mhurhangee/patent-ind-claim-en huggingface dataset:
A method of coating a substrate, including the steps of: (i) providing a suspension of dye and a binder in a solvent, wherein the ratio of dye to binder is greater than 40 wt% and the dye is uniformly dispersed in the solvent; (ii) spray-coating the suspension onto the substrate with the majority of the solvent evaporating during the spray coating step to result in a porous coating of dye and binder on the substrate; and (iii) continuing step (ii) until the coating thickness is at least 30 micrometres; wherein the dye does not include any carbon nanotubes, characterised in that the coating of dye and binder on the substrate has a density of up to 0.75gcm -3 so as to result in pores or cavities which act as optical traps to suppress light reflectance. (i) providing a suspension of dye and a binder in a solvent, wherein the ratio of dye to binder is greater than 40 wt% and the dye is uniformly dispersed in the solvent; (ii) spray-coating the suspension onto the substrate with the majority of the solvent evaporating during the spray coating step to result in a porous coating of dye and binder on the substrate; and (iii) continuing step (ii) until the coating thickness is at least 30 micrometres; wherein the dye does not include any carbon nanotubes, characterised in that the coating of dye and binder on the substrate has a density of up to 0.75gcm -3 so as to result in pores or cavities which act as optical traps to suppress light reflectance.
A magnetorheological (MR) fluid comprising magnetically responsive particles, a carrier fluid, a friction reducing agent comprising an amine oleate salt, and molybdenum disulfide, wherein the molybdenum disulfide is present at from 1.0 to 7.0 weight % based on the total weight of the MR fluid.
A method for generating steam from a liquid by means of a steam generator that comprises at least one heating element and at least one pressure tank with an exit opening and an outer side , wherein the liquid (a) is heated in the pressure tank by means of the heating element and (b) leaves the pressure tank through the exit opening , wherein a first part of the liquid evaporates and a second part of the liquid remains liquid, characterised in that the steam generator has a deflection hood onto which the second part of the liquid strikes and from there is directed to the outer side , which has a temperature that is higher than the evaporation temperature or boiling temperature of the liquid directed to the outer side . (a) is heated in the pressure tank by means of the heating element and (b) leaves the pressure tank through the exit opening , wherein a first part of the liquid evaporates and a second part of the liquid remains liquid,
Method for the automated quantification of an analyte in a test sample , particularly in a liquid test sample, comprising the following method steps • specifying an analyte to be quantified; • supplying a 1D-NMR spectrum ; • supplying a 2D-NMR spectrum , in particular a JRES, HMBC, HSQC, COSY, and/or DOSY spectrum; • supplying a piece of information about an analyte to be quantified; • determining a chemical shift of an NMR signal of the analyte to be quantified from the 2D-NMR spectrum on the basis of the supplied piece of information; • determining the expected peak positions of the NMR signal of the analyte to be quantified, in particular of a singlet and/or multiplet of the analyte to be quantified; • determining the actual peak positions from the 1D-NMR spectrum ; • determining the peak positions of interfering signals on the basis of the expected peak positions and actual peak positions ; • modelling the 1D-NMR spectrum on the basis of the peak positions determined for interfering signals, on the basis of the determined chemical shift , and on the basis of the supplied piece of information; • integrating the modelled 1D-NMR spectrum ; • quantifying the analyte through internal or external referencing. • specifying an analyte to be quantified; • supplying a 1D-NMR spectrum ; • supplying a 2D-NMR spectrum , in particular a JRES, HMBC, HSQC, COSY, and/or DOSY spectrum; • supplying a piece of information about an analyte to be quantified; • determining a chemical shift of an NMR signal of the analyte to be quantified from the 2D-NMR spectrum on the basis of the supplied piece of information; • determining the expected peak positions of the NMR signal of the analyte to be quantified, in particular of a singlet and/or multiplet of the analyte to be quantified; • determining the actual peak positions from the 1D-NMR spectrum ; • determining the peak positions of interfering signals on the basis of the expected peak positions and actual peak positions ; • modelling the 1D-NMR spectrum on the basis of the peak positions determined for interfering signals, on the basis of the determined chemical shift , and on the basis of the supplied piece of information; • integrating the modelled 1D-NMR spectrum ; • quantifying the analyte through internal or external referencing.
A biomimetic flow apparatus that can be used to grow a kidney cell culture comprising: a microfluidic flow channel comprising a topographical pattern at a first region of a surface of the microfluidic flow channel; an inlet in fluid connection with the microfluidic flow channel for allowing fluid to flow into the microfluidic flow channel; and renal cells seeded on the topographical pattern; wherein the topographical pattern of the surface of the microfluidic flow channel comprises ridges parallel to the direction of the microfluidic flow channel and the ridges have a width of greater than 20 nm and less than 5 μm, and the topographical pattern is selected to cause the renal cells to form a cell layer disposed above the surface to achieve an arrangement, behavior, or morphology determined at least in part by the topographical pattern of the at least one surface. a microfluidic flow channel comprising a topographical pattern at a first region of a surface of the microfluidic flow channel; an inlet in fluid connection with the microfluidic flow channel for allowing fluid to flow into the microfluidic flow channel; and renal cells seeded on the topographical pattern; wherein the topographical pattern of the surface of the microfluidic flow channel comprises ridges parallel to the direction of the microfluidic flow channel and the ridges have a width of greater than 20 nm and less than 5 μm, and the topographical pattern is selected to cause the renal cells to form a cell layer disposed above the surface to achieve an arrangement, behavior, or morphology determined at least in part by the topographical pattern of the at least one surface.
Waveguide coupling for a fill level radar , comprising: a waveguide ; a high-frequency chip , which is arranged at least partially in the waveguide, for generation of a high-frequency transmission signal; wherein the high-frequency chip comprises a coupling element for coupling the transmission signal into the waveguide, a substrate , on which the high-frequency chip is mounted, wherein the substrate is mounted on the waveguide , characterized in that the waveguide comprises an resonator chamber which is integrated in a cavity in the substrate and that the waveguide is inserted in the cavity. a waveguide ; a high-frequency chip , which is arranged at least partially in the waveguide, for generation of a high-frequency transmission signal; wherein the high-frequency chip comprises a coupling element for coupling the transmission signal into the waveguide, a substrate , on which the high-frequency chip is mounted, wherein the substrate is mounted on the waveguide ,
A chewable gel product, comprising a non-acid-activated gel carrier; and an active pharmaceutical ingredient, wherein the non-acid-activated gel carrier comprises a combination of carrageenan and pectin or a combination of carrageenan and gelatin, wherein the active pharmaceutical ingredient is loratadine, or a pharmaceutically acceptable salt, ester, hydrate, or solvate thereof and wherein the chewable gel product has a pH value that ranges from about 4 to about 8. a non-acid-activated gel carrier; and an active pharmaceutical ingredient, wherein the non-acid-activated gel carrier comprises a combination of carrageenan and pectin or a combination of carrageenan and gelatin, wherein the active pharmaceutical ingredient is loratadine, or a pharmaceutically acceptable salt, ester, hydrate, or solvate thereof and wherein the chewable gel product has a pH value that ranges from about 4 to about 8.
An adapter bend for connecting a drain line of a sanitary article to a drain pipe , at least comprising: - a first pipe bend with an inflow connector and a first connection piece ; - a second pipe bend with an outflow connector and a second connection piece ; - a connecting pipe which connects the first connection piece of the first pipe bend to the second connection piece of the second pipe bend so that the inflow connector and the outflow connector are arranged with an offset , the connecting pipe being formed from at least one pipe segment , - a bracing device for bracing the first pipe bend with the second pipe bend , characterized in that the bracing device extends from the first pipe bend to the second pipe bend , wherein the connecting pipe is formed from a plurality of pipe segments . - a first pipe bend with an inflow connector and a first connection piece ; - a second pipe bend with an outflow connector and a second connection piece ; - a connecting pipe which connects the first connection piece of the first pipe bend to the second connection piece of the second pipe bend so that the inflow connector and the outflow connector are arranged with an offset , the connecting pipe being formed from at least one pipe segment , - a bracing device for bracing the first pipe bend with the second pipe bend , the bracing device extends from the first pipe bend to the second pipe bend , wherein the connecting pipe is formed from a plurality of pipe segments .
A method of operation of a User Equipment device, UE, that transmits and/or receives to and/or from a source Antenna Node, AN, (12-1) on a source beam (16-1), comprising: performing a Mobility Reference Signal, MRS, search to attempt to detect MRS transmitted by one or more candidate ANs (12-2, 12-3) for one or more candidate beams (16-2, 16-3); and if one or more conditions that are indicative of the MRS search being unsuccessful are met, transmitting an indication that the MRS search was unsuccessful, wherein the indication is configured to trigger an increase in MRS transmit power by at least one of the one or more candidate ANs (12-2, 12-3). performing a Mobility Reference Signal, MRS, search to attempt to detect MRS transmitted by one or more candidate ANs (12-2, 12-3) for one or more candidate beams (16-2, 16-3); and if one or more conditions that are indicative of the MRS search being unsuccessful are met, transmitting an indication that the MRS search was unsuccessful, wherein the indication is configured to trigger an increase in MRS transmit power by at least one of the one or more candidate ANs (12-2, 12-3).
A ureteroscope system (100; 200), comprising: a handle configured to remain outside the body; an elongated shaft extending from the handle to a distal end and including a working channel , the working channel being open at the distal end of the shaft , the shaft being configured to be inserted through a bodily lumen to a target surgical site; an external member extending from a proximal end to a distal end and configured to be coupled to the elongated shaft , the external member comprising a proximal hub and a tube extending distally from the hub and defining a first external channel therein, the first external channel having an internal diameter sized to receive a medical instrument configured to be inserted through the external channel to the target surgical site; and a coupling mechanism defining a first tube and a second tube and configured to couple the distal end of the external member to the distal end of the elongated shaft , the first tube defining a first lumen and the second tube defining a second lumen , the second lumen sized and shaped to receive a distal end of the external member, a proximal portion of the first tube sized and shaped to be inserted into a distal portion of the elongated shaft such that the first lumen is open to the working channel . a handle configured to remain outside the body; an elongated shaft extending from the handle to a distal end and including a working channel , the working channel being open at the distal end of the shaft , the shaft being configured to be inserted through a bodily lumen to a target surgical site; an external member extending from a proximal end to a distal end and configured to be coupled to the elongated shaft , the external member comprising a proximal hub and a tube extending distally from the hub and defining a first external channel therein, the first external channel having an internal diameter sized to receive a medical instrument configured to be inserted through the external channel to the target surgical site; and a coupling mechanism defining a first tube and a second tube and configured to couple the distal end of the external member to the distal end of the elongated shaft , the first tube defining a first lumen and the second tube defining a second lumen , the second lumen sized and shaped to receive a distal end of the external member, a proximal portion of the first tube sized and shaped to be inserted into a distal portion of the elongated shaft such that the first lumen is open to the working channel .
Manufacturing process for a watch component in a composite material with a ceramic matrix, comprising the following steps: - depositing in a mould a succession of layers , each comprising a ceramic powder , at least one layer (10; 10, 30; 10, 20, 30, 40) of said succession of layers further comprising fibres mixed with the ceramic powder , the fibres being arranged randomly; - performing a FAST/SPS sintering operation; - demoulding the sintered watch component comprising the succession of layers , and - machining or finishing the sintered component to the final dimensions of the watch component such as said fibres are visible on the surface of the watch component . - depositing in a mould a succession of layers , each comprising a ceramic powder , at least one layer (10; 10, 30; 10, 20, 30, 40) of said succession of layers further comprising fibres mixed with the ceramic powder , the fibres being arranged randomly; - performing a FAST/SPS sintering operation; - demoulding the sintered watch component comprising the succession of layers , and - machining or finishing the sintered component to the final dimensions of the watch component such as said fibres are visible on the surface of the watch component .
An information processing method, comprising: a) obtaining , by a first terminal during a call with a second terminal by using voice information sent by the second terminal, to-be-obtained information and object information of an object to which the to-be-obtained information belongs; b) determining , by the first terminal, at least one category to which the to-be-obtained information belongs; c) determining , by the first terminal, a group that is in any category of the at least one category and is corresponding to the object to which the to-be-obtained information belongs; d) searching , by the first terminal, information in the corresponding group in the any category for target information associated with the object information; and e) processing , by the first terminal, the target information; and f) after the obtaining, by a first terminal, the to-be-obtained information and the object information, and before the determining a group that is in the any category and is corresponding to the object to which the to-be-obtained information belongs, further comprising: g) extracting, by the first terminal, valid information from the object information; and h) the searching, by the first terminal, information in the corresponding group in the any category for target information associated with the object information specifically comprises: i) searching, by the first terminal, the information in the corresponding group in the any category for target information associated with the valid information. a) obtaining , by a first terminal during a call with a second terminal by using voice information sent by the second terminal, to-be-obtained information and object information of an object to which the to-be-obtained information belongs; b) determining , by the first terminal, at least one category to which the to-be-obtained information belongs; c) determining , by the first terminal, a group that is in any category of the at least one category and is corresponding to the object to which the to-be-obtained information belongs; d) searching , by the first terminal, information in the corresponding group in the any category for target information associated with the object information; and e) processing , by the first terminal, the target information; and f) after the obtaining, by a first terminal, the to-be-obtained information and the object information, and before the determining a group that is in the any category and is corresponding to the object to which the to-be-obtained information belongs, further comprising: g) extracting, by the first terminal, valid information from the object information; and h) the searching, by the first terminal, information in the corresponding group in the any category for target information associated with the object information specifically comprises: i) searching, by the first terminal, the information in the corresponding group in the any category for target information associated with the valid information.
A light source device comprising: a first light source that is configured to emit excitation light; a second rotatable light source that includes a fluorescent area configured to emit fluorescent light by being irradiated with the excitation light; and a dichroic mirror that is disposed on an emission side of the second rotatable Z light source and that is configured to reflect the excitation light towards the second light source while transmitting the fluorescent light, wherein an intersection of the optical axis of the first light source and the dichroic rotatable mirror is apart from the center of the optical axis of the second light source , and the second rotatable light source further includes a diffuse reflection area configured to diffuse and reflect the excitation light. a first light source that is configured to emit excitation light; a second rotatable light source that includes a fluorescent area configured to emit fluorescent light by being irradiated with the excitation light; and a dichroic mirror that is disposed on an emission side of the second rotatable Z light source and that is configured to reflect the excitation light towards the second light source while transmitting the fluorescent light, wherein an intersection of the optical axis of the first light source and the dichroic rotatable mirror is apart from the center of the optical axis of the second light source , and the second rotatable light source further includes a diffuse reflection area configured to diffuse and reflect the excitation light.
A polyurethane resin composition comprising: a first urethane resin; a second urethane resin obtained by reacting polyether polyol, an aminoalkoxy silane-based compound, an aliphatic polyisocyanate, and a biuret body bonded with isocyanate; and a plasticizer. a first urethane resin; a second urethane resin obtained by reacting polyether polyol, an aminoalkoxy silane-based compound, an aliphatic polyisocyanate, and a biuret body bonded with isocyanate; and a plasticizer.
A stator assembly , comprising: a cylindrical stator core ; a circumferentially spaced set of posts extending from the stator core and defining a set of stator slots between adjacent posts ; a first set of conductive windings wound about a first subset of stator slots in a first continuous circumferential portion of the stator core ; and a second set of conductive windings wound about a second subset of stator slots in a second continuous circumferential portion of the stator core , and wherein the second continuous circumferential portion is different from the first continuous circumferential portion , and wherein the second set of conductive windings is magnetically isolated from the first set of conductive windings; wherein the first continuous circumferential portion of the stator core is circumferentially spaced from the second circumferential portion of the stator core by one or more slots ; and the one or more slots is one of at least one empty adjacent slot or at least one adjacent slot not having a conductive material within the slot . a cylindrical stator core ; a circumferentially spaced set of posts extending from the stator core and defining a set of stator slots between adjacent posts ; a first set of conductive windings wound about a first subset of stator slots in a first continuous circumferential portion of the stator core ; and a second set of conductive windings wound about a second subset of stator slots in a second continuous circumferential portion of the stator core , and wherein the second continuous circumferential portion is different from the first continuous circumferential portion , and wherein the second set of conductive windings is magnetically isolated from the first set of conductive windings; wherein the first continuous circumferential portion of the stator core is circumferentially spaced from the second circumferential portion of the stator core by one or more slots ; and the one or more slots is one of at least one empty adjacent slot or at least one adjacent slot not having a conductive material within the slot . the first continuous circumferential portion of the stator core is circumferentially spaced from the second circumferential portion of the stator core by one or more slots ; and the one or more slots is one of at least one empty adjacent slot or at least one adjacent slot not having a conductive material within the slot .
A process for the separation of materials in a mixture of materials, comprising: a) introducing a mixture of at least two materials of chemically different type into a vessel ; b) introducing a segregation media to the vessel; c) oscillating a centrally located baffle structure in the vessel at a first frequency and a first amplitude; and d) causing shuggling in the vessel through the oscillating baffle structure so as to result in separation of the at least two materials within the vessel; and characterised in that : the baffle structure consists of a central shaft upon which are located a plurality of discs , each disc including one or more pathways therethrough for the passage of vessel contents. a) introducing a mixture of at least two materials of chemically different type into a vessel ; b) introducing a segregation media to the vessel; c) oscillating a centrally located baffle structure in the vessel at a first frequency and a first amplitude; and d) causing shuggling in the vessel through the oscillating baffle structure so as to result in separation of the at least two materials within the vessel; and