mhurhangee/ep-ind-claims huggingface dataset:
A method of suppressing non-specific protein adsorption, the method comprising the steps of: (i) treating a solid phase with a solid phase-treating liquid containing a phosphorylcholine group-containing polymer as a main component; and (ii) treating a specimen with a specimen-treating liquid containing, as a main component, a copolymer having three separate components selected from a phosphorylcholine group, a hydroxy group, and a hydrophobic group, followed by addition of the treated specimen to the solid phase treated in the step (i), or (iii) treating a specimen with a specimen-treating liquid containing, as a main component, a copolymer having three separate components selected from a phosphorylcholine group, a hydroxy group, and a hydrophobic group; and (iv) treating a solid phase with a solid phase-treating liquid containing a phosphorylcholine group-containing polymer as a main component, followed by addition of the specimen treated in the step (iii) to the treated solid phase. (i) treating a solid phase with a solid phase-treating liquid containing a phosphorylcholine group-containing polymer as a main component; and (ii) treating a specimen with a specimen-treating liquid containing, as a main component, a copolymer having three separate components selected from a phosphorylcholine group, a hydroxy group, and a hydrophobic group, followed by addition of the treated specimen to the solid phase treated in the step (i), or (iii) treating a specimen with a specimen-treating liquid containing, as a main component, a copolymer having three separate components selected from a phosphorylcholine group, a hydroxy group, and a hydrophobic group; and (iv) treating a solid phase with a solid phase-treating liquid containing a phosphorylcholine group-containing polymer as a main component, followed by addition of the specimen treated in the step (iii) to the treated solid phase.
A method comprising: receiving a fluorescence emission spectrum generated by a protein sample at a first excitation wavelength, said protein sample being configured to exhibit fluorescence in dependence upon its conformational state; evaluating, from said fluorescence emission spectrum, an indication characteristic of a fluorescence response of said protein sample at said first excitation wavelength; repeating said receiving and evaluating steps in relation to a plurality of fluorescence emission spectra, each fluorescence spectrum generated by said protein sample at a different excitation wavelength to said first excitation wavelength; generating a non-linear relationship between excitation wavelength and indication characteristic of fluorescence response of said protein sample, said non-linear relationship comprising an indication of at least one characteristic of said conformational state of said protein sample, based upon correlation of said excitation wavelengths and associated evaluated indications characteristic of said fluorescence response of said protein sample; and determining a characterisation of said conformational state of said protein sample based on curvature of said generated non-linear relationship. receiving a fluorescence emission spectrum generated by a protein sample at a first excitation wavelength, said protein sample being configured to exhibit fluorescence in dependence upon its conformational state; evaluating, from said fluorescence emission spectrum, an indication characteristic of a fluorescence response of said protein sample at said first excitation wavelength; repeating said receiving and evaluating steps in relation to a plurality of fluorescence emission spectra, each fluorescence spectrum generated by said protein sample at a different excitation wavelength to said first excitation wavelength; generating a non-linear relationship between excitation wavelength and indication characteristic of fluorescence response of said protein sample, said non-linear relationship comprising an indication of at least one characteristic of said conformational state of said protein sample, based upon correlation of said excitation wavelengths and associated evaluated indications characteristic of said fluorescence response of said protein sample; and determining a characterisation of said conformational state of said protein sample based on curvature of said generated non-linear relationship.
Wall arrangement for a vehicle, having a sandwich panel which comprises a core layer which is provided on both sides in each case with a metal cover layer, wherein edge portions of the cover layers protrude from an end face of the core layer on at least one side of the sandwich panel, and having a metal connecting profile which comprises an edge portion which is inserted into a space between the two protruding edge portions of the cover layers, wherein inside surfaces of the protruding edge portions of the cover layers are connected structurally to assigned outside surfaces of the inserted edge portion of the connecting profile in each case by means of an adhesive layer, characterized in that at least one of the protruding edge portions of the cover layers is connected so as to be electrically conducting to the edge portion of the connecting profile, said edge portion abutting against the inside surface of said protruding edge portion of the cover layers, at a spacing from the adhesive layer by means of a weld seam.
A mobility management method, which is applied to a network side device, wherein the method comprises: sending a radio resource control RRC connection reconfiguration message to an Internet of Vehicles terminal when determining that network handover is required to be performed for the Internet of Vehicles terminal; receiving a RRC connection reconfiguration completion message which carries current physical location information of the Internet of Vehicles terminal and is sent by the Internet of Vehicles terminal; wherein the current physical location information of the Internet of Vehicles terminal further carries current motion state information of the Internet of Vehicles terminal; the current motion state information of the Internet of Vehicles terminal includes: a current running speed, a running direction, an acceleration, a running time, and a destination of the Internet of Vehicles terminal; the network side device, according to the current physical location information of the Internet of Vehicles terminal and the current motion state information of the Internet of Vehicles terminal included in the current physical location information of the Internet of Vehicles terminal, predicts a subsequent motion track of the Internet of Vehicles terminal, wherein the method further comprises: transmitting another RRC connection reconfiguration message with an optimized resource allocation to the Internet of Vehicles terminal, wherein the optimized resource allocation is based on the current physical location information of the Internet of Vehicles terminal and the predicted subsequent motion track. sending a radio resource control RRC connection reconfiguration message to an Internet of Vehicles terminal when determining that network handover is required to be performed for the Internet of Vehicles terminal; receiving a RRC connection reconfiguration completion message which carries current physical location information of the Internet of Vehicles terminal and is sent by the Internet of Vehicles terminal; wherein the current physical location information of the Internet of Vehicles terminal further carries current motion state information of the Internet of Vehicles terminal; the current motion state information of the Internet of Vehicles terminal includes: a current running speed, a running direction, an acceleration, a running time, and a destination of the Internet of Vehicles terminal; the network side device, according to the current physical location information of the Internet of Vehicles terminal and the current motion state information of the Internet of Vehicles terminal included in the current physical location information of the Internet of Vehicles terminal, predicts a subsequent motion track of the Internet of Vehicles terminal, wherein the method further comprises: transmitting another RRC connection reconfiguration message with an optimized resource allocation to the Internet of Vehicles terminal, wherein the optimized resource allocation is based on the current physical location information of the Internet of Vehicles terminal and the predicted subsequent motion track.
A fluid property sensing device for use in a fluid reservoir comprising: a substrate having a trench formed therein, the trench comprising a bottom surface and opposite side surfaces; a first electrode disposed on a first side surface of the trench; and a second electrode disposed on a second side surface of the trench; wherein the first electrode and second electrode form a capacitor to measure a complex impedance of a fluid that fills a space between the first electrode and the second electrode, the complex impedance indicating a property of the fluid; and wherein the device further comprises a fluid level sensing die disposed on the substrate, characterized in that the trench surrounds the fluid level sensing die. a substrate having a trench formed therein, the trench comprising a bottom surface and opposite side surfaces; a first electrode disposed on a first side surface of the trench; and a second electrode disposed on a second side surface of the trench; wherein the first electrode and second electrode form a capacitor to measure a complex impedance of a fluid that fills a space between the first electrode and the second electrode, the complex impedance indicating a property of the fluid; and wherein the device further comprises a fluid level sensing die disposed on the substrate, characterized in that the trench surrounds the fluid level sensing die.
An autonomous mobile robot, comprising: a housing having a bottom; a motive system operative to propel the robot across a surface; and an induction charging system including a receiver coil in the housing proximate the bottom of the housing; wherein the housing includes a bottom wall separating the receiver coil from the surface, characterized by: a debris bin disposed at least partially above the receiver coil. a housing having a bottom; a motive system operative to propel the robot across a surface; and an induction charging system including a receiver coil in the housing proximate the bottom of the housing; wherein the housing includes a bottom wall separating the receiver coil from the surface, characterized by: a debris bin disposed at least partially above the receiver coil.
A semiconductor device, comprising: a first conductive type semiconductor base substrate constituted by an n + type substrate and an n - type drain region; the n - type drain region formed on a first main surface of the n + type substrate and having a first main surface and a second main surface opposite to the first main surface of the n - type drain region; a switching mechanism (6, 7, 10) which is formed on the first main surface of the n - type drain region and switches ON/OFF of a current, wherein a plurality of columnar heterojunction-semiconductor regions, which are made of a semiconductor material having a different band gap from the semiconductor base substrate, are formed at spaced intervals within the n - type drain region, and the heterojunction-semiconductor regions penetrate from the first main surface to the second main surface of the n - type drain region; wherein the semiconductor base substrate is made of any one of silicon carbide (SiC), gallium nitride (GaN), and diamond, and the heterojunction-semiconductor regions are made of p + type polycrystalline silicon. a first conductive type semiconductor base substrate constituted by an n + type substrate and an n - type drain region; the n - type drain region formed on a first main surface of the n + type substrate and having a first main surface and a second main surface opposite to the first main surface of the n - type drain region; a switching mechanism (6, 7, 10) which is formed on the first main surface of the n - type drain region and switches ON/OFF of a current, wherein a plurality of columnar heterojunction-semiconductor regions, which are made of a semiconductor material having a different band gap from the semiconductor base substrate, are formed at spaced intervals within the n - type drain region, and the heterojunction-semiconductor regions penetrate from the first main surface to the second main surface of the n - type drain region; wherein the semiconductor base substrate is made of any one of silicon carbide (SiC), gallium nitride (GaN), and diamond, and the heterojunction-semiconductor regions are made of p + type polycrystalline silicon.
A method for producing a low sodium nutritional composition, the method comprising the steps of: preparing a first slurry, wherein the first slurry comprises water and dry ingredients; heating the first slurry to a first predetermined temperature; cooling the first slurry to a second predetermined temperature; adding a second slurry to the first slurry to form a nutritional composition, wherein the second slurry comprises at least cold water and a source of potassium chloride, wherein the source of potassium chloride is present in an amount from 0.1% to 1.0% by weight of the nutritional composition; and packaging the nutritional composition. preparing a first slurry, wherein the first slurry comprises water and dry ingredients; heating the first slurry to a first predetermined temperature; cooling the first slurry to a second predetermined temperature; adding a second slurry to the first slurry to form a nutritional composition, wherein the second slurry comprises at least cold water and a source of potassium chloride, wherein the source of potassium chloride is present in an amount from 0.1% to 1.0% by weight of the nutritional composition; and packaging the nutritional composition.
A method of producing a biodegradable resin composition, comprising: step of mixing a biodegradable resin, a plasticizer, and a crystal nucleating agent being an aliphatic compound having, in its molecule, two or more of at least one group selected from the group consisting of an ester group, a hydroxyl group and an amide group with one another at the melting point (Tm) of the biodegradable resin or more and step of thermally treating the resulting biodegradable resin composition at a temperature of from the glass transition temperature (Tg) to less than Tm of the biodegradable resin, wherein the melting point of the crystal nucleating agent is in the range of from 70 °C to 220 °C, wherein the biodegradable resin is a polyester resin having biodegradability based on JIS K6953, the content of the plasticizer is 7 to 70 parts by weight, and the content of the crystal nucleating agent is 0.1 to 5 parts by weight, based on 100 parts by weight of the biodegradable resin. step of mixing a biodegradable resin, a plasticizer, and a crystal nucleating agent being an aliphatic compound having, in its molecule, two or more of at least one group selected from the group consisting of an ester group, a hydroxyl group and an amide group with one another at the melting point (Tm) of the biodegradable resin or more and step of thermally treating the resulting biodegradable resin composition at a temperature of from the glass transition temperature (Tg) to less than Tm of the biodegradable resin, wherein the melting point of the crystal nucleating agent is in the range of from 70 °C to 220 °C, wherein the biodegradable resin is a polyester resin having biodegradability based on JIS K6953, the content of the plasticizer is 7 to 70 parts by weight, and the content of the crystal nucleating agent is 0.1 to 5 parts by weight, based on 100 parts by weight of the biodegradable resin.
A composition for use in preventing or reducing the symptoms of lactose intolerance in an animal, where the composition contains beta-casein, and where the beta-casein comprises at least 75% by weight beta-casein A2.
Nozzle system for a powder blasting device comprising a first nozzle element for transporting a powder-gas mixture stream along a transporting direction and a second nozzle element, wherein the second nozzle element surrounds the first nozzle element such that at least one channel is formed between the first nozzle element and the second nozzle element, wherein the channel is provided for transporting a liquid stream, wherein the first nozzle element and the second nozzle element are arranged such that in operation the powder-gas-mixture stream ejected by the first nozzle element is encased by the liquid stream ejected by the channel for forming an output stream of the nozzle system, wherein the first nozzle element has an acceleration part having a first cross section and a spreading part having a second cross section, wherein the spreading part is arranged downstream of the acceleration part, wherein the second cross section is larger than the first cross section, wherein the liquid stream is ejected from the channel via an output surface and wherein the output surface has a third cross section, characterized in that the third cross section has a size between 0.3 and 0.6 mm 2. a first nozzle element for transporting a powder-gas mixture stream along a transporting direction and a second nozzle element, wherein the second nozzle element surrounds the first nozzle element such that at least one channel is formed between the first nozzle element and the second nozzle element, wherein the channel is provided for transporting a liquid stream, wherein the first nozzle element and the second nozzle element are arranged such that in operation the powder-gas-mixture stream ejected by the first nozzle element is encased by the liquid stream ejected by the channel for forming an output stream of the nozzle system, wherein the first nozzle element has an acceleration part having a first cross section and a spreading part having a second cross section, wherein the spreading part is arranged downstream of the acceleration part, wherein the second cross section is larger than the first cross section, wherein the liquid stream is ejected from the channel via an output surface and wherein the output surface has a third cross section, characterized in that the third cross section has a size between 0.3 and 0.6 mm 2.
Method for enriching short-chain nucleic acids, in particular DNA and/or RNA, with a length of < 1000bp from a nucleic acid-containing starting material comprising the following method steps: (x) Binding of long-chain nucleic acids to a nucleic acid-binding support material, by contracting the starting material in the presence of at least one chaotropic compound and at least one branched and/or unbranched alcohol with the nucleic acid-binding support material, wherein the alcohol is present in a concentration of ≤ 25% (v/v); (a) Binding of short-chain nucleic acids contained in the breakthrough/supernatant from step (x) to a nucleic acid-binding support material, by contacting the breakthrough/supernatant in the presence of at least one chaotropic compound and at least one branched and/or unbranched alcohol with the nucleic acid-binding support material, wherein the alcohol is present in a concentration of 25 to 40% (v/v); (b) Optionally eluting the bound short-chain nucleic acids from the nucleic acid-binding support material. (x) Binding of long-chain nucleic acids to a nucleic acid-binding support material, by contracting the starting material in the presence of at least one chaotropic compound and at least one branched and/or unbranched alcohol with the nucleic acid-binding support material, wherein the alcohol is present in a concentration of ≤ 25% (v/v); (a) Binding of short-chain nucleic acids contained in the breakthrough/supernatant from step (x) to a nucleic acid-binding support material, by contacting the breakthrough/supernatant in the presence of at least one chaotropic compound and at least one branched and/or unbranched alcohol with the nucleic acid-binding support material, wherein the alcohol is present in a concentration of 25 to 40% (v/v); (b) Optionally eluting the bound short-chain nucleic acids from the nucleic acid-binding support material.
Fork clamp for fixing to a tine of a fork of a lifting device in particular a forklift, - comprising a base plate from which two lateral webs (7, 8), which are at a distance from one another in a spacing direction, protrude, - comprising a cover plate, which can be or is fixed onto the lateral webs (7, 8) opposite the base plate using clamping bolts, characterised in that at least two different distances (11, 12) can be set and/or at least one intermediate web can be inserted between the lateral webs (7, 8). - comprising a base plate from which two lateral webs (7, 8), which are at a distance from one another in a spacing direction, protrude, - comprising a cover plate, which can be or is fixed onto the lateral webs (7, 8) opposite the base plate using clamping bolts,
A method of rolling a metal plate from an ingot or thick slab in a screwdown mill featuring mechanical screws that cannot be moved under load, the method comprising: setting a work roll gap with a mechanical screw and rolling the ingot or slab through a first pass extending over the full length of the ingot or slab to produce a rolled product; removing the rolled product from the roll gap and using the mechanical screw to set a reduced roll gap; rolling the rolled product through the reduced roll gap over a partial pass, the partial pass extending over less than the full length of the rolled product, to form a further rolled product; and removing the further rolled product from the roll gap; wherein the method further comprises turning the rolled plate through 90° and carrying out a further roll pass in a width direction (broadsiding) of the plate. setting a work roll gap with a mechanical screw and rolling the ingot or slab through a first pass extending over the full length of the ingot or slab to produce a rolled product; removing the rolled product from the roll gap and using the mechanical screw to set a reduced roll gap; rolling the rolled product through the reduced roll gap over a partial pass, the partial pass extending over less than the full length of the rolled product, to form a further rolled product; and removing the further rolled product from the roll gap; wherein the method further comprises turning the rolled plate through 90° and carrying out a further roll pass in a width direction (broadsiding) of the plate.
A method for producing a flexible display panel, characterized in that it comprises the following steps of: providing a bearing substrate and a transparent substrate arranged with the flexible display panel; setting a laser irradiation path and irradiating the bearing substrate by using a laser along the set laser irradiation path to form a mark region on the bearing substrate; placing the flexible display panel on the mark region correspondingly; irradiating from a side of the transparent substrate by re-using the laser along the set laser irradiation path, to peel off the flexible display panel from the transparent substrate; and separating the flexible display panel from the mark region on the bearing substrate to obtain the flexible display panel. providing a bearing substrate and a transparent substrate arranged with the flexible display panel; setting a laser irradiation path and irradiating the bearing substrate by using a laser along the set laser irradiation path to form a mark region on the bearing substrate; placing the flexible display panel on the mark region correspondingly; irradiating from a side of the transparent substrate by re-using the laser along the set laser irradiation path, to peel off the flexible display panel from the transparent substrate; and separating the flexible display panel from the mark region on the bearing substrate to obtain the flexible display panel.
A process for exfoliating graphene, comprising a step of irradiating a first substrate comprising graphene on its surface, with a helium or hydrogen plasma containing ions of energy comprised between 10 and 60 eV.