; 218) intersects with a respective one of the optical filters (90; 92; 206; 212; 214); a spacer disposed over the substrate between a respective pair of the optical filters, wherein the spacer is substantially non-transparent to light of the particular wavelength or range of wavelengths; a channel flange focal length, FFL, correction layer, wherein the optical axes (41; 204) of a plurality of the lens systems (80; 218) intersect the channel FFL correction layer; and wherein respective portions of the channel FFL correction layer intersected by the respective optical axes (80; 218) have different thicknesses from one another; and an image sensor attached over a second side of the substrate; and spacers separating the second side of the substrate from the image sensor, wherein a height of at least two of the plurality of spacers associated with different ones of the modules is different to serve as a module FFL correction layer for the respective module. a substrate composed of a material that is transparent to light of a particular wavelength or range of wavelengths; a plurality of lens systems (80; 218) attached over a first side of the substrate, wherein each lens system (80; 218) has a respective optical axis (41; 204) that intersects the substrate and corresponds to a respective optical channel in the module; a plurality of optical filters (90; 92; 206; 212; 214), wherein the optical axis (41; 204) of each lens system (80; 218) intersects with a respective one of the optical filters (90; 92; 206; 212; 214); a spacer disposed over the substrate between a respective pair of the optical filters, wherein the spacer is substantially non-transparent to light of the particular wavelength or range of wavelengths; a channel flange focal length, FFL, correction layer, wherein the optical axes (41; 204) of a plurality of the lens systems (80; 218) intersect the channel FFL correction layer; and wherein respective portions of the channel FFL correction layer intersected by the respective optical axes (80; 218) have different thicknesses from one another; and an image sensor attached over a second side of the substrate; and spacers separating the second side of the substrate from the image sensor, wherein a height of at least two of the plurality of spacers associated with different ones of the modules is different to serve as a module FFL correction layer for the respective module.
A process for producing an optically active compound represented by formula: Wherein R 1 represents a protecting group for the amino group, or a salt thereof, wherein the protecting group is selected from benzyl, phenethyl, benzyloxycarbonyl, methoxyphenyl, diphenylmethyl, and trityl, characterized in that a reagent prepared from an titanium reagent and an alkylmetal compound is reacted with an optically active compound represented by formula: wherein R 1 has the same meaning as defined above, optionally in the presence of a Lewis acid, and wherein the alkylmetal compound is an ethylmetal compound. R 1 represents a protecting group for the amino group, or a salt thereof, wherein the protecting group is selected from benzyl, phenethyl, benzyloxycarbonyl, methoxyphenyl, diphenylmethyl, and trityl,
Pressure sensor, preferably for measuring hot, explosive media, having a substantially rotationally symmetrical sensor housing which can be inserted into a measuring bore and accommodates a measuring transducer with a membrane element arranged on the pressure side of the sensor housing, and having a signal lead which is electrically insulated from the sensor housing, wherein the sensor housing is subdivided in the axial direction into a high pressure region and a low pressure region, and wherein the high pressure region accommodates the measuring transducer and comprises a pressure-tight barrier for separation from the low pressure region, which penetrates the signal lead in a pressure-tight manner, characterised in that the pressure-tight barrier comprises a sealing ring made from a heat-resistant, electrically insulating material which encloses the signal lead and which is soldered, welded, glued, pressed or shrunk into the pressure-tight barrier, and that the pressure-tight barrier comprises a sleeve with an inner flange which is welded into the sensor housing, on which the signal lead - in case of pressure forces acting axially outwardly in the case of damage - is supported with an outer flange by interposing the heat-resistant, electrically insulating sealing ring.