mhurhangee/ep-ind-claims huggingface dataset:
A method of generating cDNA libraries each with a unique oligonucleotide barcode, the method comprising the steps of: (a) capturing mRNA by hybridizing the mRNA to capture oligonucleotides attached to one or more solid supports, wherein the capture oligonucleotides are complementary to segments of the mRNA and wherein the capture oligonucleotides are attached to the one or more solid supports by 5'-ends and have 3'-ends with free 3'-hydroxyls; (b) extending 3'-ends of the capture oligonucleotides with a reverse transcriptase using the captured mRNAs as templates to form cDNA libraries on the one or more solid supports; (c) synthesizing oligonucleotide barcodes on cDNAs of the one or more solid support by template-free enzymatic synthesis. (a) capturing mRNA by hybridizing the mRNA to capture oligonucleotides attached to one or more solid supports, wherein the capture oligonucleotides are complementary to segments of the mRNA and wherein the capture oligonucleotides are attached to the one or more solid supports by 5'-ends and have 3'-ends with free 3'-hydroxyls; (b) extending 3'-ends of the capture oligonucleotides with a reverse transcriptase using the captured mRNAs as templates to form cDNA libraries on the one or more solid supports; (c) synthesizing oligonucleotide barcodes on cDNAs of the one or more solid support by template-free enzymatic synthesis.
Device for detecting radiation, comprising: - a silicon layer with a front side and a back side; - first and second read-out circuits formed on the front side of the silicon layer; - a photodiode formed on the front side of the silicon layer and connected to the first read-out circuit; - an electrically insulating layer placed on the front side of the silicon layer so as to cover the first and second read-out circuits (12-1 and 12-2) and the photodiode; - an infrared photodiode produced in a material optimized for infrared detection, and placed on the electrically insulating layer, the infrared photodiode and the photodiode being laterally offset; - an interconnect (15, 15-IR) that passes through the electrically insulating layer and that opens onto the surface of the electrically insulating layer, the interconnect (15, 15-IR) being configured to connect the second read-out circuit and the infrared photodiode; the detecting device being characterized in that a structure of interference filters of infrared radiation is placed on the electrically insulating layer so as to cover the photodiode without covering the infrared photodiode, the infrared photodiode and the structure of interference filters of infrared radiation being placed in one and the same plane. - a silicon layer with a front side and a back side; - first and second read-out circuits formed on the front side of the silicon layer; - a photodiode formed on the front side of the silicon layer and connected to the first read-out circuit; - an electrically insulating layer placed on the front side of the silicon layer so as to cover the first and second read-out circuits (12-1 and 12-2) and the photodiode; - an infrared photodiode produced in a material optimized for infrared detection, and placed on the electrically insulating layer, the infrared photodiode and the photodiode being laterally offset; - an interconnect (15, 15-IR) that passes through the electrically insulating layer and that opens onto the surface of the electrically insulating layer, the interconnect (15, 15-IR) being configured to connect the second read-out circuit and the infrared photodiode;
A modified conjugated diene-based polymer, wherein the modified conjugated diene-based polymer comprises a nitrogen atom and a silicon atom, has a weight average molecular weight of 20 × 10 4 or more and 300 × 10 4 or less, has a molecular weight distribution Mw/Mn of 2.0 or more and 4.0 or less, has a shrinkage factor g', determined as described in "<Physical Property 12; Shrinkage Factor (g')>" in the description, of 0.64 or more and 1.00 or less, has a modification ratio of 30% by mass or more and 80% by mass or less with respect to a total amount of the conjugated diene-based polymer, and comprises 5% by mass or more and 50% by mass or less of a component having a molecular weight of 1,000,000 or more and 5,000,000 or less in GPC (gel permeation chromatography), wherein a modification ratio of the component having a molecular weight of 1,000,000 or more and 5,000,000 or less is 90% by mass or more and 100% by mass or less, and wherein a modification ratio of a molecular weight component having 1/2 of a molecular weight at a peak top, or a peak top of the largest molecular weight among molecular weights of a plurality of peaks, if present, in GPC is 1/2 or less of a modification ratio of the whole modified conjugated diene-based polymer.
A mist eliminator comprising a large number of vane profiles that are arranged one next to the other and that form flow channels between them for a gas flow loaded with solids and/or liquids, wherein each vane profile is provided with a first upwardly opening drainage channel arranged in the lower region of the relevant flow channel, the vane profiles comprise an upper and a lower deflection point so as to form flow channels that have a vertical upper and lower region and an oblique central region in cross-section, the vane profiles comprise, on the side thereof facing away from the first drainage channel and above the first drainage channel, a nose that has a drip edge, projects into the relevant flow channel and is designed such that it causes accumulated liquid to drip into the first drainage channel of the adjacent vane profile, a second upwardly opening drainage channel that is arranged in the relevant flow channel directly above the nose is provided in the upper region of the vane profiles on the other side to the first drainage channel, and the two drainage channels (10, 12) are designed to guide collected liquid away to their longitudinal ends, characterized in that the first drainage channel is arranged below the lower deflection point and the nose having the drip edge is located at or just below the upper deflection point and extends downwards.
A method for the production of a cylinder head for an internal combustion engine; the production method comprises the steps of: dividing the cylinder head into a main part, where there is the flame deck making up the crown of each cylinder, and an operating part, where there are the housings of the control means of the valves; manufacturing, at first, the sole main part of the cylinder head by means of a casting process in a mould; and manufacturing, subsequently, the operating part of the cylinder head by means of additive manufacturing, which adds layer upon layer starting from the previously manufactured main part of the cylinder head. dividing the cylinder head into a main part, where there is the flame deck making up the crown of each cylinder, and an operating part, where there are the housings of the control means of the valves; manufacturing, at first, the sole main part of the cylinder head by means of a casting process in a mould; and manufacturing, subsequently, the operating part of the cylinder head by means of additive manufacturing, which adds layer upon layer starting from the previously manufactured main part of the cylinder head.
A power conversion apparatus comprising a smoothing circuit having a first electrolytic capacitor pair formed by serial connection of first and second electrolytic capacitors (C1,C2) and a second electrolytic capacitor pair formed by serial connection of third and fourth electrolytic capacitors (C3,C4), wherein a positive terminal (C1P) of the first electrolytic capacitor and a positive terminal (C4P) of the fourth electrolytic capacitor are connected to a positive potential conductor, a negative terminal (C2N) of the second electrolytic capacitor and a negative terminal (C3N) of the third electrolytic capacitor are connected to a negative potential conductor, a negative terminal (C1N) of the first electrolytic capacitor and a positive terminal (C2P) of the second electrolytic capacitor are connected to a common potential conductor (352, 354), a positive terminal (C3P) of the third electrolytic capacitor and a negative terminal (C4N) of the fourth electrolytic capacitor are connected to the common potential conductor, characterised in that a distance between the positive terminal (C1P) of the first electrolytic capacitor and the negative terminal (C3N) of the third electrolytic capacitor is shorter than a distance between the positive terminal (C1P) of the first electrolytic capacitor and the positive terminal (C4P) of the fourth electrolytic capacitor, and a distance between the positive terminal (C4P) of the fourth electrolytic capacitor and the negative terminal (C2N) of the second electrolytic capacitor is shorter than a distance between the positive terminal (C4P) of the fourth electrolytic capacitor and the positive terminal (C1P) of the first electrolytic capacitor.
A method for monitoring the composition of a fluid flowing through a vessel at a flow rate which comprises the steps of: a) applying a continuous periodic acoustical signal to the outside of the vessel such that the acoustical signal is transferred to the flowing fluid, thereby generating vibrational resonance features; b) detecting the vibrational features generated in the flowing liquid; c) sweeping the continuous periodic acoustical signal through a chosen frequency range which includes a portion of one vibrational resonance feature; d) measuring the phase of the vibrational resonance feature relative to that for the continuous periodic acoustical signal generating thereby a phase difference; e) determining the flow rate of the fluid; and f) correcting the phase difference for the flow rate of the fluid, whereby changes in the composition of the fluid are identified. a) applying a continuous periodic acoustical signal to the outside of the vessel such that the acoustical signal is transferred to the flowing fluid, thereby generating vibrational resonance features; b) detecting the vibrational features generated in the flowing liquid; c) sweeping the continuous periodic acoustical signal through a chosen frequency range which includes a portion of one vibrational resonance feature; d) measuring the phase of the vibrational resonance feature relative to that for the continuous periodic acoustical signal generating thereby a phase difference; e) determining the flow rate of the fluid; and f) correcting the phase difference for the flow rate of the fluid, whereby changes in the composition of the fluid are identified.
An electric strike having a bolt cavity arranged to receive at least one bolt of a door lock, the electric strike comprising: - a strike frame; - a keeper (8; 9) mounted on the strike frame, the keeper (8; 9) forming a first side wall of said bolt cavity and being arranged to pivot about a first pivot axis (35; 62), which first pivot axis (35; 62) extends in a first direction, between a door-locking position, wherein the keeper (8; 9) is arranged to retain the bolt to prevent door opening, and a door-releasing position, wherein the keeper (8; 9) is arranged to enable the bolt to exit the bolt cavity in a second direction, which second direction is substantially perpendicular to said first direction; and - at least one lock lever mounted on the strike frame for locking the keeper (8; 9) in said door-locking position, the lock lever being arranged to move between a locking position, wherein the keeper (8; 9), when in said door-locking position, is prevented from pivoting around the first pivot axis (35; 62) to said door-releasing position by the lock lever, and an unlocking position, wherein the keeper (8; 9) is free to pivot around the first pivot axis (35; 62) to said door-releasing position, characterised in that the strike further comprises a further keeper (9; 8) mounted on the strike frame, the further keeper (9; 8) forming a second side wall of said bolt cavity, the second side wall being opposite to said first side wall of the bolt cavity, the further keeper (9; 8) being arranged to pivot about a third pivot axis (62; 35), which third pivot axis (62; 35) is substantially parallel to said first pivot axis (35; 62), between a door-locking position, wherein the further keeper (9; 8) is arranged to retain the bolt to prevent door opening, and a door-releasing position, wherein the further keeper (9; 8) is arranged to enable the bolt to exit the bolt cavity in a direction opposite to said second direction. - a strike frame; - a keeper (8; 9) mounted on the strike frame, the keeper (8; 9) forming a first side wall of said bolt cavity and being arranged to pivot about a first pivot axis (35; 62), which first pivot axis (35; 62) extends in a first direction, between a door-locking position, wherein the keeper (8; 9) is arranged to retain the bolt to prevent door opening, and a door-releasing position, wherein the keeper (8; 9) is arranged to enable the bolt to exit the bolt cavity in a second direction, which second direction is substantially perpendicular to said first direction; and - at least one lock lever mounted on the strike frame for locking the keeper (8; 9) in said door-locking position, the lock lever being arranged to move between a locking position, wherein the keeper (8; 9), when in said door-locking position, is prevented from pivoting around the first pivot axis (35; 62) to said door-releasing position by the lock lever, and an unlocking position, wherein the keeper (8; 9) is free to pivot around the first pivot axis (35; 62) to said door-releasing position, characterised in that
A control system for a surgical system, the control system comprising: an imaging system comprising: a multispectral electromagnetic radiation source; and an image sensor; and a control circuit coupled to the imaging system, the control circuit configured to: detect the EMR reflected from particulates in an aerosol as received by the image sensor; characterize a configuration of the aerosol containing the detected particulates; and adjust at least one of a first control parameter or a second control parameter of the surgical system according to the characterized configuration of the aerosol. an imaging system comprising: a multispectral electromagnetic radiation source; and an image sensor; and a multispectral electromagnetic radiation source; and an image sensor; and a control circuit coupled to the imaging system, the control circuit configured to: detect the EMR reflected from particulates in an aerosol as received by the image sensor; characterize a configuration of the aerosol containing the detected particulates; and adjust at least one of a first control parameter or a second control parameter of the surgical system according to the characterized configuration of the aerosol. detect the EMR reflected from particulates in an aerosol as received by the image sensor; characterize a configuration of the aerosol containing the detected particulates; and adjust at least one of a first control parameter or a second control parameter of the surgical system according to the characterized configuration of the aerosol.
An elevator car comprising: at least one movable wall panel (16, 18), which is movable between a closed position, in which the at least one movable wall panel (16, 18) constitutes a portion of a sidewall of the elevator car, and at least one open position providing an opening which allows access to areas outside the elevator from inside the elevator car, wherein the at least one movable wall panel (16, 18) includes a first movable wall panel constituting or supporting a car operation panel; characterized in that the at least one movable wall panel (16, 18) is slidable in a direction which is orthogonal or inclined with respect to a side wall of the elevator car. at least one movable wall panel (16, 18), which is movable between a closed position, in which the at least one movable wall panel (16, 18) constitutes a portion of a sidewall of the elevator car, and at least one open position providing an opening which allows access to areas outside the elevator from inside the elevator car, wherein the at least one movable wall panel (16, 18) includes a first movable wall panel constituting or supporting a car operation panel; characterized in that the at least one movable wall panel (16, 18) is slidable in a direction which is orthogonal or inclined with respect to a side wall of the elevator car.
Implantable access device for removal and/or return of fluids to a patient, being an animal or human, comprising a casing attached to an internal conduit to be connected with a lumen of the patient, a connector attached at the casing and connected to an external conduit, and arranged for attachment of an extracorporeal lumen to the device, and an actuator unit within the casing to selectively allow or block the fluid communication between the internal conduit and the external conduit; the device further comprising a fixation unit (34, 35) integrated in or attached at the casing arranged for fixation of the device to a bone of the patient; characterized in that the fixation unit (34, 35) extends axially along the longitudinal axis of the device, and in that the internal conduit comprises two or more tube lines (61, 62, 63) for a predetermined flow direction and the external conduit comprises two or more separate access lines (71, 72, 73) for a predetermined flow direction, the tube lines (61, 62, 63) exiting the casing in a direction substantially parallel with the longitudinal axis of the device.
A refrigerator, comprising a storage compartment having a front opening and an air sanitation device mounted on a top wall of the storage compartment; and the air sanitation device comprising: a housing, comprising a front wall facing the front opening, a rear wall, an upper wall, a lower wall, and a pair of side walls; an air channel located in the housing, wherein the air channel comprises an air inlet and an air outlet; a fan, configured to force air to enter the air channel from the air inlet, and then be discharged out of the air channel from the air outlet; and an air detection device and/or an air purification device located in the air channel, wherein the air outlet is located on the rear wall, the air channel comprises a first channel segment located between the air inlet and the fan and a second channel segment located between the fan and the air outlet, the first channel segment extends transversely toward the fan, characterized in that the second channel segment extends toward the rear wall in a front-to-rear direction and the air inlet is located on at least one of the side walls. a housing, comprising a front wall facing the front opening, a rear wall, an upper wall, a lower wall, and a pair of side walls; an air channel located in the housing, wherein the air channel comprises an air inlet and an air outlet; a fan, configured to force air to enter the air channel from the air inlet, and then be discharged out of the air channel from the air outlet; and an air detection device and/or an air purification device located in the air channel, wherein the air outlet is located on the rear wall, the air channel comprises a first channel segment located between the air inlet and the fan and a second channel segment located between the fan and the air outlet, the first channel segment extends transversely toward the fan, characterized in that the second channel segment extends toward the rear wall in a front-to-rear direction and the air inlet is located on at least one of the side walls.
A method for purifying silicon, comprising: (a) contacting a first silicon with a second mother liquor, to provide a first mixture; (b) melting the first mixture, to provide a first molten mixture; (c) cooling the first molten mixture to form first silicon crystals and a third mother liquor; (d) separating the first silicon crystals and the third mother liquor; (e) contacting the first silicon crystals and a first mother liquor, to provide a second mixture; (f) melting the second mixture, to provide a second molten mixture; (g) cooling the second molten mixture to form second silicon crystals and the second mother liquor; (h) separating the second silicon crystals and the second mother liquor; (i) contacting the second silicon crystals with a first solvent metal, to provide a third mixture; (j) melting the third mixture, to provide a third molten mixture; (k) cooling the third molten mixture to form third silicon crystals and the first mother liquor; and (l) separating the third silicon crystals and the first mother liquor. wherein the mother liquors and the first solvent metal comprise a solvent metal, the solvent metal being selected from the group consisting of copper, tin, zinc, antimony, silver, bismuth, aluminum, cadmium, gallium, indium, magnesium, lead, an alloy thereof, and combinations thereof; and further comprising combining the second mother liquor with at least a portion of the third mother liquor prior to contacting the second mother liquor with the first silicon. (a) contacting a first silicon with a second mother liquor, to provide a first mixture; (b) melting the first mixture, to provide a first molten mixture; (c) cooling the first molten mixture to form first silicon crystals and a third mother liquor; (d) separating the first silicon crystals and the third mother liquor; (e) contacting the first silicon crystals and a first mother liquor, to provide a second mixture; (f) melting the second mixture, to provide a second molten mixture; (g) cooling the second molten mixture to form second silicon crystals and the second mother liquor; (h) separating the second silicon crystals and the second mother liquor; (i) contacting the second silicon crystals with a first solvent metal, to provide a third mixture; (j) melting the third mixture, to provide a third molten mixture; (k) cooling the third molten mixture to form third silicon crystals and the first mother liquor; and (l) separating the third silicon crystals and the first mother liquor.
A pneumatic tire, including a tread comprising a tread rubber composition, the tread rubber composition comprising a rubber component comprising 30% by mass or more of a styrene-butadiene rubber, the tread rubber composition comprising, per 100 parts by mass of the rubber component: 80 to 150 parts by mass of silica; 0.1 to 3.0 parts by mass of a tetrazine compound represented by the following formula: wherein R 1 and R 2 may be the same or different and each represent a hydrogen atom, -COOR 3 in which R 3 represents either a hydrogen atom or an alkyl group, or a C1-C11 monovalent hydrocarbon group optionally containing a heteroatom, and R 1 and R 2 may each form a salt; and 50 parts by mass or less of a hydrocarbon resin having a SP value of 7.5 to 10.5, the styrene-butadiene rubber having a styrene content of 23% by mass or higher. the tread rubber composition comprising a rubber component comprising 30% by mass or more of a styrene-butadiene rubber, the tread rubber composition comprising, per 100 parts by mass of the rubber component: 80 to 150 parts by mass of silica; 0.1 to 3.0 parts by mass of a tetrazine compound represented by the following formula: wherein R 1 and R 2 may be the same or different and each represent a hydrogen atom, -COOR 3 in which R 3 represents either a hydrogen atom or an alkyl group, or a C1-C11 monovalent hydrocarbon group optionally containing a heteroatom, and R 1 and R 2 may each form a salt; and 50 parts by mass or less of a hydrocarbon resin having a SP value of 7.5 to 10.5, the styrene-butadiene rubber having a styrene content of 23% by mass or higher. 80 to 150 parts by mass of silica; 0.1 to 3.0 parts by mass of a tetrazine compound represented by the following formula: wherein R 1 and R 2 may be the same or different and each represent a hydrogen atom, -COOR 3 in which R 3 represents either a hydrogen atom or an alkyl group, or a C1-C11 monovalent hydrocarbon group optionally containing a heteroatom, and R 1 and R 2 may each form a salt; and 50 parts by mass or less of a hydrocarbon resin having a SP value of 7.5 to 10.5, the styrene-butadiene rubber having a styrene content of 23% by mass or higher.